All Decks.txt

804 Karteikartenvon KrisMedCards
Diese Karteikarten lernenKostenlos · Spaced Repetition · iPhone, Android, Mac & Web

Die ersten 300 von 804 Karten

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&nbsp;</div><div><br></div><div>Statidied Squamous non Keratiniezed&nbsp;</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&nbsp;
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&nbsp;
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&nbsp;
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&nbsp;
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&nbsp;
11
"<div style='font-family: Arial; font-size: 20px;'></div> <img src=""Screen Shot 2020-09-14 at 4.57.48 PM.png""> "
vessel&nbsp;
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&nbsp;
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&nbsp;
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&nbsp;
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&nbsp;
20
"<img src=""Screen Shot 2020-09-14 at 5.10.12 PM.png"">"
arteriole vessel&nbsp;
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&nbsp;
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&nbsp;
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&nbsp;
33
"<img src=""Screen Shot 2020-09-14 at 5.15.25 PM.png"">"
Pacinian Corpuscle&nbsp;
34
"<img src=""Screen Shot 2020-09-14 at 5.15.46 PM.png"">"
Lympatic vessel because the endotheium are very seperated&nbsp;
35
"<img src=""Screen Shot 2020-09-14 at 5.16.13 PM.png"">"
little arteriole&nbsp;
36
"<img src=""Screen Shot 2020-09-14 at 5.16.28 PM.png"">"
adipose&nbsp;
37
"<img src=""Screen Shot 2020-09-14 at 5.16.42 PM.png"">"
Dense reggular connective tissue&nbsp;
38
"<img src=""Screen Shot 2020-09-14 at 5.16.58 PM.png"">"
Hyaline cartilage&nbsp;
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&nbsp;
40
"<img src=""Screen Shot 2020-09-14 at 5.17.59 PM.png"">"
Pseudostratiffied epithelium , with apical cillia ,&nbsp;
41
"<img src=""Screen Shot 2020-09-14 at 5.18.51 PM.png"">"
Basal Lamina or basement membrane&nbsp;
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&nbsp;
43
"<img src=""Screen Shot 2020-09-14 at 5.19.42 PM.png"">"
eosinophil , can tell by grains&nbsp;
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&nbsp;
45
"<img src=""Screen Shot 2020-09-14 at 5.20.58 PM.png"">"
simple cuboidal epithelum&nbsp;
46
"<img src=""Screen Shot 2020-09-14 at 5.21.13 PM.png"">"
small muscular artery&nbsp;
47
"<img src=""Screen Shot 2020-09-14 at 5.21.52 PM.png"">"
Muscular artery&nbsp;
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.&nbsp;
50
"<img src=""Screen Shot 2020-09-14 at 5.23.15 PM.png"">"
simple cuboidal epithelium&nbsp;
51
"<img src=""Screen Shot 2020-09-14 at 5.23.36 PM.png"">"
Vein, thin walled&nbsp;
52
"<img src=""Screen Shot 2020-09-14 at 5.23.50 PM.png"">"
monocyte cell&nbsp;
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&nbsp;
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 ,&nbsp;
56
"<img src=""Screen Shot 2020-09-14 at 6.57.17 PM.png"">"
Cross section of sm,&nbsp;
57
"<img src=""Screen Shot 2020-09-14 at 6.57.46 PM.png"">"
lu=ymphatic vessel&nbsp;
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&nbsp;
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&nbsp;
66
"<img src=""Screen Shot 2020-09-14 at 7.00.11 PM.png"">"
apical specialization microvili&nbsp;
67
"<img src=""Screen Shot 2020-09-14 at 7.00.31 PM.png"">"
Mast cell in Dense Irregular CT&nbsp;
68
"<img src=""Screen Shot 2020-09-14 at 7.01.19 PM.png"">"
MUCOUS CELLS, CSEROUS CELL ON OUTSIDE&nbsp;
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&nbsp;
72
"<img src=""Screen Shot 2020-09-14 at 7.03.48 PM.png"">"
Sm in longitudinal section, with a parasympathetic ganglia in between&nbsp;
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&nbsp;
75
"<img src=""Screen Shot 2020-09-14 at 7.05.01 PM.png"">"
Sm in cross section&nbsp;
76
"<img src=""Screen Shot 2020-09-14 at 7.05.20 PM.png"">"
Peripheral n, with dense connective tissue around&nbsp;
77
"%<img src=""Screen Shot 2020-09-14 at 7.05.54 PM.png"">"
sm with LCT under&nbsp;
78
"<img src=""Screen Shot 2020-09-14 at 7.06.13 PM.png"">"
mast cell next to plasma cell&nbsp;
79
"<img src=""Screen Shot 2020-09-14 at 7.06.59 PM.png"">"
Mucous cell&nbsp;
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.&nbsp;
81
"<img src=""Screen Shot 2020-09-14 at 7.07.54 PM.png"">"
skeletal muscle&nbsp;
82
"<img src=""Screen Shot 2020-09-14 at 7.08.06 PM.png"">"
muscle spindle&nbsp;
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&nbsp;
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&nbsp;
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&gt;Hypertrophy&gt;Proliferation&gt;Resting&nbsp;
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,&nbsp;
115
