1"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.52.53 PM.png""> "
Free edge<div>Epithelium </div><div><br></div><div>Statidied Squamous non Keratiniezed </div>
2"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.53.21 PM.png""> "
Dense irrecgular connective tissue, with purple fibroblast
3"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.54.24 PM.png""> "
Purple structure is a Gland, little white dots are the open spaces of epithelium
4"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.55.15 PM.png""> "
Mucous cells
5"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.55.28 PM.png""> "
Serous cells
6"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.55.41 PM.png""> "
Bunch of dark cells in connective tissue, round nuclei, either lymphocyte or plasma cell
7"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.56.11 PM.png""> "
WHite is a vessel
8"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.56.25 PM.png""> "
Mucous cells
9"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.56.36 PM.png""> "
Vessel (muscular a) surrounded by smooth muscle
10"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.57.33 PM.png""> "
skeletal muscle cross section
11"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.57.48 PM.png""> "
vessel
12"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.58.19 PM.png""> "
vein
13"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 5.00.38 PM.png""> "
arteriole cut in longitudinal section
14"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 5.00.56 PM.png""> "
Peripheral n, nuclie belong to schwann cells
15"<img src=""Screen Shot 2020-09-14 at 5.08.02 PM.png"">"
adipose cells
16"<img src=""Screen Shot 2020-09-14 at 5.08.24 PM.png"">"
thin stratified squamous keratinized
17"<img src=""Screen Shot 2020-09-14 at 5.08.48 PM.png"">"
pseudostratified epithelium
18"<img src=""Screen Shot 2020-09-14 at 5.09.13 PM.png"">"
apical specialization, with steriocillia on the inside
19"<img src=""Screen Shot 2020-09-14 at 5.09.38 PM.png"">"
tissue in between is Loose connective tissue w.o. alot of cells
20"<img src=""Screen Shot 2020-09-14 at 5.10.12 PM.png"">"
arteriole vessel
21"<img src=""Screen Shot 2020-09-14 at 5.10.31 PM.png"">"
Dense Regular CT
22"<img src=""Screen Shot 2020-09-14 at 5.10.51 PM.png"">"
statified squamous keratinized tissue
23"<img src=""Screen Shot 2020-09-14 at 5.11.12 PM.png"">"
Dense Irregular CT
24"<img src=""Screen Shot 2020-09-14 at 5.11.31 PM.png"">"
simple squamous
25"<img src=""Screen Shot 2020-09-14 at 5.11.54 PM.png"">"
Pacinian Corpusule, looks like an onion
26"<img src=""Screen Shot 2020-09-14 at 5.12.20 PM.png"">"
Pacinain corpusle with axon in the center, nerves around it
27"<img src=""Screen Shot 2020-09-14 at 5.12.56 PM.png"">"
adipose in loose CT
28"<img src=""Screen Shot 2020-09-14 at 5.13.16 PM.png"">"
meissner Touch Corpuscle
29"<img src=""Screen Shot 2020-09-14 at 5.13.35 PM.png"">"
stratified squamous epithelium
30"<img src=""Screen Shot 2020-09-14 at 5.14.01 PM.png"">"
Meissner Touch corpuscle
31"<img src=""Screen Shot 2020-09-14 at 5.14.23 PM.png"">"
alot of lympchyte cells
32"<img src=""Screen Shot 2020-09-14 at 5.15.11 PM.png"">"
valve
33"<img src=""Screen Shot 2020-09-14 at 5.15.25 PM.png"">"
Pacinian Corpuscle
34"<img src=""Screen Shot 2020-09-14 at 5.15.46 PM.png"">"
Lympatic vessel because the endotheium are very seperated
35"<img src=""Screen Shot 2020-09-14 at 5.16.13 PM.png"">"
little arteriole
36"<img src=""Screen Shot 2020-09-14 at 5.16.28 PM.png"">"
adipose
37"<img src=""Screen Shot 2020-09-14 at 5.16.42 PM.png"">"
Dense reggular connective tissue
38"<img src=""Screen Shot 2020-09-14 at 5.16.58 PM.png"">"
Hyaline cartilage
39"<img src=""Screen Shot 2020-09-14 at 5.17.14 PM.png"">"
Lympahtic vessl, endothelium are well separted, if you see a RBC then you know you mistaked it and its a vein
40"<img src=""Screen Shot 2020-09-14 at 5.17.59 PM.png"">"
Pseudostratiffied epithelium , with apical cillia ,
41"<img src=""Screen Shot 2020-09-14 at 5.18.51 PM.png"">"
Basal Lamina or basement membrane
42"<img src=""Screen Shot 2020-09-14 at 5.19.20 PM.png"">"
Vessel is a vein because you can see the RBCs inside
43"<img src=""Screen Shot 2020-09-14 at 5.19.42 PM.png"">"
eosinophil , can tell by grains
44"<img src=""Screen Shot 2020-09-14 at 5.20.02 PM.png"">"
small muscular artery, can see the rubber bands on the edges
45"<img src=""Screen Shot 2020-09-14 at 5.20.58 PM.png"">"
simple cuboidal epithelum
46"<img src=""Screen Shot 2020-09-14 at 5.21.13 PM.png"">"
small muscular artery
47"<img src=""Screen Shot 2020-09-14 at 5.21.52 PM.png"">"
Muscular artery
48"<img src=""Screen Shot 2020-09-14 at 5.22.03 PM.png"">"
Vein with lymphocytes
49"<img src=""Screen Shot 2020-09-14 at 5.22.19 PM.png"">"
Peripheral n.
