Print Options

Card layout: ?

← Back to notecard set|Easy Notecards home page

Instructions for Side by Side Printing
  1. Print the notecards
  2. Fold each page in half along the solid vertical line
  3. Cut out the notecards by cutting along each horizontal dotted line
  4. Optional: Glue, tape or staple the ends of each notecard together
  1. Verify Front of pages is selected for Viewing and print the front of the notecards
  2. Select Back of pages for Viewing and print the back of the notecards
    NOTE: Since the back of the pages are printed in reverse order (last page is printed first), keep the pages in the same order as they were after Step 1. Also, be sure to feed the pages in the same direction as you did in Step 1.
  3. Cut out the notecards by cutting along each horizontal and vertical dotted line
To print: Ctrl+PPrint as a list

98 notecards = 25 pages (4 cards per page)

Viewing:

Phys 83

front 1

While still in the ovary, the ovum is in the:
A. Primary oocyte
B. Secondary oocyte
C. Mature ovum
D. Zygote

back 1

A. Primary oocyte

front 2

Shortly before release from the follicle, the primary oocyte nucleus undergoes ___ and expels ___:
A. Mitosis; second polar body
B. Mitosis; first polar body
C. Meiosis; second polar body
D. Meiosis; first polar body

back 2

D. Meiosis; first polar body

front 3

After the first polar body is expelled, the oocyte becomes a:
A. Primary oocyte
B. Secondary oocyte
C. Mature ovum
D. Zygote

back 3

B. Secondary oocyte

front 4

The chromosomes of the secondary oocyte are:
A. Unpaired
B. Paired
C. Bivalent
D. Tetrad

back 4

A. Unpaired

front 5

Once 23 unpaired chromosomes are present, the oocyte is:
A. Implanted in endometrium
B. Arrested in meiosis I
C. Ovulated into abdominal cavity
D. Transformed into trophoblast

back 5

C. Ovulated into abdominal cavity

front 6

Granulosa cells attached to the ovum constitute the:
A. Zona pellucida
B. Corona radiata
C. Trophoblast layer
D. Cryptoid surface

back 6

B. Corona radiata

front 7

The inner surfaces of the fimbriae are lined with:
A. Squamous epithelium
B. Cuboidal epithelium
C. Transitional epithelium
D. Ciliated epithelium

back 7

D. Ciliated epithelium

front 8

The fimbrial cilia are activated by ovarian:
A. Progesterone
B. FSH
C. LH
D. Estrogen

back 8

D. Estrogen

front 9

Transport of sperm is aided by uterine and tubal contractions stimulated by:
A. Prostaglandins and oxytocin
B. Estrogen and progesterone
C. FSH and LH
D. Histamine and bradykinin

back 9

A. Prostaglandins and oxytocin

front 10

After penetrating granulosa layers, sperm must bind to and penetrate the:
A. Corona radiata
B. Zona pellucida
C. Uterine milk
D. Male pronucleus

back 10

B. Zona pellucida

front 11

Once a sperm enters the ovum, the oocyte will:
A. Arrest permanently
B. Degenerate immediately
C. Form mature ovum plus second polar body
D. Expel first polar body

back 11

C. Form mature ovum plus second polar body

front 12

On entering the ovum, the fertilizing sperm’s head swells to form a:
A. Male pronucleus
B. Zona pellucida
C. Corona radiata
D. Trophoblast cell

back 12

A. Male pronucleus

front 13

The 23 unpaired chromosomes of male and female pronuclei align to re-form:
A. 23 chromosomes
B. Triploid complement
C. 46 chromosomes
D. Tetraploid complement

back 13

C. 46 chromosomes

front 14

A fertilized ovum is called a:
A. Morula
B. Zygote
C. Blastocyst
D. Trophoblast

back 14

B. Zygote

front 15

Mature sperm carrying X versus Y chromosomes are distributed:
A. Mostly X
B. Mostly Y
C. All X
D. Half X, half Y

back 15

D. Half X, half Y

front 16

After fertilization, additional time required for tubal transport into the uterus is usually:
A. 3–5 days
B. 1–2 days
C. 7–10 days
D. 10–14 days

back 16

A. 3–5 days

front 17

Fallopian tubes are lined with a rugged structure that impedes ovum passage despite fluid current:
A. Smooth mucosa
B. Cryptoid surface
C. Squamous plaque
D. Endometrial villi