"<img src=""Screen Shot 2020-09-14 at 7.23.50 PM.png"">"
haversian canal in compact bone,&nbsp;
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&nbsp;
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&nbsp;
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&nbsp;
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,&nbsp;
135
"<img src=""Screen Shot 2020-09-14 at 7.37.14 PM.png"">"
Dorsal Root ganglia&nbsp;
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&nbsp;
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&nbsp;
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
159
" <div id=""io-header""></div> <div id=""io-wrapper""> <div id=""io-overlay""><img src=""4ed0dc47d06a4e22802b23cd5faf7db7-oa-1-Q.svg"" /></div> <div id=""io-original""><img src=""Screen Shot 2020-09-14 at 7.49.23 PM.png"" /></div> </div> <div id=""io-footer""></div> <script> // Prevent original image from loading before mask aFade = 50, qFade = 0; var mask = document.querySelector('#io-overlay>img'); function loaded() { var original = document.querySelector('#io-original'); original.style.visibility = ""visible""; } if (mask === null || mask.complete) { loaded(); } else { mask.addEventListener('load', loaded); } </script> "
" <div id=""io-header""></div> <div id=""io-wrapper""> <div id=""io-overlay""><img src=""4ed0dc47d06a4e22802b23cd5faf7db7-oa-1-A.svg"" /></div> <div id=""io-original""><img src=""Screen Shot 2020-09-14 at 7.49.23 PM.png"" /></div> </div> <button id=""io-revl-btn"" onclick=""toggle();"">Toggle Masks<utton> <div id=""io-extra-wrapper""> <div id=""io-extra""> </div> </div> <script> // Toggle answer mask on clicking the image var toggle = function() { var amask = document.getElementById('io-overlay'); if (amask.style.display === 'block' || amask.style.display === '') amask.style.display = 'none'; else amask.style.display = 'block' } // Prevent original image from loading before mask aFade = 50, qFade = 0; var mask = document.querySelector('#io-overlay>img'); function loaded() { var original = document.querySelector('#io-original'); original.style.visibility = ""visible""; } if (mask === null || mask.complete) { loaded(); } else { mask.addEventListener('load', loaded); } </script> "
160
" <div id=""io-header""></div> <div id=""io-wrapper""> <div id=""io-overlay""><img src=""4ed0dc47d06a4e22802b23cd5faf7db7-oa-2-Q.svg"" /></div> <div id=""io-original""><img src=""Screen Shot 2020-09-14 at 7.49.23 PM.png"" /></div> </div> <div id=""io-footer""></div> <script> // Prevent original image from loading before mask aFade = 50, qFade = 0; var mask = document.querySelector('#io-overlay>img'); function loaded() { var original = document.querySelector('#io-original'); original.style.visibility = ""visible""; } if (mask === null || mask.complete) { loaded(); } else { mask.addEventListener('load', loaded); } </script> "
" <div id=""io-header""></div> <div id=""io-wrapper""> <div id=""io-overlay""><img src=""4ed0dc47d06a4e22802b23cd5faf7db7-oa-2-A.svg"" /></div> <div id=""io-original""><img src=""Screen Shot 2020-09-14 at 7.49.23 PM.png"" /></div> </div> <button id=""io-revl-btn"" onclick=""toggle();"">Toggle Masks<utton> <div id=""io-extra-wrapper""> <div id=""io-extra""> </div> </div> <script> // Toggle answer mask on clicking the image var toggle = function() { var amask = document.getElementById('io-overlay'); if (amask.style.display === 'block' || amask.style.display === '') amask.style.display = 'none'; else amask.style.display = 'block' } // Prevent original image from loading before mask aFade = 50, qFade = 0; var mask = document.querySelector('#io-overlay>img'); function loaded() { var original = document.querySelector('#io-original'); original.style.visibility = ""visible""; } if (mask === null || mask.complete) { loaded(); } else { mask.addEventListener('load', loaded); } </script> "
161
" <div id=""io-header""></div> <div id=""io-wrapper""> <div id=""io-overlay""><img src=""4ed0dc47d06a4e22802b23cd5faf7db7-oa-3-Q.svg"" /></div> <div id=""io-original""><img src=""Screen Shot 2020-09-14 at 7.49.23 PM.png"" /></div> </div> <div id=""io-footer""></div> <script> // Prevent original image from loading before mask aFade = 50, qFade = 0; var mask = document.querySelector('#io-overlay>img'); function loaded() { var original = document.querySelector('#io-original'); original.style.visibility = ""visible""; } if (mask === null || mask.complete) { loaded(); } else { mask.addEventListener('load', loaded); } </script> "
