Showing posts with label Anatomy. Show all posts
Showing posts with label Anatomy. Show all posts

23 April 2015

Endoplasmic Reticulum Ppts and latest 200 published articles



Endoplasmic Reticulum

The Endomembrane System
http://www.haverford.edu

CELL STRUCTURE AND FUNCTION
http://www.morgancc.edu

Cell Structure and Function
http://facstaff.bloomu.edu

Organelles of Eukaryotic Cells
http://www.faculty.biol.ttu.edu

Cell Structure: A Tour of the Cell
http://www.lamission.edu/

Key Cell Concepts
http://facstaff.gpc.edu/

Prokaryotes vs. Eukaryotes
http://users.ipfw.edu

The endoplasmic reticulum (ER)
Shai Carmi, Bar-Ilan University
http://www.cs.columbia.edu

Cell Cycle Phases
Chase Findley, MSIV
http://som.uthscsa.edu/

Induction of Endoplasmic Reticulum Stress
Anahita Fallahi, Brian Dixon  , Tory Hagen, Ph.D.
http://oregonstate.edu/

Endoplasmic Reticulum
http://faculty.msmc.edu

latest 400 Published articles of Endoplasmic Reticulum

31 October 2010

Neuroanatomical Techniques



Neuroanatomical Techniques

Presentation by
Armin Blesch, Ph.D.
Harvey Karten, M.D.

Objectives

Neuroanatomical techniques
History of modern neuroanatomy
Rudolf  Albert von Kölliker  (1817-1905)
nucleus  of Kölliker (Rexed  lamina X), continuity of axon and neuron
Heinrich  Wilhelm Gottfried Waldeyer (1837-1921)
Introduced  the term “neuron”  and “chromosome”

Camilio  Golgi   (1843-1926)
Golgi  method; Golgi cells;  Golgi apparatus; Golgi  tendon organ; Golgi-Mazzoni  corpuscle
Santiago  Ramon y Cajal (1852-1934)
Cajal's gold-sublimate method for astrocytes
horizontal  cell of Cajal (Retzius-Cajal cell in cortex
interstitial  nucleus of Cajal

Golgi Stain

Common immunohistochemical stains
Golgi: selective random neuron and fibers
Hematoxylin/Eosin: cell stain
Nissl (thionin): cell body stain
Kluver Barrera: mixed cell fiber stain
Weil: myelinated fiber stain
Acetycholine-esterase
Anterograde and Retrograde Tracing
Brief History of Tracing
(Grafstein, 1967)
(Kristensson & Olsson, 1971)
Fink-Heimer stain
(Heimer 1999)

Chromatolysis

http://cclcm.ccf.org/vm/VM_cases/neuro_cases_PNS_muscle.htm
Anterograde tracing with radioactive amino acids
Edwards and Hendrickson
in: Neuroanatomical tract tracing
Retrograde labeling of spinal motor neurons with HRP
Van der Want  et al.1997
Types of tracers
Application of tracers
Uptake Mechanisms
Active uptake:
Passive incorporation: lipophilic substances
Intracellular injection
Transport
Detection
Fluorescence
Enzyme reaction: HRP (WGA-HRP, CTB-HRP)
Antibodies e.g. CTB
Streptavidin-HRP conjugate for biotinylated tracers e.g. BDA, biocytin
Lectins and Toxins
WGA-HRP
Cholera Toxin beta subunit (CTB)
Retrograde, anterograde and transganglionic
Detection: antibody, HRP conjugate, conjugated to fluorophor
Application: 1 % aqueous solution, iontophoresis or pressure injection
Different efficiency in labeling among different neuronal populatioins and species
Transganglionic tracing of sensory axons with CTB
PHA-L
Anterograde tracing with PHA-L
Gerfen et al. in:
Neuroanatomical tract tracing
FITC/RITC
Fluoresceine isothiocyanate (FITC): green Rhodamine isothiocyanate (RITC): emission >590 nm (red)
Anterograde and retrograde transport
Pressure injection of 1-3% aqueous solution
Lipophilic Carbocyanine Dyes
Lipophilic Carbocyanine Dyes
Labeling of radial glia
Thanos et al. 2000
Dextran amines
Biotinylated dextran amine (BDA)
BDA
Reiner et al. 2000
Anterograde tracing of corticospinal axons
Biocytin/Neurobiotin
Application: 5% solution, pressure injection or iontophoresis
Fast degradation-short survival time 2-3 days
Mostly anterograde transport
Requires glutaraldehyde fixation
Retrograde tracers
All anterograde tracers are partially transported retrogradely
Purely retrograde tracers:
Fast Blue (FB)
Diamidino Yellow (DiY)
Microspheres
Edmund Hollis, UCSD
Scale bar 100 µm
Fluorogold
Fluorogold
Naumann et al. 2000
Ling Wang, UCSD
Cell filling
Viruses
Choosing the Right Tracer
Transgenic “Golgi” stains