50"<img src=""Screen Shot 2020-09-14 at 5.23.15 PM.png"">"
simple cuboidal epithelium
51"<img src=""Screen Shot 2020-09-14 at 5.23.36 PM.png"">"
Vein, thin walled
52"<img src=""Screen Shot 2020-09-14 at 5.23.50 PM.png"">"
monocyte cell
53"<img src=""Screen Shot 2020-09-14 at 5.24.21 PM.png"">"
statified epitheilium with rounded cells at the top so transitional epithelim
54"<img src=""Screen Shot 2020-09-14 at 6.56.13 PM.png"">"
line is simple squamous epithelium, cant see the nuclei
55"<img src=""Screen Shot 2020-09-14 at 6.56.52 PM.png"">"
sm muscle in cross section ,
56"<img src=""Screen Shot 2020-09-14 at 6.57.17 PM.png"">"
Cross section of sm,
57"<img src=""Screen Shot 2020-09-14 at 6.57.46 PM.png"">"
lu=ymphatic vessel
58"<img src=""Screen Shot 2020-09-14 at 6.58.02 PM.png"">"
small peripheral n
59"<img src=""Screen Shot 2020-09-14 at 6.58.16 PM.png"">"
muscular artery<div><br></div>
60"<img src=""Screen Shot 2020-09-14 at 6.58.29 PM.png"">"
Vein
61"<img src=""Screen Shot 2020-09-14 at 6.58.41 PM.png"">"
Transitional epithelium
62"<img src=""Screen Shot 2020-09-14 at 6.59.01 PM.png"">"
loose CT
63"<img src=""Screen Shot 2020-09-14 at 6.59.16 PM.png"">"
VEIN
64"<img src=""Screen Shot 2020-09-14 at 6.59.30 PM.png"">"
simple columnar epithelium
65"<img src=""Screen Shot 2020-09-14 at 6.59.57 PM.png"">"
Loose CT with cells
66"<img src=""Screen Shot 2020-09-14 at 7.00.11 PM.png"">"
apical specialization microvili
67"<img src=""Screen Shot 2020-09-14 at 7.00.31 PM.png"">"
Mast cell in Dense Irregular CT
68"<img src=""Screen Shot 2020-09-14 at 7.01.19 PM.png"">"
MUCOUS CELLS, CSEROUS CELL ON OUTSIDE
69"<img src=""Screen Shot 2020-09-14 at 7.01.44 PM.png"">"
Plasma cell, soccer ball nucleus
70"<img src=""Screen Shot 2020-09-14 at 7.02.44 PM.png"">"
PANCREAS
71"<img src=""Screen Shot 2020-09-14 at 7.02.57 PM.png"">"
anything with a big nucleus, in an organ are ganclia , so this is a parasympathic ganglia
72"<img src=""Screen Shot 2020-09-14 at 7.03.48 PM.png"">"
Sm in longitudinal section, with a parasympathetic ganglia in between
73"<img src=""Screen Shot 2020-09-14 at 7.04.18 PM.png"">"
Plasma cells
74"<img src=""Screen Shot 2020-09-14 at 7.04.39 PM.png"">"
Dense Connective tissue
75"<img src=""Screen Shot 2020-09-14 at 7.05.01 PM.png"">"
Sm in cross section
76"<img src=""Screen Shot 2020-09-14 at 7.05.20 PM.png"">"
Peripheral n, with dense connective tissue around
77"%<img src=""Screen Shot 2020-09-14 at 7.05.54 PM.png"">"
sm with LCT under
78"<img src=""Screen Shot 2020-09-14 at 7.06.13 PM.png"">"
mast cell next to plasma cell
79"<img src=""Screen Shot 2020-09-14 at 7.06.59 PM.png"">"
Mucous cell
80"<img src=""Screen Shot 2020-09-14 at 7.07.22 PM.png"">"
Not a blood vessel because its filled, it is a peripheral n.
81"<img src=""Screen Shot 2020-09-14 at 7.07.54 PM.png"">"
skeletal muscle
82"<img src=""Screen Shot 2020-09-14 at 7.08.06 PM.png"">"
muscle spindle
83"<img src=""Screen Shot 2020-09-14 at 7.08.30 PM.png"">"
Bone
84"<img src=""Screen Shot 2020-09-14 at 7.08.45 PM.png"">"
spongy bone, can count osteocytes, aka trabecular bone
85"<img src=""Screen Shot 2020-09-14 at 7.09.20 PM.png"">"
sinosouidal capillary in bone
86"<img src=""Screen Shot 2020-09-14 at 7.09.48 PM.png"">"
skeletal muscle
87"<img src=""Screen Shot 2020-09-14 at 7.10.31 PM.png"">"
LMNs
88"<img src=""Screen Shot 2020-09-14 at 7.10.50 PM.png"">"
spongy bone tissue
89"<img src=""Screen Shot 2020-09-14 at 7.11.07 PM.png"">"
osteoblast, dark purple line
90"<img src=""Screen Shot 2020-09-14 at 7.11.37 PM.png"">"
fibrocartilatge, rounder cells with lacunae
91"<img src=""Screen Shot 2020-09-14 at 7.12.01 PM.png"">"
Dense regular Ct
92"<img src=""Screen Shot 2020-09-14 at 7.12.23 PM.png"">"
hyaline cartilage
93"<img src=""Screen Shot 2020-09-14 at 7.12.38 PM.png"">"
LCT
94"<img src=""Screen Shot 2020-09-14 at 7.13.45 PM.png"">"
Lymphatic vessel
95"<img src=""Screen Shot 2020-09-14 at 7.13.58 PM.png"">"
Peripheral N.
96"<img src=""Screen Shot 2020-09-14 at 7.15.19 PM.png"">"
Purkinje fiber
97"<img src=""Screen Shot 2020-09-14 at 7.15.33 PM.png"">"
cardiac muscle
98"<img src=""Screen Shot 2020-09-14 at 7.15.43 PM.png"">"
Purkinje fiber
99"<img src=""Screen Shot 2020-09-14 at 7.15.55 PM.png"">"
cardiac muscle, has euchromatic nucleia
100"<img src=""Screen Shot 2020-09-14 at 7.16.24 PM.png"">"
intercalated disc in cardiac muscle
101"<img src=""Screen Shot 2020-09-14 at 7.16.44 PM.png"">"
cardiac muscle in c.s. look at big nuclei
102"<img src=""Screen Shot 2020-09-14 at 7.17.09 PM.png"">"
simple squamous epithelium
103"<img src=""Screen Shot 2020-09-14 at 7.17.23 PM.png"">"
smooth muscle
104"<img src=""Screen Shot 2020-09-14 at 7.17.46 PM.png"">"
sm in longitudinal section
105"<img src=""Screen Shot 2020-09-14 at 7.18.29 PM.png"">"
artery
106"<img src=""Screen Shot 2020-09-14 at 7.18.53 PM.png"">"
spongy bone
107"<img src=""Screen Shot 2020-09-14 at 7.19.25 PM.png"">"
osteoclast
108"<img src=""Screen Shot 2020-09-14 at 7.19.42 PM.png"">"
fibrocartilage bound in assocation with dense reggular ct
109"<img src=""Screen Shot 2020-09-14 at 7.20.33 PM.png"">"
hyaline cartilage in endochondral development
110"<img src=""Screen Shot 2020-09-14 at 7.21.12 PM.png"">"
calcification>Hypertrophy>Proliferation>Resting
111"<img src=""Screen Shot 2020-09-14 at 7.22.39 PM.png"">"
Fibrocartilage
112"<img src=""Screen Shot 2020-09-14 at 7.23.04 PM.png"">"
osteoclast
113"<img src=""Screen Shot 2020-09-14 at 7.23.26 PM.png"">"
osteoblast
114"<img src=""Screen Shot 2020-09-14 at 7.23.36 PM.png"">"
compact bone, cant find osteocytes,
115"<img src=""Screen Shot 2020-09-14 at 7.23.50 PM.png"">"
haversian canal in compact bone,
116"<img src=""Screen Shot 2020-09-14 at 7.25.18 PM.png"">"
periosteoum, purple line down the middle
117"<img src=""Screen Shot 2020-09-14 at 7.25.57 PM.png"">"
Dense reg. CT
118"<img src=""Screen Shot 2020-09-14 at 7.26.08 PM.png"">"
spongy bone
119"<img src=""Screen Shot 2020-09-14 at 7.26.18 PM.png"">"
haversion canal
120"<img src=""Screen Shot 2020-09-14 at 7.26.32 PM.png"">"
compact bone with haversion systems
121"<img src=""Screen Shot 2020-09-14 at 7.26.56 PM.png"">"
Plasma cells
122"<img src=""Screen Shot 2020-09-14 at 7.27.11 PM.png"">"
sm
123"<img src=""Screen Shot 2020-09-14 at 7.27.24 PM.png"">"
apical specialization is microvilli
124"<img src=""Screen Shot 2020-09-14 at 7.27.41 PM.png"">"
simple columnar epithelium
125"<img src=""Screen Shot 2020-09-14 at 7.27.56 PM.png"">"
sm in c.s.