back 17

B. Cryptoid surface

front 18

For about the first 3 days after ovulation, which structure remains spastically contracted?
A. Infundibulum
B. Ampulla
C. Isthmus
D. Uterine cavity

back 18

C. Isthmus

front 19

Delayed transport through the fallopian tube allows:
A. Immediate implantation
B. Completion of meiosis I
C. Zona pellucida formation
D. Several stages of cell division

back 19

D. Several stages of cell division

front 20

The dividing ovum (per these notes) is called a:
A. Zygote
B. Blastocyst
C. Primary oocyte
D. Secondary oocyte

back 20

B. Blastocyst

front 21

The developing blastocyst remains in the uterine cavity for an additional:
A. 1–3 days
B. 3–5 days
C. 7–9 days
D. 10–12 days

back 21

A. 1–3 days

front 22

Before implantation, blastocyst nutrition comes from uterine endometrial secretions called:
A. Amniotic fluid
B. Placental blood
C. Yolk secretions
D. Uterine milk

back 22

D. Uterine milk

front 23

Implantation results from the action of cells developing over the blastocyst surface called:
A. Granulosa cells
B. Ciliated epithelium
C. Trophoblast cells
D. Theca interna

back 23

C. Trophoblast cells

front 24

In early implantation, which cells secrete proteolytic enzymes that liquefy adjacent endometrium?
A. Decidual cells
B. Endometrial glands
C. Granulosa cells
D. Trophoblast cells

back 24

D. Trophoblast cells

front 25

The term for the embryo plus associated membranes is:
A. Zygote
B. Conceptus
C. Morula
D. Blastocyst

back 25

B. Conceptus

front 26

Continued progesterone secretion causes endometrial cells to:
A. Swell further
B. Shed superficially
C. Undergo necrosis
D. Become ciliated

back 26

A. Swell further

front 27

After swelling and nutrient storage, endometrial cells become:
A. Theca cells
B. Cytotrophoblast
C. Decidual cells
D. Syncytiotrophoblast

back 27

C. Decidual cells

front 28

As trophoblast invades decidua, released nutrients are used by the:
A. Embryo
B. Ovary
C. Uterus
D. Placenta

back 28

A. Embryo

front 29

Placental nutrition becomes available after about the:
A. 8th day
B. 12th day
C. 16th day
D. 28th day

back 29

C. 16th day

front 30

Around 21 days after fertilization, blood begins to be pumped by the:
A. Maternal heart
B. Placenta
C. Decidua
D. Embryonic heart

back 30

D. Embryonic heart

front 31

Maternal blood surrounding trophoblastic cords is supplied by:
A. Umbilical arteries
B. Blood sinuses
C. Villi capillaries
D. Uterine veins

back 31

B. Blood sinuses

front 32

Which sequence correctly describes fetal blood flow through the placenta?
A. Two umbilical arteries → chorionic villi → one umbilical vein
B. One umbilical vein → chorionic villi → two umbilical arteries
C. Two umbilical veins → chorionic villi → one umbilical artery
D. One umbilical artery → chorionic villi → two umbilical veins

back 32

C. Two umbilical veins → chorionic villi → one umbilical artery

front 33

Maternal placental blood flow follows:
A. Uterine arteries → intervillous sinuses → uterine veins
B. Uterine veins → intervillous sinuses → uterine arteries
C. Umbilical vein → intervillous sinuses → uterine veins
D. Chorionic villi capillaries → uterine arteries → uterine veins

back 33

A. Uterine arteries → intervillous sinuses → uterine veins

front 34

Most nutrient transfer across placental membrane occurs by:
A. Primary active transport
B. Secondary active transport
C. Pinocytosis
D. Diffusion

back 34

D. Diffusion

front 35

The placenta’s major diffusion role includes transfer of:
A. Fetus → mother oxygen
B. Mother → fetus oxygen
C. Mother → fetus antibodies
D. Fetus → mother glucose

back 35

B. Mother → fetus oxygen

front 36

The placenta also supports diffusion of fetal:
A. Estrogens to mother
B. Progesterone to fetus
C. Excretory products to mother
D. hCG to maternal liver

back 36

C. Excretory products to mother

front 37

Placental permeability increases later in pregnancy mainly because:
A. Membrane thins, area expands
B. Membrane thickens, area shrinks
C. Maternal sinuses collapse
D. Villi capillaries regress

back 37

A. Membrane thins, area expands

front 38

The predominant hemoglobin type in fetal blood is:
A. Fetal hemoglobin
B. Adult hemoglobin
C. Methemoglobin
D. Myoglobin