GENSAT
 Objective: generate BAC-transgenic mice expressing GFP or CRE under the control of a gene specific promoter
 In situ Hybridization
 Emulsion Autoradiograpy
 Double labeling

Blurton-Jones et al
Blurton-Jones et al

Multiplex mRNA detection
Dave Kosman (Ethan Bier and Bill McGinnis labs, UC San Diego)
http://superfly.ucsd.edu/%7Edavek/images/quad.html
Immunohistochemistry
 Detection Methods
 TSA

Read more...

11 April 2010

Anatomy of Respiratory System



Anatomy of Respiratory System

Organization and Functions of the Respiratory System
* Consists of an upper respiratory tract (nose to larynx) and a lower respiratory tract ( trachea onwards) .
* Conducting portion transports air.
- includes the nose, nasal cavity, pharynx, larynx, trachea, and progressively smaller airways, from the primary bronchi to the terminal bronchioles

* Respiratory portion carries out gas exchange.
- composed of small airways called respiratory bronchioles and alveolar ducts as well as air sacs called alveoli

Respiratory System Functions
* supplies the body with oxygen and disposes of carbon dioxide

Read more...

15 June 2009

Male Sexual Anatomy & Physiology



Male Sexual Anatomy & Physiology

The Penis
* Nerves, blood vessels, fibrous tissue, and three parallel cylinders of spongy tissue.
* There is no bone and little muscular tissue (although there are muscles at the base of the penis)
* Terms:
* Penis: consists of internal root, external shaft, & glans.
* Root: the portion of the penis that extends internally into the pelvic cavity.
* Shaft: the length of the penis between the glans and the body.
* Glans: the head of the penis; has many nerve endings.
* Cavernous bodies: the structures in the shaft of the penis that engorge with blood during sexual arousal.
* Spongy body: a cylinder that forms a bulb at the base of the penis, extends up into the penile shaft, and forms the penile glans. Also engorge with blood during arousal.
* Foreskin: a covering of skin over the penile glans.

Fig 5.1a Interior structure of the penis:
External penile structures
Scrotum and testes
* Scrotum (or scrotal sac):
* Testis
o Male gonad inside scrotum that produces sperm and sex hormones
* Spermatic cord
o A cord attached to the testis inside the scrotum that contains the vas deferens, blood vessels, nerves, and muscle fibers
Structures inside the testis
Cross-section of seminiferous tubule
Interstitial cells: secrete androgens
Spermatogenic cells: produce sperm

Read more...