126"<img src=""Screen Shot 2020-09-14 at 7.28.20 PM.png"">"
mast cell near blood vessel
127"<img src=""Screen Shot 2020-09-14 at 7.28.34 PM.png"">"
blood vessels
128"<img src=""Screen Shot 2020-09-14 at 7.28.47 PM.png"">"
macrophages in liver
129"<img src=""Screen Shot 2020-09-14 at 7.29.37 PM.png"">"
sm in c.s. in vein
130"<img src=""Screen Shot 2020-09-14 at 7.31.39 PM.png"">"
large vessel with 3 diffrent parts, adventisia, M, Intima
131"<img src=""Screen Shot 2020-09-14 at 7.33.02 PM.png"">"
large vein
132"<img src=""Screen Shot 2020-09-14 at 7.34.34 PM.png"">"
lower motor end plate
133"<img src=""Screen Shot 2020-09-14 at 7.34.49 PM.png"">"
ganglia clustered around glands
134"<img src=""Screen Shot 2020-09-14 at 7.36.38 PM.png"">"
Dorsal Root ganglia should cee big nad little cell bodies,
135"<img src=""Screen Shot 2020-09-14 at 7.37.14 PM.png"">"
Dorsal Root ganglia
136"<img src=""Screen Shot 2020-09-14 at 7.37.36 PM.png"">"
DRG big and little cell bodies
137"<img src=""Screen Shot 2020-09-14 at 7.38.02 PM.png"">"
sympathetic, not as well formed
138"<img src=""Screen Shot 2020-09-14 at 7.38.31 PM.png"">"
sympathetics, can seee that cell bodies are about the same size
139"<img src=""Screen Shot 2020-09-14 at 7.39.37 PM.png"">"
Peripheral n., not a ganglion because dont see breast/nipplees
140"<img src=""Screen Shot 2020-09-14 at 7.40.17 PM.png"">"
cell bodies bpacked in, and big and little packed in
141"<img src=""Screen Shot 2020-09-14 at 7.41.26 PM.png"">"
Dorsal ROOt, not Ganglia, no Nipples
142"<img src=""Screen Shot 2020-09-14 at 7.41.44 PM.png"">"
LMNs
143"<img src=""Screen Shot 2020-09-14 at 7.42.21 PM.png"">"
LMN in gray matter
144"<img src=""Screen Shot 2020-09-14 at 7.42.41 PM.png"">"
Dendrite because you have the nissel!
145"<img src=""Screen Shot 2020-09-14 at 7.42.59 PM.png"">"
cerebellum always has a pink outside
146"<img src=""Screen Shot 2020-09-14 at 7.43.18 PM.png"">"
Purkinge cells in cerebellum
147"<img src=""Screen Shot 2020-09-14 at 7.43.50 PM.png"">"
pyramidal cells
148"<img src=""Screen Shot 2020-09-14 at 7.44.35 PM.png"">"
RBC, purple dots are platlets
149"<img src=""Screen Shot 2020-09-14 at 7.44.53 PM.png"">"
Neutrophil
150"<img src=""Screen Shot 2020-09-14 at 7.45.18 PM.png"">"
monocytes, have bubbles, and have a variable appearance, bigger than RBCs
151"<img src=""Screen Shot 2020-09-14 at 7.45.41 PM.png"">"
Lymphocyte, dark cell
152"<img src=""Screen Shot 2020-09-14 at 7.46.29 PM.png"">"
eosinophil
153"<img src=""Screen Shot 2020-09-14 at 7.46.54 PM.png"">"
neutrophil
154"<img src=""Screen Shot 2020-09-14 at 7.47.10 PM.png"">"
basophil
155"<img src=""Screen Shot 2020-09-14 at 7.47.26 PM.png"">"
basophil
156"<img src=""Screen Shot 2020-09-14 at 7.47.37 PM.png"">"
monocyte
157"<img src=""Screen Shot 2020-09-14 at 7.48.01 PM.png"">"
neutrophil
158"<img src=""Screen Shot 2020-09-14 at 7.48.26 PM.png"">"
eosinophil
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164"<img src=""Screen Shot 2020-09-14 at 7.52.14 PM.png"">"
RBCs
165"<img src=""Screen Shot 2020-09-14 at 7.52.26 PM.png"">"
eosinophil
166"<img src=""Screen Shot 2020-09-14 at 7.52.38 PM.png"">"
polychromatic erythroblast
167"<img src=""Screen Shot 2020-09-14 at 7.52.58 PM.png"">"
basophillic erythroblast
168"<img src=""Screen Shot 2020-09-14 at 7.53.21 PM.png"">"
neutrophil megamyelocyte
169"<img src=""Screen Shot 2020-09-14 at 7.53.45 PM.png"">"
neutrophillic band
170"<img src=""Screen Shot 2020-09-14 at 7.53.59 PM.png"">"
Eosonphillic myelocyte
171"<img src=""Screen Shot 2020-09-14 at 7.54.27 PM.png"">"
going to be a neutrophil
172"<img src=""Screen Shot 2020-09-14 at 7.55.03 PM.png"">"
neutrohil band
173"<img src=""Screen Shot 2020-09-14 at 7.55.18 PM.png"">"
neutrophilic myelocyte
174"<img src=""Screen Shot 2020-09-14 at 7.55.38 PM.png"">"
going to be a neutophil, a megamyelocyte
175"<img src=""Screen Shot 2020-09-14 at 7.56.29 PM.png"">"
eosinophillic metamyelocyte
176"<img src=""Screen Shot 2020-09-14 at 7.58.40 PM.png"">"
goblet cells
177There are <span class=cloze>[...]</span> steps to create specimen slides in Histology
"There are <span class=cloze>7</span> steps to create specimen slides in Histology<br> <img src=""paste-6858388315940a1a0f03bcfb709147031c777737.jpg"">"
178Frozen sections are sectioned with a cryostat and proccessed in <span class=cloze>[...]</span> compare to paraffin sections
"Frozen sections are sectioned with a cryostat and proccessed in <span class=cloze>minutes</span> compare to paraffin sections <br> <img src=""paste-cb45d127edbb949dca04ac829a3be3e2818e26fd.jpg"">"
179Frozen sections are sectioned with a <span class=cloze>[...]</span> and proccessed in minutes compare to paraffin sections
"Frozen sections are sectioned with a <span class=cloze>cryostat</span> and proccessed in minutes compare to paraffin sections <br> <img src=""paste-cb45d127edbb949dca04ac829a3be3e2818e26fd.jpg"">"
180Most sectioned tissues are routinely stained with 2 dyes, hematoxylin and eosin <span class=cloze>[...]</span>.
Most sectioned tissues are routinely stained with 2 dyes, hematoxylin and eosin <span class=cloze>(H&E)</span>.<br>
181Most sectioned tissues are routinely stained with 2 dyes, <span class=cloze>[...]</span> and eosin (H&E).
Most sectioned tissues are routinely stained with 2 dyes, <span class=cloze>hematoxylin</span> and eosin (H&E).<br>
182Most sectioned tissues are routinely stained with 2 dyes, hematoxylin and <span class=cloze>[...]</span> (H&E).