back 38

A. Fetal hemoglobin

front 39

The principle that Hb carries more O₂ at low PCO₂ is the:
A. Root effect
B. Chloride shift
C. Haldane effect
D. Bohr effect

back 39

D. Bohr effect

front 40

Loss of CO₂ makes fetal blood more:
A. Acidic
B. Alkaline
C. Hypotonic
D. Hypercapnic

back 40

B. Alkaline

front 41

The only route for fetal CO₂ excretion is through the:
A. Fetal kidneys
B. Fetal lungs
C. Placenta
D. Amniotic fluid

back 41

C. Placenta

front 42

Glucose supply to trophoblast cells occurs via:
A. Simple diffusion
B. Facilitated diffusion
C. Primary active transport
D. Endocytosis

back 42

B. Facilitated diffusion

front 43

The placenta forms especially large quantities of:
A. FSH, LH, prolactin, ADH
B. Insulin, glucagon, GH, TSH
C. Cortisol, aldosterone, renin, ANP
D. hCG, estrogens, progesterone, hCS

back 43

D. hCG, estrogens, progesterone, hCS

front 44

In a nonpregnant woman, menstruation usually occurs about ___ days after ovulation:
A. 7
B. 10
C. 14
D. 21

back 44

C. 14

front 45

Sloughing of the endometrium in early pregnancy is prevented mainly by:
A. Progesterone
B. Human chorionic gonadotropin
C. Estrogen
D. Relaxin

back 45

B. Human chorionic gonadotropin

front 46

Glycoprotein that prevents corpus luteum involution is:
A. Human placental lactogen
B. Progesterone
C. Estrogen
D. Human chorionic gonadotropin

back 46

D. Human chorionic gonadotropin

front 47

If the corpus luteum is removed before ~7 weeks, what usually occurs?
A. Spontaneous abortion
B. Preterm labor
C. Normal gestation
D. Placental abruption

back 47

A. Spontaneous abortion

front 48

hCG stimulates fetal testes via ___ cells to produce testosterone:
A. Sertoli
B. Leydig
C. Interstitial
D. Germ

back 48

C. Interstitial

front 49

Placenta, like the corpus luteum, secretes:
A. Prolactin and oxytocin
B. Estrogen and progesterone
C. hCG and aldosterone
D. Thyroxine and cortisol

back 49

B. Estrogen and progesterone

front 50

Placental cells that secrete estrogen/progesterone are:
A. Syncytial trophoblast cells
B. Cytotrophoblast cells
C. Decidual cells
D. Granulosa cells

back 50

A. Syncytial trophoblast cells

front 51

Placental estrogen is synthesized mostly from adrenal:
A. Cholesterol directly
B. Androgenic steroid compounds
C. Amino acid precursors
D. Fatty acid substrates

back 51

B. Androgenic steroid compounds

front 52

Key estrogen precursors provided by maternal and fetal adrenals include:
A. Cortisol and corticosterone
B. DHEA and 16-OH DHEA
C. Testosterone and estradiol
D. Aldosterone and renin

back 52

B. DHEA and 16-OH DHEA

front 53

Late pregnancy pelvic ligament changes are mainly:
A. Increased ligament calcification
B. Decreased ligament elasticity
C. Relaxation of pelvic ligaments
D. Fibrosis of pelvic ligaments

back 53

C. Relaxation of pelvic ligaments

front 54

Marked breast ductal growth in pregnancy is most linked to high:
A. Estrogens
B. Progesterone
C. Aldosterone
D. Glucocorticoids

back 54

A. Estrogens

front 55

Enlargement of maternal external genitalia during pregnancy is driven mainly by:
A. Estrogens
B. hCG
C. Thyroxine
D. Aldosterone

back 55

A. Estrogens

front 56

Progesterone promotes pregnancy by decreasing:
A. Mammary ductal growth
B. Maternal thyroid size
C. Contractility of pregnant uterus
D. Placental diffusion capacity

back 56

C. Contractility of pregnant uterus

front 57

Progesterone supports the uterine lining by causing development of:
A. Granulosa cells
B. Decidual cells
C. Blood sinuses
D. Syncytial cords

back 57

B. Decidual cells

front 58

Hormone contributing to conceptus development even before implantation:
A. Estrogen
B. Progesterone
C. hCS
D. Aldosterone

back 58

B. Progesterone

front 59

Progesterone helps estrogen prepare the mother’s breasts for:
A. Lactation
B. Parturition
C. Ovulation
D. Menstruation