14 May 2009

Nervous System videos



Nervous System
Medical Gross Anatomy Dissection Videos from University of Michigan Medical School

Anterior Triangle of the Neck
Posterior Triangle of the Neck
Larynx & Pharynx
Scalp, Cranial Cavity, Meninges & Brain
Parotid Gland & Face
Infratemporal Fossa & Oral Cavity
Eye
Ear & Nasal Cavity

Reproductive & Endocrine Systems videos



Reproductive and Endocrine Systems
Medical Gross Anatomy Dissection Videos from University of Michigan Medical School

Pelvis & Pelvic Viscera
Pelvic Neurovasculature
Perineum & External Genitalia

Gastrointestinal System videos



Gastrointestinal System
Medical Gross Anatomy Dissection Videos from University of Michigan Medical School

Abdominal Wall
Inguinal Region
Peritoneal Cavity & Intestines
Stomach & Spleen
Duodenum, Pancreas, Liver, & Gallbladder
Kidneys & Retroperitoneum

Cardiovascular & Respiratory Systems videos



Cardiovascular & Respiratory Systems
Medical Gross Anatomy Dissection Videos from University of Michigan Medical School

Thoracic Wall, Pleura, & Pericardium
Heart
Superior Mediastinum & Lungs
Posterior Mediastinum

Musculoskeletal System Videos



Musculoskeletal System
Medical Gross Anatomy Dissection Videos from University of Michigan Medical School

Superficial Back
Deep Back & Spinal Cord
Pectoral Region & Breast
Superficial Structures of the Limbs
Axilla, Posterior Shoulder, & Arm
Forearm & Wrist
Hand
Anterior & Medial Thigh
Hip, Posterior Thigh, & Posterior Leg
Anterior Leg & Foot
Joints of the Upper & Lower Limbs

13 May 2009

Lumbar Puncture Video



Lumbar Puncture Video from Wake Forest University Schools of Medicine.
Download / view the following full-length video or individual chapters from the links below


To Download: Rt. Click Icon then Save Target as..
To View: Left Click

Indications & Contraindications 1:22
Risks & Complications 2:19
Equipment & Supplies 1:38
Review of Anatomy 2:09

Positioning the Patient 2:20

Finding the Target (injection) Point 1:58
Numbing the Target Area 1:10
Inserting the LP Needle 1:26
Collecting CSF Samples & Finishing Procedure 1:45
Administering Intrathecal Chemotherapy 0:36
Dealing with Problems 2:56
Proper Handling of CSF Samples 1:12

Read more...

12 May 2009

Eyelid Anatomy - Entropion / Ectropion



Eyelid Anatomy - Entropion / Ectropion
Elizabeth J. Rosen, MD
Karen H. Calhoun, MD

Entropion is a medical condition in which the eyelids fold inward. Ectropion is a medical condition in which the lower eyelid turns outwards

Eyelid Anatomy
* Tarsal plates
o Length 25mm
o Thickness 1mm
o Height
+ Upper 10mm
+ Lower 4mm
* Orbicularis Oculi
o Orbital
o Palpebral
+ Preseptal
+ Pretarsal
* Medial canthal tendon

Read more...

08 May 2009

Human Anatomy and Physiology ppt lectures



Human Anatomy and Physiology
Presentation lectures by:R. Adam Franssen, PhD
Roane State Community College

• Muscle Tissue Lectures week 1
• Muscle Tissue Lectures weeks 2 and 3
• Blood Lectures weeks 4 and 5
• Heart Lectures weeks 5 and 6
• Blood Vessels week 7
• Lymphatic System weeks 9 and 10
• Respiratory System weeks 11 and 12
• Digestive System weeks 12 and 13
• Urinary System week 14

02 May 2009

Anatomy video presentations



Anatomy video presentations
from University of Wisconsin

10/02/2008 Coming
Soon

Coming
Soon
11/30/2007 Picture from Anatomy Dissection 01 - Superficial Thorax & Abdomen video

Picture from Anatomy Dissection 02 - Abdominal Wall, Back Muscles & Spinal Cord video