" <div id=""io-header""></div> <div id=""io-wrapper""> <div id=""io-overlay""><img src=""4ed0dc47d06a4e22802b23cd5faf7db7-oa-3-A.svg"" /></div> <div id=""io-original""><img src=""Screen Shot 2020-09-14 at 7.49.23 PM.png"" /></div> </div> <button id=""io-revl-btn"" onclick=""toggle();"">Toggle Masks<utton> <div id=""io-extra-wrapper""> <div id=""io-extra""> </div> </div> <script> // Toggle answer mask on clicking the image var toggle = function() { var amask = document.getElementById('io-overlay'); if (amask.style.display === 'block' || amask.style.display === '') amask.style.display = 'none'; else amask.style.display = 'block' } // Prevent original image from loading before mask aFade = 50, qFade = 0; var mask = document.querySelector('#io-overlay>img'); function loaded() { var original = document.querySelector('#io-original'); original.style.visibility = ""visible""; } if (mask === null || mask.complete) { loaded(); } else { mask.addEventListener('load', loaded); } </script> "
162
" <div id=""io-header""></div> <div id=""io-wrapper""> <div id=""io-overlay""><img src=""4ed0dc47d06a4e22802b23cd5faf7db7-oa-4-Q.svg"" /></div> <div id=""io-original""><img src=""Screen Shot 2020-09-14 at 7.49.23 PM.png"" /></div> </div> <div id=""io-footer""></div> <script> // Prevent original image from loading before mask aFade = 50, qFade = 0; var mask = document.querySelector('#io-overlay>img'); function loaded() { var original = document.querySelector('#io-original'); original.style.visibility = ""visible""; } if (mask === null || mask.complete) { loaded(); } else { mask.addEventListener('load', loaded); } </script> "
" <div id=""io-header""></div> <div id=""io-wrapper""> <div id=""io-overlay""><img src=""4ed0dc47d06a4e22802b23cd5faf7db7-oa-4-A.svg"" /></div> <div id=""io-original""><img src=""Screen Shot 2020-09-14 at 7.49.23 PM.png"" /></div> </div> <button id=""io-revl-btn"" onclick=""toggle();"">Toggle Masks<utton> <div id=""io-extra-wrapper""> <div id=""io-extra""> </div> </div> <script> // Toggle answer mask on clicking the image var toggle = function() { var amask = document.getElementById('io-overlay'); if (amask.style.display === 'block' || amask.style.display === '') amask.style.display = 'none'; else amask.style.display = 'block' } // Prevent original image from loading before mask aFade = 50, qFade = 0; var mask = document.querySelector('#io-overlay>img'); function loaded() { var original = document.querySelector('#io-original'); original.style.visibility = ""visible""; } if (mask === null || mask.complete) { loaded(); } else { mask.addEventListener('load', loaded); } </script> "
163
" <div id=""io-header""></div> <div id=""io-wrapper""> <div id=""io-overlay""><img src=""4ed0dc47d06a4e22802b23cd5faf7db7-oa-5-Q.svg"" /></div> <div id=""io-original""><img src=""Screen Shot 2020-09-14 at 7.49.23 PM.png"" /></div> </div> <div id=""io-footer""></div> <script> // Prevent original image from loading before mask aFade = 50, qFade = 0; var mask = document.querySelector('#io-overlay>img'); function loaded() { var original = document.querySelector('#io-original'); original.style.visibility = ""visible""; } if (mask === null || mask.complete) { loaded(); } else { mask.addEventListener('load', loaded); } </script> "
" <div id=""io-header""></div> <div id=""io-wrapper""> <div id=""io-overlay""><img src=""4ed0dc47d06a4e22802b23cd5faf7db7-oa-5-A.svg"" /></div> <div id=""io-original""><img src=""Screen Shot 2020-09-14 at 7.49.23 PM.png"" /></div> </div> <button id=""io-revl-btn"" onclick=""toggle();"">Toggle Masks<utton> <div id=""io-extra-wrapper""> <div id=""io-extra""> </div> </div> <script> // Toggle answer mask on clicking the image var toggle = function() { var amask = document.getElementById('io-overlay'); if (amask.style.display === 'block' || amask.style.display === '') amask.style.display = 'none'; else amask.style.display = 'block' } // Prevent original image from loading before mask aFade = 50, qFade = 0; var mask = document.querySelector('#io-overlay>img'); function loaded() { var original = document.querySelector('#io-original'); original.style.visibility = ""visible""; } if (mask === null || mask.complete) { loaded(); } else { mask.addEventListener('load', loaded); } </script> "
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
177
There 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"">"
178
Frozen sections are sectioned with a cryostat and proccessed in <span class=cloze>[...]</span> compare to paraffin sections&nbsp;
"Frozen sections are sectioned with a cryostat and proccessed in <span class=cloze>minutes</span> compare to paraffin sections&nbsp;<br> <img src=""paste-cb45d127edbb949dca04ac829a3be3e2818e26fd.jpg"">"
179
Frozen sections are sectioned with a <span class=cloze>[...]</span> and proccessed in minutes compare to paraffin sections&nbsp;
"Frozen sections are sectioned with a <span class=cloze>cryostat</span> and proccessed in minutes compare to paraffin sections&nbsp;<br> <img src=""paste-cb45d127edbb949dca04ac829a3be3e2818e26fd.jpg"">"
180
Most 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&amp;E)</span>.<br>