Most sectioned tissues are routinely stained with 2 dyes, hematoxylin and <span class=cloze>eosin</span> (H&E).<br>
183Acidophilic components of the cells are stained with <span class=cloze>[...]</span>, which is pink-orange in color
"Acidophilic components of the cells are stained with <span class=cloze>Eosin</span>, which is pink-orange in color<br> <img src=""paste-8c24857ff85717bc0828ffc624e9910e44a57763.jpg"">"
184Acidophilic components of the cells are stained with Eosin, which is <span class=cloze>[...]</span> in color
"Acidophilic components of the cells are stained with Eosin, which is <span class=cloze>pink-orange</span> in color<br> <img src=""paste-8c24857ff85717bc0828ffc624e9910e44a57763.jpg"">"
185Cytoplams, mitochondria, and some secretory and lysosomal granules are <span class=cloze>[...]</span> and stain pink
"Cytoplams, mitochondria, and some secretory and lysosomal granules are <span class=cloze>acidophilic/eosinopholic</span> and stain pink<br> <img src=""paste-a62fcd5d7b4db1847a890f0c9cdad5eaa0571b1d.jpg"">"
186Cytoplams, mitochondria, and some secretory and lysosomal granules are acidophilic/eosinopholic and stain <span class=cloze>[...]</span>
"Cytoplams, mitochondria, and some secretory and lysosomal granules are acidophilic/eosinopholic and stain <span class=cloze>pink</span><br> <img src=""paste-a62fcd5d7b4db1847a890f0c9cdad5eaa0571b1d.jpg"">"
187Basophilic components stain with <span class=cloze>[...]</span>, which is a basic dye that stains blue-pulple in color
"Basophilic components stain with <span class=cloze>Hematoxylin</span>, which is a basic dye that stains blue-pulple in color<br> <img src=""paste-61a4265f9db398756450832fa3e869d8dfcdfdb6.jpg"">"
188Basophilic components stain with Hematoxylin, which is a basic dye that stains <span class=cloze>[...]</span> in color
"Basophilic components stain with Hematoxylin, which is a basic dye that stains <span class=cloze>blue-pulple</span> in color<br> <img src=""paste-61a4265f9db398756450832fa3e869d8dfcdfdb6.jpg"">"
189The affinity of the dyes to tissue components and staining has <span class=cloze>[...]</span> relation to the biochemistry of the components in the LIVING state. Remember typical H&E staining is done on tissues after they have been fixed, washed in water, alcohol, xylene, put in hot paraffin in a vacuum, cut into tiny pieces, and washed again.
The affinity of the dyes to tissue components and staining has <span class=cloze>NO</span> relation to the biochemistry of the components in the LIVING state. Remember typical H&E staining is done on tissues after they have been fixed, washed in water, alcohol, xylene, put in hot paraffin in a vacuum, cut into tiny pieces, and washed again.<br>
190The nuclear membrane consists of 2 membranes with <span class=cloze>[...]</span>
"The nuclear membrane consists of 2 membranes with <span class=cloze>pores</span><br> <img src=""paste-04c4ce73bec1fd398ba56eb9ad3501d4b8dba94b.jpg"">"
191The nuclear membrane consists of <span class=cloze>[...]</span> with pores
"The nuclear membrane consists of <span class=cloze>2 membranes</span> with pores<br> <img src=""paste-04c4ce73bec1fd398ba56eb9ad3501d4b8dba94b.jpg"">"
192The Nucleolus is the side for rRNA synthesis and initial ribosomal assambly. This rounded basophilic structure is visible in <span class=cloze>[...]</span> secreating cells
"The Nucleolus is the side for rRNA synthesis and initial ribosomal assambly. This rounded basophilic structure is visible in <span class=cloze>protein</span> secreating cells<br> <img src=""paste-04c4ce73bec1fd398ba56eb9ad3501d4b8dba94b.jpg"">"
193The Nucleolus is the side for <span class=cloze>[...]</span> synthesis and initial ribosomal assambly. This rounded basophilic structure is visible in protein secreating cells
"The Nucleolus is the side for <span class=cloze>rRNA</span> synthesis and initial ribosomal assambly. This rounded basophilic structure is visible in protein secreating cells<br> <img src=""paste-04c4ce73bec1fd398ba56eb9ad3501d4b8dba94b.jpg"">"
194Euchromatin is <span class=cloze>[...]</span>. Therefore, it is lightly stained.
"Euchromatin is <span class=cloze>extended, dispersed, and active</span>. Therefore, it is lightly stained.<br> <img src=""paste-04c4ce73bec1fd398ba56eb9ad3501d4b8dba94b.jpg"">"
195Euchromatin is extended, dispersed, and active. Therefore, it is <span class=cloze>[...]</span> stained.
"Euchromatin is extended, dispersed, and active. Therefore, it is <span class=cloze>lightly</span> stained.<br> <img src=""paste-04c4ce73bec1fd398ba56eb9ad3501d4b8dba94b.jpg"">"
196Heterochromatin is <span class=cloze>[...]</span>. Therefore, it is darkly stained.
"Heterochromatin is <span class=cloze>condensed, coiled, and innactive</span>. Therefore, it is darkly stained.<br> <img src=""paste-04c4ce73bec1fd398ba56eb9ad3501d4b8dba94b.jpg"">"
197Heterochromatin is condensed, coiled, and innactive. Therefore, it is <span class=cloze>[...]</span>.
"Heterochromatin is condensed, coiled, and innactive. Therefore, it is <span class=cloze>darkly stained</span>.<br> <img src=""paste-04c4ce73bec1fd398ba56eb9ad3501d4b8dba94b.jpg"">"
198Ribosome can be emmbeded on the rough endoplasmatic reticulum or free in the <span class=cloze>[...]</span>
"Ribosome can be emmbeded on the rough endoplasmatic reticulum or free in the <span class=cloze>cytoplams</span><br> <img src=""paste-04c4ce73bec1fd398ba56eb9ad3501d4b8dba94b.jpg"">"
199Ribosome can be emmbeded on the <span class=cloze>[...]</span> or free in the cytoplams
"Ribosome can be emmbeded on the <span class=cloze>rough endoplasmatic reticulum</span> or free in the cytoplams<br> <img src=""paste-04c4ce73bec1fd398ba56eb9ad3501d4b8dba94b.jpg"">"
200The shape, size, and staining of a nucleus is a useful tool for cell <br>identification. It can also give us clues about the functional activity of the cell. <br>The proportion of heterochromatin versus euchromatin (i.e. dark versus light staining) is <br>a reflection of how much of the cell’s genome is <span class=cloze>[...]</span>.
"The shape, size, and staining of a nucleus is a useful tool for cell <br>identification. It can also give us clues about the functional activity of the cell. <br>The proportion of heterochromatin versus euchromatin (i.e. dark versus light staining) is <br>a reflection of how much of the cell’s genome is <span class=cloze>actively being transcribed</span>. <br> <img src=""paste-e1878252e2d52185ac7388a74535a7638ee9b4d3.jpg"">"
201The shape, size, and staining of a nucleus is a useful tool for cell <br>identification. It can also give us clues about the <span class=cloze>[...]</span> of the cell. <br>The proportion of heterochromatin versus euchromatin (i.e. dark versus light staining) is <br>a reflection of how much of the cell’s genome is actively being transcribed.