Picture from Anatomy Dissection 03 - Thorax video

Picture from Anatomy Dissection 04 - Posterior Thorax video

Picture from Anatomy Dissection 05 - Peritoneal Cavity video

Picture from Anatomy Dissection 07 - Posterior Abdominal Wall video

Picture from Anatomy Dissection 08 - Split Pelvis video

Picture from Anatomy Dissection 09 - Perineum video

Picture from Anatomy Dissection 10 - The Axilla video

Picture from Anatomy Dissection 11 - Shoulder and Arm video

Picture from Anatomy Dissection 12 - Forearm and Hand video

Picture from Superficial Face video

Picture from Infratemporal Fossa video

Picture from Superficial Neck video

Picture from Deep Neck video

Picture from Cranial Cavity video

Picture from Orbit video

Picture from Ear video

Picture from Mouth and Pharynx video

Picture from Nasal Cavity and Larynx video

Picture from Anatomy Dissection 24 - Upper Limb Joints video

Picture from Anatomy Dissection 06 - Blood Supply video

Picture from Hip and Thigh video

Picture from Leg and Foot video
04/09/2007 Picture from Everything You Ever Wanted to Know about Sexual Health video
M. Wilhite
View description

Functional Neuroanatomy



Functional Neuroanatomy

Histology
Neurons and Glial Cells
Brain Cell Structure and Categorization
Synapse Function
Axonal Transport
Information Flow
Glial Types and Functions

Histological Techniques
* Golgi Stain
* Nissl Stain
* Immunocytochemistry
* Track-tracing (horseradish peroxidase)

Neurons and Glials

* Brain Cells – 2 types
* Characterization
o Shape
o Size
o Function
* Organization

Neuron Components

* Dendrites
* Soma
* Axon Hillock
* Axon
* Terminal Button(s) (Bouton)

Neuron Characterization

Read more...

30 April 2009

Sexual Anatomy & Physiology



Sexual Anatomy & Physiology
Presentation by: Dr. Penny Frohlich
University of Texas at Austin

Female External Genitalia

Vulva: everything that is externally visible (mons pubis, labia majora, labia minora, clitoris, urethral orifice, vaginal vestibule, perineal body)
mons pubis: mound of fatty tissue above the pubic bone
labia majora: large, outer fatty folds of skin tissue
labia minora: inner folds of skin and erectile tissue
clitoris: small, highly sensitive organ
glans: tip of the clitoris
prepuce (clitoral hood): loose-fitting fold of skin covering the clitoral glans
vaginal vestibule: the cleft containing the vaginal and urethral openings
Skene’s glands: group of small mucous glands that open into vaginal vestibule (near urethra)
Bartholin’s glands: two glands that open into vaginal vestibule (on either side of the vaginal opening) - thought to provide some lubrication, may emit a pheromone
hymen: thin mucous membrane partially covering the vaginal opening
perineum: tissue between the genital and anus.

Normal Variations

Female Internal Genitalia
Vagina: tubular organ connecting external genitals with uterus
Grafenberg spot (g-spot):

o mass of erectile and glandular tissue surrounding the urethra just below the bladder
o some women report that simulation to g-spot produces sexual arousal and orgasm

uterus: hollow muscular organ - purpose to nurture developing fetus

cervix: small lower portion of the uterus that projects into the vagina
cervical os: small opening in the cervix allowing passage of fluids between the uterus and vagina
myometrium: layers of smooth muscle comprising the uterus
endometrium: inner lining of the uterus that builds a rich blood supply and sloughs off the lining each month (if conception does not occur)

ovaries: female gonads - containing the immature female reproductive cells
ovum: female reproduce cell
fallopian tubes: thin flexible muscular structures connecting the ovaries with the uterus - passageway for the ovum to travel to the uterus
cilia: tiny hairlike projections that line the fallopian tubes and propel the ovum towards the uterus
fimbriae: fringelike projections that reach out to the ovary to draw a released ovum into the fallopian tube.