181
Most sectioned tissues are routinely stained with 2 dyes, <span class=cloze>[...]</span> and eosin (H&amp;E).
Most sectioned tissues are routinely stained with 2 dyes, <span class=cloze>hematoxylin</span> and eosin (H&amp;E).<br>
182
Most sectioned tissues are routinely stained with 2 dyes, hematoxylin and <span class=cloze>[...]</span> (H&amp;E).
Most sectioned tissues are routinely stained with 2 dyes, hematoxylin and <span class=cloze>eosin</span> (H&amp;E).<br>
183
Acidophilic 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"">"
184
Acidophilic 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"">"
185
Cytoplams, 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"">"
186
Cytoplams, 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"">"
187
Basophilic 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"">"
188
Basophilic 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"">"
189
The 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&amp;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&amp;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>
190
The 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"">"
191
The 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"">"
192
The 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"">"
193
The 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"">"
194
Euchromatin 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"">"
195
Euchromatin 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"">"
196
Heterochromatin 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"">"
197
Heterochromatin 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"">"
198
Ribosome 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"">"
199
Ribosome 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"">"
200
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.&nbsp;&nbsp;<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>.&nbsp;&nbsp;
"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.&nbsp;&nbsp;<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>.&nbsp;&nbsp;<br> <img src=""paste-e1878252e2d52185ac7388a74535a7638ee9b4d3.jpg"">"
201
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>[...]</span> of the cell.&nbsp;&nbsp;<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.&nbsp;&nbsp;
"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.&nbsp;&nbsp;<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.&nbsp;&nbsp;<br> <img src=""paste-e1878252e2d52185ac7388a74535a7638ee9b4d3.jpg"">"
202
The 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.&nbsp;&nbsp;<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.&nbsp;&nbsp;
"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.&nbsp;&nbsp;<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.&nbsp;&nbsp;<br> <img src=""paste-e1878252e2d52185ac7388a74535a7638ee9b4d3.jpg"">"
203
A 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"">"
204
A 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"">"
205
A 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"">"
206
A 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"">"
207
A 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"">"
208
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>[...]</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"">"
209
A 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"">"
210
A 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"">"
211
A 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"">"
212
A 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"">"
213
A 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"">"
214
When 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.&nbsp;</span><br>
215
In <b>Interphase&nbsp;<>the nucleus appears <span class=cloze>[...]</span>
"In <b>Interphase&nbsp;<>the nucleus appears <span class=cloze>normal</span><br> <img src=""paste-a88dd8d97e0a1bd6dd3f1e3a014248186928e9c7.jpg"">"
216
DNA duplicates in <span class=cloze>[...]</span> interphase (2N-&gt;4N)
"DNA duplicates in <span class=cloze>S</span> interphase (2N-&gt;4N)<br> <img src=""paste-b454c2557650bd7052ff5f2721a39bc43a9cabe8.jpg"">"
217
Copies of the chromosomes are known as <span class=cloze>[...]</span>
Copies of the chromosomes are known as <span class=cloze>chromatids</span><br>
218
Chromatids are attached by the <span class=cloze>[...]</span>
Chromatids are attached by the <span class=cloze>centromere</span><br>
219
During interphase centrioles duplicate to exist in <span class=cloze>[...]</span>
During interphase centrioles duplicate to exist in <span class=cloze>2 pairs&nbsp;</span><br>
220
Centrioles assemble the <span class=cloze>[...]</span>
Centrioles assemble the <span class=cloze>mitotic spindle</span><br>
221