"The shape, size, and staining of a nucleus is a useful tool for cell <br>identification. It can also give us clues about the <span class=cloze>functional activity</span> of the cell. <br>The proportion of heterochromatin versus euchromatin (i.e. dark versus light staining) is <br>a reflection of how much of the cell’s genome is actively being transcribed. <br> <img src=""paste-e1878252e2d52185ac7388a74535a7638ee9b4d3.jpg"">"
202The shape, size, and staining of a nucleus is a useful tool for cell <br><span class=cloze>[...]</span>. It can also give us clues about the functional activity of the cell. <br>The proportion of heterochromatin versus euchromatin (i.e. dark versus light staining) is <br>a reflection of how much of the cell’s genome is actively being transcribed.
"The shape, size, and staining of a nucleus is a useful tool for cell <br><span class=cloze>identification</span>. It can also give us clues about the functional activity of the cell. <br>The proportion of heterochromatin versus euchromatin (i.e. dark versus light staining) is <br>a reflection of how much of the cell’s genome is actively being transcribed. <br> <img src=""paste-e1878252e2d52185ac7388a74535a7638ee9b4d3.jpg"">"
203A light staining nucleus is a Euchromatic nucleus with a large developed <span class=cloze>[...]</span>, lots of extended DNA, transcriptionally active segments, and active metabollically
"A light staining nucleus is a Euchromatic nucleus with a large developed <span class=cloze>nucleolus</span>, lots of extended DNA, transcriptionally active segments, and active metabollically<br> <img src=""paste-53c54f823d8db520b641601605b8857f145083ec.jpg"">"
204A light staining nucleus is a Euchromatic nucleus with a large developed nucleolus, lots of extended DNA, transcriptionally <span class=cloze>[...]</span> segments, and active metabollically
"A light staining nucleus is a Euchromatic nucleus with a large developed nucleolus, lots of extended DNA, transcriptionally <span class=cloze>active</span> segments, and active metabollically<br> <img src=""paste-53c54f823d8db520b641601605b8857f145083ec.jpg"">"
205A light staining nucleus is a Euchromatic nucleus with a large developed nucleolus, lots of extended <span class=cloze>[...]</span>, transcriptionally active segments, and active metabollically
"A light staining nucleus is a Euchromatic nucleus with a large developed nucleolus, lots of extended <span class=cloze>DNA</span>, transcriptionally active segments, and active metabollically<br> <img src=""paste-53c54f823d8db520b641601605b8857f145083ec.jpg"">"
206A light staining nucleus is a Euchromatic nucleus with a large developed nucleolus, lots of extended DNA, transcriptionally active segments, and <span class=cloze>[...]</span> metabollically
"A light staining nucleus is a Euchromatic nucleus with a large developed nucleolus, lots of extended DNA, transcriptionally active segments, and <span class=cloze>active</span> metabollically<br> <img src=""paste-53c54f823d8db520b641601605b8857f145083ec.jpg"">"
207A light staining nucleus is a <span class=cloze>[...]</span> nucleus with a large developed nucleolus, lots of extended DNA, transcriptionally active segments, and active metabollically
"A light staining nucleus is a <span class=cloze>Euchromatic</span> nucleus with a large developed nucleolus, lots of extended DNA, transcriptionally active segments, and active metabollically<br> <img src=""paste-53c54f823d8db520b641601605b8857f145083ec.jpg"">"
208A heterochromatic, dark staining, nucleus has lots of condensed DNA, coiled chromatin, and small and poorly developed nucleolus. It is transcriptionally and metabolically <span class=cloze>[...]</span>
"A heterochromatic, dark staining, nucleus has lots of condensed DNA, coiled chromatin, and small and poorly developed nucleolus. It is transcriptionally and metabolically <span class=cloze>inactive</span><br> <img src=""paste-d8a833c3b773616e08a754d6c2215f5deab2ba34.jpg"">"
209A heterochromatic, <span class=cloze>[...]</span> staining, nucleus has lots of condensed DNA, coiled chromatin, and small and poorly developed nucleolus. It is transcriptionally and metabolically inactive
"A heterochromatic, <span class=cloze>dark</span> staining, nucleus has lots of condensed DNA, coiled chromatin, and small and poorly developed nucleolus. It is transcriptionally and metabolically inactive<br> <img src=""paste-d8a833c3b773616e08a754d6c2215f5deab2ba34.jpg"">"
210A heterochromatic, dark staining, nucleus has lots of condensed DNA, <span class=cloze>[...]</span> chromatin, and small and poorly developed nucleolus. It is transcriptionally and metabolically inactive
"A heterochromatic, dark staining, nucleus has lots of condensed DNA, <span class=cloze>coiled</span> chromatin, and small and poorly developed nucleolus. It is transcriptionally and metabolically inactive<br> <img src=""paste-d8a833c3b773616e08a754d6c2215f5deab2ba34.jpg"">"
211A heterochromatic, dark staining, nucleus has lots of <span class=cloze>[...]</span> DNA, coiled chromatin, and small and poorly developed nucleolus. It is transcriptionally and metabolically inactive
"A heterochromatic, dark staining, nucleus has lots of <span class=cloze>condensed</span> DNA, coiled chromatin, and small and poorly developed nucleolus. It is transcriptionally and metabolically inactive<br> <img src=""paste-d8a833c3b773616e08a754d6c2215f5deab2ba34.jpg"">"
212A heterochromatic, dark staining, nucleus has lots of condensed DNA, coiled chromatin, and <span class=cloze>[...]</span> nucleolus. It is transcriptionally and metabolically inactive
"A heterochromatic, dark staining, nucleus has lots of condensed DNA, coiled chromatin, and <span class=cloze>small and poorly developed</span> nucleolus. It is transcriptionally and metabolically inactive<br> <img src=""paste-d8a833c3b773616e08a754d6c2215f5deab2ba34.jpg"">"
213A dead or dying cell can often be identified in the presence of an intensely <span class=cloze>[...]</span> nucleus
"A dead or dying cell can often be identified in the presence of an intensely <span class=cloze>heterochromatic or pynknotic</span> nucleus<br> <img src=""paste-76eee1fbec36f497990b2f6485f626ea2b5314f5.jpg"">"
214When fully condensed during mitosis or meiosis, heterochromatin is <span class=cloze>[...]</span>
When fully condensed during mitosis or meiosis, heterochromatin is <span class=cloze>visible as distinct <br>chromosomes. </span><br>
215In <b>Interphase <>the nucleus appears <span class=cloze>[...]</span>
"In <b>Interphase <>the nucleus appears <span class=cloze>normal</span><br> <img src=""paste-a88dd8d97e0a1bd6dd3f1e3a014248186928e9c7.jpg"">"
216DNA duplicates in <span class=cloze>[...]</span> interphase (2N->4N)
"DNA duplicates in <span class=cloze>S</span> interphase (2N->4N)<br> <img src=""paste-b454c2557650bd7052ff5f2721a39bc43a9cabe8.jpg"">"
217Copies of the chromosomes are known as <span class=cloze>[...]</span>
Copies of the chromosomes are known as <span class=cloze>chromatids</span><br>
218Chromatids are attached by the <span class=cloze>[...]</span>
Chromatids are attached by the <span class=cloze>centromere</span><br>
219During interphase centrioles duplicate to exist in <span class=cloze>[...]</span>
During interphase centrioles duplicate to exist in <span class=cloze>2 pairs </span><br>
220Centrioles assemble the <span class=cloze>[...]</span>
Centrioles assemble the <span class=cloze>mitotic spindle</span><br>
221There are <span class=cloze>[...]</span> phases in mitosis
There are <span class=cloze>4</span> phases in mitosis<br>