Sexual Response
Arteries & Veins
Female Internal Genitalia: Muscles

* Pelvic floor muscles
o Ischiocavernosus: acts to drive blood into the body of the clitoris
o bulbocavernosus: helps to maintain the structure of the pelvic tissue and serves as a vaginal sphincter

Female Internal Genitalia: Nerves
* Sexual arousal: stimulation to tactile and temperature receptors on the genitalia, breasts, etc.
* Orgasm: genital reflex governed by the spinal cord

Male External Genitalia

penis: male copulatory organ
frenulum: underside of the penis, between shaft and glans
glans: enlarged conic structure at the tip of the penis
corona: raised rim or ridge of tissue that separates the glans from the shaft
prepuce (forskin): loose-fitting retractable casing of skin that forms over the glans
smegma: accumulation of secretions on the penile glans from glands of foreskin
circumcision: surgical procedure involving removal of the prepuce
scrotum: skin-covered pouch containing the testes

corpora cavernosa: two large and uppermost cylindrical masses of penile tissue
corpus spongiosum: lower, smaller cyhlindrical mass of tissue in the penis, contains the urethra
crura: tapering part of the corpora cavernosa - forms the connection to the pubic bone
Testes: oval, glandular organs contained in the scrotum - produce sperm, secrete male hormones

Read more...

29 April 2009

Upper Cervical Spine Fractures



Upper Cervical Spine Fractures
Presentation lecture by:Daniel Gelb, MD

Upper Cervical Spine Fractures

* Epidemiology
* Anatomy
* Radiology
* Common Injuries
* Management Issues

Upper Cervical Spine Fractures
* Epidemiology
o Cause
+ MVC 42%
+ Fall 20%
+ GSW 16%
o Gender
+ Male 81%
+ Female 19%

Etiology of Spinal Cord Injury by Age
Upper Cervical Spine Fractures
Upper Cervical Anatomy
C1 - Atlas
Anatomy – The Atlas
C2 Anatomy
Anatomy – The Axis
Anatomy – The Ligaments
AtlantoAxial Anatomy
Tectorial Membrane
AtlantoAxial Anatomy
occiput
Tranverse Ligament
C1-C2 joint
Alar Ligament
AtlantoAxial Anatomy
Transverse
Ligament
Facet for Occipital Condyle


AtlantoAxial Anatomy

Read more...

The Skeletal System



The Skeletal System
The Axial Skeleton presentation lecture from:NORTHLAND COMMUNITY & TECHNICAL COLLEGE

* Axial Skeleton
o 80 bones
o lie along longitudinal axis
o skull, hyoid, vertebrae, ribs, sternum, ear ossicles
* Appendicular Skeleton
o 126 bones
o upper & lower limbs and pelvic & pectoral girdles

Types of Bones

* 5 basic types of bones:
o long = compact
o short = spongy except surface
o flat = plates of compact enclosing spongy
o irregular = variable
o sesamoid = develop in tendons or ligaments (patella)
* Sutural bones = in joint between skull bones

Bone Surface Markings

* Surface features-- rough area, groove, openings, process
* Specific functions
o passageway for blood vessels and nerves
o joint formation
o muscle attachment & contraction
* Foramen = opening
* Fossa = shallow depression
* Sulcus = groove
* Meatus = tubelike passageway or canal
* Condyle = large, round protuberance
* Facet = smooth flat articular surface
* Trochanter = very large projection
* Tuberosity = large, rounded, roughened projection
* Learning the terms found in this Table will simplify your study of the skeleton.

The Skull

Read more...