There are <span class=cloze>[...]</span> phases in mitosis
There are <span class=cloze>4</span> phases in mitosis<br>
222
Mitosis consists of <span class=cloze>[...]</span>, Metaphase, Anaphase, and Telophase
Mitosis consists of <span class=cloze>Prophase</span>, Metaphase, Anaphase, and Telophase<br>
223
Mitosis consists of Prophase, Metaphase, <span class=cloze>[...]</span>, and Telophase
Mitosis consists of Prophase, Metaphase, <span class=cloze>Anaphase</span>, and Telophase<br>
224
Mitosis consists of Prophase, <span class=cloze>[...]</span>, Anaphase, and Telophase
Mitosis consists of Prophase, <span class=cloze>Metaphase</span>, Anaphase, and Telophase<br>
225
Mitosis consists of Prophase, Metaphase, Anaphase, and <span class=cloze>[...]</span>
Mitosis consists of Prophase, Metaphase, Anaphase, and <span class=cloze>Telophase</span><br>
226
In&nbsp;<b>Prophase&nbsp;<>the chromosomes <span class=cloze>[...]</span>
"In&nbsp;<b>Prophase&nbsp;<>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"">"
227
In 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"">"
228
prophase 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"">"
229
In 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"">"
230
In 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"">"
231
in 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>
232
In 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>
233
Chromosomes are karyotyped at <span class=cloze>[...]</span>
Chromosomes are karyotyped at <span class=cloze>metaphase</span><br>
234
In 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"">"
235
In 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"">"
236
In 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"">"
237
In 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"">"
238
In 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"">"
239
In 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"">"
240
In 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"">"
241
Cytokinesis 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>
242
Cytokinesis occurs by the <span class=cloze>[...]</span> of the cell at the equator by a contactile ring composed of actin/myosin filaments&nbsp;
Cytokinesis occurs by the <span class=cloze>constriction</span> of the cell at the equator by a contactile ring composed of actin/myosin filaments&nbsp;<br>
243
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>[...]</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>
244
cholcicline 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>
245
cholcicline <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>
246
A 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"">"
247
The 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>
248
The 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"">"
249
The 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"">"
250
The <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>
251
Specialized 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>
252
Cells in <span class=cloze>[...]</span> cannot divide
Cells in <span class=cloze>G0</span> cannot divide<br>
253
The <span class=cloze>[...]</span> phase of interphase is when DNA is synthesized or duplicated (2n-&gt;4n)
The <span class=cloze>S</span> phase of interphase is when DNA is synthesized or duplicated (2n-&gt;4n)<br>
254
The <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>
255
The cell membrane is <span class=cloze>[...]</span> thick
The cell membrane is <span class=cloze>7-10nm</span> thick<br>
256
The 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>
257
The 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>
258
The 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>
259
The 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.&nbsp;&nbsp;
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.&nbsp;&nbsp;<br>
260
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>[...]</span> is involved in cell support, shape, <br>movement of the cell, and movement of materials within the cell.&nbsp;&nbsp;
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.&nbsp;&nbsp;<br>
261
the 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&nbsp;</span><br>
262
the 3 types of filaments are microfilaments, <span class=cloze>[...]</span>, and intermediate filaments&nbsp;
the 3 types of filaments are microfilaments, <span class=cloze>myosin filaments</span>, and intermediate filaments&nbsp;<br>
263
the 3 types of filaments are <span class=cloze>[...]</span>, myosin filaments, and intermediate filaments&nbsp;
the 3 types of filaments are <span class=cloze>microfilaments</span>, myosin filaments, and intermediate filaments&nbsp;<br>
264
Microfilaments 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"">"
265