222Mitosis consists of <span class=cloze>[...]</span>, Metaphase, Anaphase, and Telophase
Mitosis consists of <span class=cloze>Prophase</span>, Metaphase, Anaphase, and Telophase<br>
223Mitosis consists of Prophase, Metaphase, <span class=cloze>[...]</span>, and Telophase
Mitosis consists of Prophase, Metaphase, <span class=cloze>Anaphase</span>, and Telophase<br>
224Mitosis consists of Prophase, <span class=cloze>[...]</span>, Anaphase, and Telophase
Mitosis consists of Prophase, <span class=cloze>Metaphase</span>, Anaphase, and Telophase<br>
225Mitosis consists of Prophase, Metaphase, Anaphase, and <span class=cloze>[...]</span>
Mitosis consists of Prophase, Metaphase, Anaphase, and <span class=cloze>Telophase</span><br>
226In <b>Prophase <>the chromosomes <span class=cloze>[...]</span>
"In <b>Prophase <>the chromosomes <span class=cloze>condense, coil, and are visible as dark threads</span><br> <img src=""paste-50348aa15dc806e243b60dd06c71758d815234a1.jpg""><br><img src=""paste-e71aaa86734d38e0af68c09b1b16e0f2264e8ab2.jpg"">"
227In prophase each pair of centrioles <span class=cloze>[...]</span> to the poles of the cell
"In prophase each pair of centrioles <span class=cloze>migrate</span> to the poles of the cell<br> <img src=""paste-5feba6ba13c7ab5f2d478b23dd211a077e2fa32c.jpg"">"
228prophase ends with the <span class=cloze>[...]</span> of the nuclear envelope
"prophase ends with the <span class=cloze>dissappearance</span> of the nuclear envelope<br> <img src=""paste-70fdffd89b22e1b4da3d125b070b558dc0d579da.jpg"">"
229In metaphase the mitotic spindle attaches to chromosomes at the <span class=cloze>[...]</span>
"In metaphase the mitotic spindle attaches to chromosomes at the <span class=cloze>kinetichore</span><br> <img src=""paste-1769cea7b73d7b36521b25e08892383398260352.jpg"">"
230In metaphase the <span class=cloze>[...]</span> attaches to chromosomes at the kinetichore
"In metaphase the <span class=cloze>mitotic spindle</span> attaches to chromosomes at the kinetichore<br> <img src=""paste-1769cea7b73d7b36521b25e08892383398260352.jpg"">"
231in metaphase the chromosomes line up at the <span class=cloze>[...]</span> of the cell
in metaphase the chromosomes line up at the <span class=cloze>equator</span> of the cell<br>
232In metaphase the chromosome are in their <span class=cloze>[...]</span> form
In metaphase the chromosome are in their <span class=cloze>most condensed</span> form<br>
233Chromosomes are karyotyped at <span class=cloze>[...]</span>
Chromosomes are karyotyped at <span class=cloze>metaphase</span><br>
234In anaphase sister chromatids split apart at the centromere forming two separate <span class=cloze>[...]</span> chromosomes
"In anaphase sister chromatids split apart at the centromere forming two separate <span class=cloze>identical</span> chromosomes<br> <img src=""paste-073817639b374ae275b41f025e0b9028ddf9cb71.jpg"">"
235In anaphase sister chromatids <span class=cloze>[...]</span> apart at the centromere forming two separate identical chromosomes
"In anaphase sister chromatids <span class=cloze>split</span> apart at the centromere forming two separate identical chromosomes<br> <img src=""paste-073817639b374ae275b41f025e0b9028ddf9cb71.jpg"">"
236In anaphase sister chromatids split apart at the <span class=cloze>[...]</span> forming two separate identical chromosomes
"In anaphase sister chromatids split apart at the <span class=cloze>centromere</span> forming two separate identical chromosomes<br> <img src=""paste-073817639b374ae275b41f025e0b9028ddf9cb71.jpg"">"
237In anaphase the chromosomes are <span class=cloze>[...]</span> towards opposite poles in the cell
"In anaphase the chromosomes are <span class=cloze>pulled</span> towards opposite poles in the cell<br> <img src=""paste-073817639b374ae275b41f025e0b9028ddf9cb71.jpg"">"
238In telophase chromosomes begin to <span class=cloze>[...]</span> until no longer visible
"In telophase chromosomes begin to <span class=cloze>uncoil</span> until no longer visible<br> <img src=""paste-c5dd2b52862c034bbbda78b4ee0565e9d5e01c7f.jpg"">"
239In telophase the nuclear membrane and <span class=cloze>[...]</span> reform
"In telophase the nuclear membrane and <span class=cloze>nucleolus</span> reform<br> <img src=""paste-c5dd2b52862c034bbbda78b4ee0565e9d5e01c7f.jpg"">"
240In telophase the <span class=cloze>[...]</span> and nucleolus reform
"In telophase the <span class=cloze>nuclear membrane</span> and nucleolus reform<br> <img src=""paste-c5dd2b52862c034bbbda78b4ee0565e9d5e01c7f.jpg"">"
241Cytokinesis is the <span class=cloze>[...]</span> of the cytoplasms into two separate cells
Cytokinesis is the <span class=cloze>cleavage</span> of the cytoplasms into two separate cells<br>
242Cytokinesis occurs by the <span class=cloze>[...]</span> of the cell at the equator by a contactile ring composed of actin/myosin filaments
Cytokinesis occurs by the <span class=cloze>constriction</span> of the cell at the equator by a contactile ring composed of actin/myosin filaments <br>
243In sectioned tissue, mitotic cells can be recognized by their darkly staining clumps of <br>chromatin and are not staged but collectively called “<span class=cloze>[...]</span>”
In sectioned tissue, mitotic cells can be recognized by their darkly staining clumps of <br>chromatin and are not staged but collectively called “<span class=cloze>mitotic figures</span>”<br>
244cholcicline block the microtubules from progressing the cell into anaphase. Therefore, the cells is stuck at <span class=cloze>[...]</span>
cholcicline block the microtubules from progressing the cell into anaphase. Therefore, the cells is stuck at <span class=cloze>metaphase</span><br>
245cholcicline <span class=cloze>[...]</span> the microtubules from progressing the cell into anaphase. Therefore, the cells is stuck at metaphase
cholcicline <span class=cloze>block</span> the microtubules from progressing the cell into anaphase. Therefore, the cells is stuck at metaphase<br>
246A barr body is the inactive <span class=cloze>[...]</span> in female cells
"A barr body is the inactive <span class=cloze>X chromosome</span> in female cells<br> <img src=""paste-4ea7cc4730a65759a8c84735f1101608a165b7f2.jpg"">"
247The Barr bodies appear as dark masses of <span class=cloze>[...]</span> on the edge of the nucleous or as a small projection in neutrophils
The Barr bodies appear as dark masses of <span class=cloze>heterochromatin</span> on the edge of the nucleous or as a small projection in neutrophils<br>
248The cell cycles is divided into Interphase (G1,S,G2) and <span class=cloze>[...]</span>
"The cell cycles is divided into Interphase (G1,S,G2) and <span class=cloze>Mitosis (M)</span><br> <img src=""paste-2a5b2b9af8bebd4aadcf52b4d6af4a21c7395543.jpg"">"
249The cell cycles is divided into <span class=cloze>[...]</span> and Mitosis (M)
"The cell cycles is divided into <span class=cloze>Interphase (G1,S,G2)</span> and Mitosis (M)<br> <img src=""paste-2a5b2b9af8bebd4aadcf52b4d6af4a21c7395543.jpg"">"
250The <span class=cloze>[...]</span> phase of Interphase is when the cell is growing and performing specialized functions, synthesizing proteins and RNA, and it is the most variable and longest part of interphase
The <span class=cloze>G1</span> phase of Interphase is when the cell is growing and performing specialized functions, synthesizing proteins and RNA, and it is the most variable and longest part of interphase<br>
251Specialized cells go in <span class=cloze>[...]</span> phase, which is a terminally differentiated postmitotic state.