back 59

A. Lactation

front 60

Hormone increasing progressively in proportion to placental weight:
A. hCG
B. Human chorionic somatomammotropin
C. Progesterone
D. Thyroxine

back 60

B. Human chorionic somatomammotropin

front 61

Human chorionic somatomammotropin acts as a general:
A. Gonadotropin hormone
B. Mineralocorticoid hormone
C. Metabolic hormone
D. Antidiuretic hormone

back 61

C. Metabolic hormone

front 62

During pregnancy, which gland enlarges ≥50% and increases corticotropin, thyrotropin, prolactin?
A. Posterior pituitary
B. Adrenal medulla
C. Thyroid gland
D. Anterior pituitary

back 62

D. Anterior pituitary

front 63

Rate of adrenocortical secretion moderately increased in pregnancy:
A. Glucocorticoids
B. Mineralocorticoids
C. Catecholamines
D. Androgens

back 63

A. Glucocorticoids

front 64

Pregnant women usually have about a twofold increase in:
A. Cortisol
B. Thyroxine
C. Aldosterone
D. Prolactin

back 64

C. Aldosterone

front 65

The aldosterone rise in pregnancy can lead to:
A. Hyperthyroidism
B. Hypotension
C. Pregnancy-induced hypertension
D. Spontaneous abortion

back 65

C. Pregnancy-induced hypertension

front 66

Thyroid gland typically doubles in size, increasing production of:
A. Thyroxine
B. Progesterone
C. Aldosterone
D. hCG

back 66

A. Thyroxine

front 67

Parathyroid enlargement in pregnancy occurs because of mother’s:
A. Sleep deprivation
B. Diet
C. Placental weight
D. Uterine growth

back 67

B. Diet

front 68

Parathyroid-related adaptation may maintain normal Ca²⁺ by:
A. Calcium absorption from maternal bones
B. Renal calcium overexcretion
C. Reduced intestinal absorption
D. Decreased bone remodeling

back 68

A. Calcium absorption from maternal bones

front 69

Hormone secreted by corpus luteum and placenta that promotes high hCG and high estrogen/progesterone output:
A. Thyroxine
B. Aldosterone
C. hCS
D. Relaxin

back 69

D. Relaxin

front 70

Average maternal weight gain during pregnancy is about:
A. 25–35 lb
B. 10–15 lb
C. 40–50 lb
D. 55–65 lb

back 70

A. 25–35 lb

front 71

Beyond nutrition, milk also provides newborn:
A. Increased fetal hemoglobin
B. Higher aldosterone secretion
C. Placental oxygen diffusion
D. Protection against infection

back 71

D. Protection against infection

front 72

Colostrum is characterized by:
A. Mostly fat, minimal protein
B. Mostly fat, minimal lactose
C. Protein lactose, almost no fat
D. No protein, high fat

back 72

C. Protein lactose, almost no fat

front 73

Despite breast development, estrogen/progesterone inhibit:
A. Ductal system growth
B. Actual milk secretion
C. Prolactin release
D. Oxytocin receptor formation

back 73

B. Actual milk secretion

front 74

Hormones important for breast ductal growth include:
A. Oxytocin, ADH, estrogen, cortisol, TSH
B. Progesterone, FSH, LH, oxytocin, insulin
C. hCG, hCS, prolactin, oxytocin, estrogen
D. Estrogen, GH, prolactin, glucocorticoids, insulin

back 74

D. Estrogen, GH, prolactin, glucocorticoids, insulin

front 75

Postpartum vaginal discharge from placental-site autolysis is:
A. Lochia
B. Amniotic fluid
C. Colostrum
D. Mucus plug

back 75

A. Lochia

front 76

Labor pain signals reach CNS primarily via:
A. Visceral afferents only
B. Autonomic efferents
C. Somatic nerves
D. Lymphatic channels

back 76

C. Somatic nerves

front 77

After birth, continued uterine contraction causes placental:
A. Trophoblast proliferation
B. Decidual cell swelling
C. Oxytocin receptor loss
D. Shearing effect separates placenta

back 77

D. Shearing effect separates placenta

front 78

Full dilation with membrane rupture and delivery is:
A. First stage of labor
B. Second stage of labor
C. Third stage of labor
D. Latent phase only

back 78

B. Second stage of labor

front 79

Cervical softening/stretching with labor onset is:
A. Third stage of labor
B. Second stage of labor
C. First stage of labor
D. Fourth stage of labor