Disorders of the Cervical Spine



Disorders of the Cervical Spine
Presentation by: Su-Chun Cheng

Introduction

* Two principal functions: support and conduit
* The motion segment: two vertebrae and five articulations- disc, two uncovertebral joints, and two facet joints
* The three sections: OC1-2, C3-5, and C5-T1

The Typical Cervical Vertebrae (C3-6)

* Small oval bodies, large vertebral canal, long laminae, a bifid spine and a broad transverse process with a foramen transversarium
* The vertebral arches arise from the posterolateral aspect of the bodies, giving rise to the pedicles.
* The laminae arise from the pedicles and arch backward to meet in the midline, forming the bifid spinous processes.
* The intervertebral foramen for nerve root
* The foramen transversarium for vertebral artery except C7
* The spinal canal for spinal cord.
* Posterior arch- pedicles, articular process, laminae and spinous process

The Uncinate Process

* The uncovertebral joints of Luschka
* Form at about 10 year of age and better developed in C2/3, C3/4, and C4/5.
* Act as barriers to the extrusion of disc posterolaterally.
* The uncinate processes protect the cervical nerve roots from passing over the inter-vertebral discs.
* Cervical discs cannot protrude into the intervertebral foramina - only posteriorly and into the cord.

Zygapophyseal Joints

* The highest is located at the C2/3 level, and the lowest is at the C7-T1 level.
* The superior facets face upward/backward with the inferior facets facing downward/forward at an angle of 45°.
* Complex movement: rotation and sidebending to the same side.
* The joint capsules are lax and permitting great mobility.
* The relationships between the facet and root complex: the root in front of and below the facets.
* Joint capsules are richly innervated with propri-oceptive and pain receptors
* The joints are lined with synovial membrane and covered with hyaline cartilage. The fibro-cartilaginous meniscus exists in the facet capsules.

The Intervertebral Disc: Nucleus Pulposus

* A disc consists of four parts: a nucleus pulposus, an anulus fibrosus, and two cartilaginous end-plate.
* The end-plate provide a pathway for nutrition
* The nucleus has the remarkable property of absorbing and retaining water against physical and osmotic pressure.
* The nucleus pulposus is fibrocartilaginous and is made up of crisscrossing concentric lamellae between adjacent vertebrae.
* The annulus is reinforced in front and behind by fibers from the anterior and posterior longitudinal ligaments. Laterally, it blends with the periosteum.
* The nucleus is a water-rich mixture of proteoglycan gel and a lattice of collagen fibers.
* The nucleus distributes forces equally in all directions, with converting longitudinal to horizontal forces, and transmits them to the circumferential annuli.
* The resilient annulus and the cartilage plate, capping the upper and lower surfaces of the vertebrae, absorb shock energy.

Nerve Roots

* The posterior root/anterior root emerge from the dorsolateral/ ventrolateral aspect of the cord.
* The roots are invested in pia mater. The posterior and anterior roots separately penetrate the dura and have pial and dural sleeves.
* The dural sleeves are attached to the bony margin of the intervertebral foramen; this adherence becomes much firmer with advanced age and in clinical osteoarthritis.

* In extension of Cs: the root sleeves are slack and folded transversely, and are separated from the lower border of the pedicle.
* In flexion: the root sleeves are straightened and are in contact with the inferior and medial margins of the pedicles.
* In lateral flexion: the root sleeves are slack on the concave side and stretched on the convex side.
* The root ganglia may lie inside or outside the intervertebral foramen.
* Beyond the ganglion, the two roots merge to form the composite spinal nerve with its anterior and posterior primary rami.
* The upper four rami unite to form the cervical plexus; the lower four rami and T1 form the brachial plexus.

The Vertebral Artery

* The verterbal artery is the first branch of the sub-clavian trunk, proceeding to the transverse foramina of C6 to C2
* It lies directly in front of the cervical nerves, medial to the intertransverse muscles.
* It travels to the transverse foramen of the atlas, ne-cessitating a sharp turn around the posterolateral aspect of the superior facet.
* It then runs upward through the foramen magnum into the cranial cavity of pons, where it joins the opposite vertebral artery to form the basilar artery.
* The vertebrobasilar system also supplies the inner ear, the cerebellum, most of the pons and brain stem, and the posterior portion of the cerebral hemispheres, especially the visual cortex.