Specialized cells go in <span class=cloze>G0</span> phase, which is a terminally differentiated postmitotic state.<br>
252Cells in <span class=cloze>[...]</span> cannot divide
Cells in <span class=cloze>G0</span> cannot divide<br>
253The <span class=cloze>[...]</span> phase of interphase is when DNA is synthesized or duplicated (2n->4n)
The <span class=cloze>S</span> phase of interphase is when DNA is synthesized or duplicated (2n->4n)<br>
254The <span class=cloze>[...]</span> phase of interphase is the last preparation step before mitosis and the centrioles replicate
The <span class=cloze>G2</span> phase of interphase is the last preparation step before mitosis and the centrioles replicate<br>
255The cell membrane is <span class=cloze>[...]</span> thick
The cell membrane is <span class=cloze>7-10nm</span> thick<br>
256The cell membrane is a semi-permiable lipid bilayer with <span class=cloze>[...]</span> and carbohydrates
The cell membrane is a semi-permiable lipid bilayer with <span class=cloze>associated proteins</span> and carbohydrates<br>
257The cell membrane is a semi-permiable lipid bilayer with associated proteins and <span class=cloze>[...]</span>
The cell membrane is a semi-permiable lipid bilayer with associated proteins and <span class=cloze>carbohydrates</span><br>
258The cell membrane is a <span class=cloze>[...]</span> with associated proteins and carbohydrates
The cell membrane is a <span class=cloze>semi-permiable lipid bilayer</span> with associated proteins and carbohydrates<br>
259The supporting framework of the cell consists of a variety of <span class=cloze>[...]</span> assembled into <br>minute rods or filaments and tubules. The cytoskeleton is involved in cell support, shape, <br>movement of the cell, and movement of materials within the cell.
The supporting framework of the cell consists of a variety of <span class=cloze>proteins</span> assembled into <br>minute rods or filaments and tubules. The cytoskeleton is involved in cell support, shape, <br>movement of the cell, and movement of materials within the cell. <br>
260The supporting framework of the cell consists of a variety of proteins assembled into <br>minute rods or filaments and tubules. The <span class=cloze>[...]</span> is involved in cell support, shape, <br>movement of the cell, and movement of materials within the cell.
The supporting framework of the cell consists of a variety of proteins assembled into <br>minute rods or filaments and tubules. The <span class=cloze>cytoskeleton</span> is involved in cell support, shape, <br>movement of the cell, and movement of materials within the cell. <br>
261the 3 types of filaments are microfilaments, myosin filaments<span class=cloze>[...]</span>
the 3 types of filaments are microfilaments, myosin filaments<span class=cloze>, and intermediate filaments </span><br>
262the 3 types of filaments are microfilaments, <span class=cloze>[...]</span>, and intermediate filaments
the 3 types of filaments are microfilaments, <span class=cloze>myosin filaments</span>, and intermediate filaments <br>
263the 3 types of filaments are <span class=cloze>[...]</span>, myosin filaments, and intermediate filaments
the 3 types of filaments are <span class=cloze>microfilaments</span>, myosin filaments, and intermediate filaments <br>
264Microfilaments are tiny rods composed of <span class=cloze>[...]</span>
"Microfilaments are tiny rods composed of <span class=cloze>actin</span><br> <img src=""paste-be3409ffa176b76878ab16c345626846a204c70b.jpg"">"
265Myosin filamens are also called thick filaments and play a role in <span class=cloze>[...]</span>
"Myosin filamens are also called thick filaments and play a role in <span class=cloze>muscle contraction</span><br> <img src=""paste-a043265d7ccfc83b3fcb38b9bb210423aae90ffb.jpg"">"
266Myosin filamens are also called <span class=cloze>[...]</span> filaments and play a role in muscle contraction
"Myosin filamens are also called <span class=cloze>thick</span> filaments and play a role in muscle contraction<br> <img src=""paste-a043265d7ccfc83b3fcb38b9bb210423aae90ffb.jpg"">"
267Intermediate filaments are important for cell <span class=cloze>[...]</span>. They are very stable
Intermediate filaments are important for cell <span class=cloze>support and shape</span>. They are very stable <br>
268<span class=cloze>[...]</span> are hollow tubes composed of tubulin
"<span class=cloze>Microtubules</span> are hollow tubes composed of tubulin<br> <img src=""paste-ebdeab83e902876919d665aa5525c02516b29648.jpg"">"
269<span class=cloze>[...]</span> are large motile organelles composed of 2 unit membranes, with the <br>inner membrane highly folded into shelves (cristae).
"<span class=cloze>Mitochrondria</span> are large motile organelles composed of 2 unit membranes, with the <br>inner membrane highly folded into shelves (cristae).<br> <img src=""paste-c79567193b68f73ec0cb8d18e07feeb051e55281.jpg"">"
270Mitochondria are <span class=cloze>[...]</span>, having their own DNA and RNA.
Mitochondria are <span class=cloze>self-replicating</span>, having their own DNA and RNA. <br>
271Mitochondria are self-replicating, having their own <span class=cloze>[...]</span>.
Mitochondria are self-replicating, having their own <span class=cloze>DNA and RNA</span>. <br>
272Mitochondria generate energy in the form of ATP through <span class=cloze>[...]</span>.
Mitochondria generate energy in the form of ATP through <span class=cloze>oxidative phosphorylation</span>. <br>
273Metabolically <span class=cloze>[...]</span> cells, requiring large amounts of ATP, have large numbers of mitochondria as well as mitochondria with more inner folds<br>(increasing the surface area for substrates).