back 79

C. First stage of labor

front 80

First major obstruction to fetal expulsion is:
A. Uterine cervix
B. Pelvic inlet
C. Pubic symphysis
D. Placenta

back 80

A. Uterine cervix

front 81

Buttocks/feet-first entry into birth canal is:
A. Vertex presentation
B. Shoulder presentation
C. Occiput posterior
D. Breech presentation

back 81

D. Breech presentation

front 82

Intermittent labor contractions are beneficial because:
A. Fetal lungs need rest periods
B. Placental flow could stop
C. Oxytocin must be metabolized
D. Cervix must scar between waves

back 82

B. Placental flow could stop

front 83

Labor contraction waves typically go from the:
A. Fundus, spreading downward
B. Cervix, spreading upward
C. Isthmus, spreading outward
D. Cervix, spreading downward

back 83

A. Fundus, spreading downward

front 84

Another positive feedback mechanism is:
A. Cervical stretch lowers oxytocin
B. Uterus relaxation increases dilation
C. Cervix stretch releases oxytocin
D. Oxytocin blocks pituitary output

back 84

C. Cervix stretch releases oxytocin

front 85

Positive feedback during labor includes:
A. Fundus stretch stops contractions
B. Oxytocin inhibits cervical stretch
C. Cervix relaxes uterine body
D. Cervix stretch amplifies contractions

back 85

D. Cervix stretch amplifies contractions

front 86

Strong forces producing final parturition are:
A. Braxton Hicks contractions
B. Labor contractions
C. Postpartum afterpains
D. Cervical ripening waves

back 86

B. Labor contractions

front 87

Weak, slow rhythmic uterine contractions are:
A. Labor contractions
B. Afterpains
C. Braxton Hicks contractions
D. Tetanic contractions

back 87

C. Braxton Hicks contractions

front 88

Cervical stretching can increase oxytocin via:
A. Cervix stretch triggers oxytocin reflex
B. Placental diffusion increases oxytocin
C. Fetal kidneys secrete oxytocin
D. Maternal liver activates oxytocin

back 88

A. Cervix stretch triggers oxytocin reflex

front 89

Supporting evidence for oxytocin in labor:
A. Labor ends after hypophysectomy
B. Labor prolonged after hypophysectomy
C. Hypophysectomy prevents implantation
D. Hypophysectomy increases progesterone

back 89

B. Labor prolonged after hypophysectomy

front 90

Another pro-oxytocin change near term is:
A. Lower oxytocin secretion rate
B. Lower oxytocin receptor density
C. Reduced cervical stretch reflex
D. Oxytocin secretion rate rises

back 90

D. Oxytocin secretion rate rises

front 91

Evidence oxytocin matters near term includes:
A. More uterine oxytocin receptors
B. Fewer uterine oxytocin receptors
C. Fewer uterine gap junctions
D. Lower uterine excitability

back 91

A. More uterine oxytocin receptors

front 92

Near term, which ratio rises?
A. Progesterone-to-estrogen ratio
B. Oxytocin-to-prostaglandin ratio
C. Estrogen-to-progesterone ratio
D. Insulin-to-glucagon ratio

back 92

C. Estrogen-to-progesterone ratio

front 93

Hormones that increase uterine contractility via gap junctions:
A. Prolactin
B. Estrogens
C. Aldosterone
D. Relaxin

back 93

B. Estrogens

front 94

Hormone that inhibits uterine contractility during pregnancy:
A. Estrogens
B. Oxytocin
C. Prostaglandins
D. Progesterone

back 94

D. Progesterone

front 95

Two major drivers of parturition contractions are:
A. Fetal cortisol, uterine ischemia
B. Cervical dilation, membrane rupture
C. Hormonal excitability, mechanical changes
D. Oxytocin burst, uterine atony

back 95

C. Hormonal excitability, mechanical changes

front 96

Severe pregnancy hypertension is acutely treated with rapid:
A. Vasodilating agents
B. Loop diuretics
C. Beta blockers
D. Magnesium sulfate

back 96

A. Vasodilating agents

front 97

Preeclampsia plus clonic seizures/coma is:
A. Placental abruption
B. Eclampsia
C. Amniotic embolism
D. Postpartum endometritis

back 97

B. Eclampsia

front 98

Late-pregnancy hypertension with heavy proteinuria is:
A. HELLP syndrome
B. Gestational diabetes
C. Placenta previa
D. Preeclampsia

back 98

D. Preeclampsia