Myosin 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"">"
266
Myosin 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"">"
267
Intermediate filaments are important for cell <span class=cloze>[...]</span>. They are very stable&nbsp;
Intermediate filaments are important for cell <span class=cloze>support and shape</span>. They are very stable&nbsp;<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"">"
270
Mitochondria are <span class=cloze>[...]</span>, having their own DNA and RNA.&nbsp;
Mitochondria are <span class=cloze>self-replicating</span>, having their own DNA and RNA.&nbsp;<br>
271
Mitochondria are self-replicating, having their own <span class=cloze>[...]</span>.&nbsp;
Mitochondria are self-replicating, having their own <span class=cloze>DNA and RNA</span>.&nbsp;<br>
272
Mitochondria generate energy in the form of&nbsp;ATP through <span class=cloze>[...]</span>.&nbsp;
Mitochondria generate energy in the form of&nbsp;ATP through <span class=cloze>oxidative phosphorylation</span>.&nbsp;<br>
273
Metabolically <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).&nbsp;
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).&nbsp;<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>
275
Ribosomes 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"">"
276
Free 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>
278
The <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>
279
The RER is embedded with <span class=cloze>[...]</span>
"The RER is embedded with <span class=cloze>ribosomes</span><br> <img src=""paste-e88572c2ff21998abaf37f21c9368c3b4daaaa27.jpg"">"
280
The SER lacks <span class=cloze>[...]</span>
The SER lacks <span class=cloze>ribosomes</span><br>
281
The SER serves <span class=cloze>[...]</span> fucntions depending on the cell and location&nbsp;
The SER serves <span class=cloze>diverse</span> fucntions depending on the cell and location&nbsp;<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.&nbsp;&nbsp;
<span class=cloze>SER</span> plays an important role in detoxification of alcohol, drugs, and toxins in liver cells.&nbsp;&nbsp;<br>
284
The <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>
285
Proteins 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>
286
The golgi apparatus does not stain with H&amp;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&amp;E, but it often leaves a <span class=cloze>clear region</span> in protein secreting cells with a dark staining cytoplams<br>
287
The golgi apparatus <span class=cloze>[...]</span> stain with H&amp;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&amp;E, but it often leaves a clear region in protein secreting cells with a dark staining cytoplams<br>
288
The process of <span class=cloze>[...]</span>&nbsp;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>&nbsp;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>
290
Endocytosis 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&nbsp;membrane bound “bags” containing products destined for release from the cell by EXOCYTOSIS
"<span class=cloze>Secretory vescicles</span> are&nbsp;membrane bound “bags” containing products destined for release from the cell by EXOCYTOSIS<br> <img src=""paste-fe418f5df1f0e39d663e5a5508d049c5d637b8be.jpg"">"
294
Some 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"">"
295
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>[...]</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"">"
296
Some 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>
298
The 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>
299
Lysosomal 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>
300
Lysosomal 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>

504 weitere Karten in OutLearn. Ganzes Deck öffnen

Alle 804 Karten kostenlos lernen

Mehr Karteikarten

(14) Health (Part I)21 KartenSprachen · Deutsch → EnglischpmugridgeMCB Lec 1116 KartenNaturwissenschaften · EnglischLuckyStages of Plot13 KartenGeschichte und Geisteswissenschaften · EnglischHenry_LuisBill of Rights10 KartenRecht und Politik · EnglischLiamA-level Computer Science Paper 1237 KartenEnglisch—Griffith—Englisch Vokabeln: Geschichte & Gesellschaft106 KartenSprachen · Englisch → DeutschTaraHistologia: Tkanka chrzęstna i kostna77 KartenMedizin und Gesundheit · PolnischLuvenAnalytical Techniques59 KartenNaturwissenschaften · EnglischJESSQTRANadverbs48 KartenSprachen · Italienisch → EnglischmPricing and Distribution38 KartenWirtschaft · EnglischrikishakennedyMUSCULAR SYSTEM PART 231 KartenMedizin und Gesundheit · EnglischLlanceField Concrete GDOT26 KartenEnglischme

Lerne diese Decks in der App

Kostenlos auf iPhone, Android, Mac und im Web. Füge jedes Deck mit einem Tipp zu deinem Konto hinzu.

Laden im App StoreJetzt bei Google Play
Alle 804 Karten kostenlos lernen