Metabolically <span class=cloze>active</span> cells, requiring large amounts of ATP, have large numbers of mitochondria as well as mitochondria with more inner folds<br>(increasing the surface area for substrates). <br>
274<span class=cloze>[...]</span> are small dense granules containing RNA manufactured in the nucleolus. <br>
<span class=cloze>Ribosomes</span> are small dense granules containing RNA manufactured in the nucleolus. <br><br>
275Ribosomes attached to the <span class=cloze>[...]</span> produce proteins for membranes, lysosomes, and secretion
"Ribosomes attached to the <span class=cloze>RER</span> produce proteins for membranes, lysosomes, and secretion<br> <img src=""paste-53a51adc7897eba4b7bea1f6aa479c8bab06a670.jpg"">"
276Free ribosomes in the cytoplams produce proteins to be used <span class=cloze>[...]</span> like cytoskeletal proteins (cctin, myosin, and tubulin)
Free ribosomes in the cytoplams produce proteins to be used <span class=cloze>in house</span> like cytoskeletal proteins (cctin, myosin, and tubulin)<br>
277<span class=cloze>[...]</span> ribosomes in the cytoplams produce proteins to be used in house like cytoskeletal proteins (cctin, myosin, and tubulin)
<span class=cloze>Free</span> ribosomes in the cytoplams produce proteins to be used in house like cytoskeletal proteins (cctin, myosin, and tubulin)<br>
278The <span class=cloze>[...]</span> is a extensive system of interconnected membrane bound cavities with the nuclear membrane
The <span class=cloze>endoplasmatic reticulum</span> is a extensive system of interconnected membrane bound cavities with the nuclear membrane<br>
279The RER is embedded with <span class=cloze>[...]</span>
"The RER is embedded with <span class=cloze>ribosomes</span><br> <img src=""paste-e88572c2ff21998abaf37f21c9368c3b4daaaa27.jpg"">"
280The SER lacks <span class=cloze>[...]</span>
The SER lacks <span class=cloze>ribosomes</span><br>
281The SER serves <span class=cloze>[...]</span> fucntions depending on the cell and location
The SER serves <span class=cloze>diverse</span> fucntions depending on the cell and location <br>
282<span class=cloze>[...]</span> is abundant in cells that synthesize large amounts of lipid and steroid hormones (ex. adrenal cortex)
<span class=cloze>SER</span> is abundant in cells that synthesize large amounts of lipid and steroid hormones (ex. adrenal cortex)<br>
283<span class=cloze>[...]</span> plays an important role in detoxification of alcohol, drugs, and toxins in liver cells.
<span class=cloze>SER</span> plays an important role in detoxification of alcohol, drugs, and toxins in liver cells. <br>
284The <span class=cloze>[...]</span> consist of stacks of flattened mebranous sacs and vesicles
The <span class=cloze>golgi apparatus</span> consist of stacks of flattened mebranous sacs and vesicles<br>
285Proteins and other molecules made in the RER are modified, packaged, and sorted into vesicles in the <span class=cloze>[...]</span>
Proteins and other molecules made in the RER are modified, packaged, and sorted into vesicles in the <span class=cloze>Golgi apparatus</span><br>
286The golgi apparatus does not stain with H&E, but it often leaves a <span class=cloze>[...]</span> in protein secreting cells with a dark staining cytoplams
The golgi apparatus does not stain with H&E, but it often leaves a <span class=cloze>clear region</span> in protein secreting cells with a dark staining cytoplams<br>
287The golgi apparatus <span class=cloze>[...]</span> stain with H&E, but it often leaves a clear region in protein secreting cells with a dark staining cytoplams
The golgi apparatus <span class=cloze>does not</span> stain with H&E, but it often leaves a clear region in protein secreting cells with a dark staining cytoplams<br>
288The process of <span class=cloze>[...]</span> consists of releasing material from the cell usually by fusion of a membrane bound vescicle with the cell membrane
The process of <span class=cloze>exocytosis</span> consists of releasing material from the cell usually by fusion of a membrane bound vescicle with the cell membrane<br>
289<span class=cloze>[...]</span> is entrance of material into the cell. It is differentiated into Pinocytosis and Phagocytosis
<span class=cloze>Endocytosis</span> is entrance of material into the cell. It is differentiated into Pinocytosis and Phagocytosis<br>
290Endocytosis is entrance of material into the cell. It is differentiated into <span class=cloze>[...]</span>
Endocytosis is entrance of material into the cell. It is differentiated into <span class=cloze>Pinocytosis and Phagocytosis</span><br>
291<span class=cloze>[...]</span> is the ingestion of fluids and small particles
<span class=cloze>Pinocytosis</span> is the ingestion of fluids and small particles<br>
292<span class=cloze>[...]</span> is the ingestion of lager particles or organisms
<span class=cloze>Phagocytosis</span> is the ingestion of lager particles or organisms<br>
293<span class=cloze>[...]</span> are membrane bound “bags” containing products destined for release from the cell by EXOCYTOSIS
"<span class=cloze>Secretory vescicles</span> are membrane bound “bags” containing products destined for release from the cell by EXOCYTOSIS<br> <img src=""paste-fe418f5df1f0e39d663e5a5508d049c5d637b8be.jpg"">"
294Some cells <span class=cloze>[...]</span> exocytose their secretory vesicles without storing them. These cells will have too few vesicles to visualize in the cytoplams Ex: Plasma Cells (secrete Ig)
"Some cells <span class=cloze>immediatly</span> exocytose their secretory vesicles without storing them. These cells will have too few vesicles to visualize in the cytoplams Ex: Plasma Cells (secrete Ig)<br> <img src=""paste-f77d40ae26db8661bd78dfda6f053d34f3a45c64.jpg"">"
295Some cells immediatly exocytose their secretory vesicles without storing them. These cells will have too few vesicles to visualize in the cytoplams Ex: <span class=cloze>[...]</span>
"Some cells immediatly exocytose their secretory vesicles without storing them. These cells will have too few vesicles to visualize in the cytoplams Ex: <span class=cloze>Plasma Cells (secrete Ig)</span><br> <img src=""paste-f77d40ae26db8661bd78dfda6f053d34f3a45c64.jpg"">"
296Some cells <span class=cloze>[...]</span> their product until needed. In these cells the secretory vesicles accumulate and may be vissible in the LM as dots or granules Ex: serous cells (Secrete digestive enzymes)
"Some cells <span class=cloze>store</span> their product until needed. In these cells the secretory vesicles accumulate and may be vissible in the LM as dots or granules Ex: serous cells (Secrete digestive enzymes)<br> <img src=""paste-8c59a182b57df407f2b6164f1fff4c82c1f7a7a9.jpg"">"
297<span class=cloze>[...]</span> are membrane bound bags of hydrolytic enzymes
<span class=cloze>Lysosomes</span> are membrane bound bags of hydrolytic enzymes<br>
298The acid hydrolases in lysosomes must be secreated by a membrane bound vescicle or they will <span class=cloze>[...]</span> the cell.
The acid hydrolases in lysosomes must be secreated by a membrane bound vescicle or they will <span class=cloze>destroy</span> the cell.<br>
299Lysosomal enzymes are synthesized in the RER and packaged in the <span class=cloze>[...]</span> forming primary lysosomes
Lysosomal enzymes are synthesized in the RER and packaged in the <span class=cloze>Golgi apparatus</span> forming primary lysosomes<br>
300Lysosomal enzymes are synthesized in the <span class=cloze>[...]</span> and packaged in the Golgi apparatus forming primary lysosomes
Lysosomal enzymes are synthesized in the <span class=cloze>RER</span> and packaged in the Golgi apparatus forming primary lysosomes<br>