Vertebrobasilar Artery Insufficiency (VBI)

* After 30º of rotation, kinking of the contra-lateral vertebral artery occurs.
* At 45 º of neck rotation, the ipsilateral artery also begins to kink.
* Typical neurological symptoms include dizziness, visual disturbances and nausea.
* Occlusion of the vertebral artery may occur either at the suboccipital region or at the C6 level.

Mobility of the Cervical Spine- Flexion

* The upper vertebral body slightly forward displaces on the lower one; the laminae and spinous processes are open like a fan.
* The anterior disc is compressed and narrowed; and the dorsal portions is widened and stretched.
* The anterior longitudinal ligament is slack, whereas the posterior longitudinal ligament is stretched.
* The nucleus is dorsally displaced.
* The paired inferior articular facets of the vertebra glide forward on the superior facets of the vertebrae below
* The ligamenta flava and interspinous ligaments are stretched
* The posterior neck muscles are under tension
* The capsules of the zygapophyseal joints are stretched.

Mobility of the Cervical Spine- Extension

* Extension of the neck reverses these events of flexion in the tissues.
* Tension is on the anterior longitundial ligaments with the approximation of the spinous process.
* The lower articular facet glide downward and back- ward on the superior facets.
* The size of the intervertebral foramina increases in flexion and decreases in extension by about one third
* The overall extension is greater than the flexion range.
* The greatest movement occurs at the C5/6 and the least at the C2/3 and C7-T1.

Mobility of the Cervical Spine- Rotation

Read more...

23 April 2009

General Human Anatomy



General Human Anatomy Lecture Archives from University of Berkeley

View archived webcastMon 8/27 Organization of Body
View archived webcastWed 8/29 Skeletal System 1
View archived webcastFri 8/31 Skeletal System 2
View archived webcastWed 9/5 Skeletal System 3
View archived webcastFri 9/7 Skeletal System 4
View archived webcastMon 9/10 Skeletal System 5
View archived webcastWed 9/12 Skeletal System 6
View archived webcastFri 9/14 Skeletal, Muscular Systems
View archived webcastMon 9/17 Muscular System 1
View archived webcastWed 9/19 Muscular System 2
View archived webcastFri 9/21 Muscular System 3
View archived webcastMon 9/24 Hematology 1
View archived webcastWed 9/26 Hematology 2
View archived webcastFri 9/28 Hematology, Cardiology
View archived webcastMon 10/1 Cardiology
View archived webcastWed 10/3 Blood Vascular System 1
View archived webcastFri 10/5 Blood Vascular System 2
View archived webcastMon 10/8 Lymphatic System
View archived webcastWed 10/10 Respiratory System 1
View archived webcastFri 10/12 Review
View archived webcast

Mon 10/15 Exam 1
View archived webcastWed 10/17 Respiratory System 2
View archived webcastFri 10/19 Neurohistology
View archived webcastMon 10/22 Neurohistology, Development of Nervous System
View archived webcastWed 10/24 Development of Nervous System
View archived webcastFri 10/26 Spinal Cord and Nerves
View archived webcastMon 10/29 Peripheral Nerves
View archived webcastWed 10/31 Sensory and Motor Pathways
View archived webcastFri 11/2 Motor Pathways and Forebrain
View archived webcastMon 11/5 Forebrain
View archived webcastWed 11/7 Eye
View archived webcastFri 11/9 Review
View archived webcastFri 11/16 Digestive System 1
View archived webcastMon 11/19 Digestive System 2
View archived webcastWed 11/21 Digestive System 3
View archived webcastMon 11/26 Urinary System
View archived webcastWed 11/28 Endocrine System
View archived webcastFri 11/30 Endocrine System - Female Reproductive System
View archived webcastMon 12/3 Female Reproductive System
View archived webcastWed 12/5 Male Reproductive System
View archived webcastFri 12/7 Integumentary System
View archived webcastMon 12/10 Review

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