Wayne’s Deck

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1
What are the branches of Microbiology?
Bacteriology, Immunology, Mycology, Virology, Parasitology and Phycology
2
The study of all living organisms that are too small or minute to be viewed by the unaided eye. 
Microbiology
3
Give some examples of microbes/microogranisms.
Bacteria, Viruses, Fungi, Prions, Archaea, Protozoa and Algae
4
What are the factors that decide the classification of microorganisms/microbes?
Structure, Shape, Size, Staining property, Motility, Arrangement, Nutritional and Environmental requirements, Culture media preparation, Bacterial growth and Pathogenicity.
5
What is a microbiota?
Normal flora; microbes that inhabit human organisms without causing diseases. It is the opposite of a pathogen.
6
Diseases were caused by invisible living organisms.
Lucretius with Girolamo Fracastoro, Roger Bacon and Anton van Plenciz
7
Observed bees and weevils
Francesco Stelluti
8
First true microbiologist; a dutch merchant who coined the term animalcules
Anton van Leeuwenhoek
9
Living things originate from non-living things
Spontaneous Generation or Abiogenesis Period
10
Observed boiled mutton broth that became cloudy/turbid after putting into a flask; he says that microbes developed spontaneously from fluids; <i>vital force</i>
John Needham
11
"He was the one who improved John Needham's mutton broth experiment. He did it by sealing the broth in a jar; says that air carry microbes."
Lazaro Spallanzani
12
Living cells can only arise from pre-existing living cells
Biogenesis
13
Responsible for the concept of biogenesis
Rudolf Virchow
14
Aseptic techniques to inhibit contamination
Louis Pasteur
15
Tyndallization and Sterilization; he says that dusts carry germs.
John Tyndall
16
Described endospores which has heat resistant bacterial structure
Ferdinand Cohn
17
Proper routine handwashing
Ignaz Semmelweis
18
Microorganisms cause diseases
Germ Theory of Disease
19
"<i>Germ Theory</i>; discovered anthrax bacillus, V. cholerae and Koch's bacillus; <i>Koch's Postulate</i>"
Robert Koch
20
Cell theory
Robert Hooke
21
Use of agar as solidying agent
Fanny Hesse
22
Concept of vaccination
Edward Jenner
23
<i>Father of Antibiotics</i>; streptomyocin and neomyocin
Selman Waksman
24
Salvarsan (<i>arsphenamine)</i>&nbsp;for Syphilis treatment
Paul Ehrlich
25
"Host-dependent; can't survive without a host cell"
Acellular Microorganisms e.g. Virus
26
Define bacterial cytology.
Water - 70 percent<div>Carbohydrates, Proteins, Lipids and Enzymes - 30 percent</div>
27
<i>Metabolism</i>; Aerobic process by which bacteria catabolize carbohydrates to produce energy
Fermentation
28
<i>Metabolism</i>; process by which obligate aerobes and facultative anaerobes generate energy.
Respiration (Oxidation)
29
Inventor of ultracentrifuge; contribute ribosomal subunit.
Theodor Svedberg
30
Define the cell wall of a Prokaryote.
Peptidoglycan/murein/mucopeptide layer composed of alternating backbone: <i>N-acetyl glucosamine (NAG)</i> and <i>N-acetyl muramic acid (NAM).</i>
31
Define the cell wall of a Eukaryote.
Animal/Protozoa - No cell wall<div>Plants/Algae - composed of <i>Cellulose and Glycan</i>; for Fungi - <i>Glycan, Mannan and Chitin</i></div>
32
Differentiate the size of prokaryotes and eukaryotes
Prokaryote - 70 s; 50 s and 30 s upon sedimentation<div>Eukaryote - 80 s; 40 s and 60 s upon sedimentation</div>
33
What are the functions of a cell wall?
1. Gives shape and rigidity<div>2. Responsible for antigenic property (serotyping)</div><div>3. Pathogenicity (M protein and Mycolic acid)</div><div>4. Responsible for staining property</div>
34
Three main parts of bacteria
1. Cell Wall<div>2. Parts Internal to the Cell Wall</div><div>3. Parts External to the Cell Wall</div>
35
Define nuclear body of prokaryotes and eukaryotes.
Prokaryote - plasmids; small, single, circular chromosomes of double stranded DNA arranged in circular pattern located in the nucleoid except <i>Borrelia burgdorferi</i>&nbsp;(linear pattern)<div>Eukaryote - DNA, linear pattern</div>
36
Define the process of phagocytosis.
Initiation<div>Chemotaxis</div><div>Engulfment</div><div>Digestion</div>
37
Antigen for Serotyping: Somatic O Antigen
Presence of cell wall
38
Somatic O Antigen: Examples
<div>A. E. coli - 181 O Ag</div><div>1. E.coli O157:H7 - <i>Enterohemorraghic E. coli</i> causing Hemorrhagic colitis or Hemolytic Uremic Syndrome</div><div>2. E. coli O111:B4 - <i>Enteropathogenic E. coli</i>&nbsp;causing Infantile Diarrhea</div><div>B. Salmonella - &gt; 250 O Ag</div><div>C. Shigella - A, B, C and D</div><div><br></div>
39
Examples of bacteria with M Protein
Streptococcus pyogenes
40
To identify acid fast organisms;an example is Mycobacterium tuberculosis; resist digestion
Mycolic Acid/Hydroxymethoxy Acid
41
Most commonly used differential staining technique.
Gram Staining
42
Who discovered Gram Staining?
Hans Christian Gram
43
"Species that exemplify Gram's Variable (seen as G+ or G-)"
Mobiluncus spp.; found in human vagina in association with <i>Gardenella vaginalis</i> causing bacterial vaginosis.
44
"Factor's Affecting Gram's Variable"
1. &gt; 24 hours of culture used<div>2. pH of the reagent used</div><div>3. Expiration date</div><div>4. Time</div><div>a. Over decolorization - G+ turns G-</div><div>b. Under decolorization - G- turns G+</div>
45
<div>What are the four steps of gram staining and its function?</div>
1. Primary Dye - to stain<div>2. Mordant - accentuator</div><div>3. Decolorizer - differentiation</div><div>4. Secondary dye - counter stain</div>
46
What are the gram stain reagents in each step?
"1. Crystal Violet<div>2. Gram's Iodine</div><div>3. Acetone +95% Ethanol</div><div>4. Safranin O/ Safranin Red</div>"
47
Differentiate G+ and G- Bacteria per each gram staining step.
1. Purple - Purple<div>2. Purple - Purple</div><div>3. Purple - Colorless</div><div>4. Purple - Red/Pink</div>
48
Used to differentiate AFO and NAFO
Acid Fast Staining Procedure
49
Colors of G+ and G- under microscope
G + is violet/purple<div>G - is red/pink</div>
50
Gram Stain General Rules
1. All cocci are G +<div>2. All bacilli are G -</div><div>3. Mycobacterium tuberculosis are expected as gram-positive, but in actual staining, it is gram ghostram neutral.</div><div>4. Spirals/Spirochetes are not stainable using gram staining, but, some are gram negative.</div><div>5. Mycoplasma and Ureaplasma lacks cell wall; stained as gram negative.</div><div>6. Yeasts are gram positive.</div>
51
Exception of Gram Stain Rule 1
<i>Neisseria, Veilonella, Branhamella/Moraxella </i>which are G -
52
Exception of Gram Stain Rule 2
<i>Bacillus, Clostridium, Corynebacterium, Lactobacillus, Listeria, Erysipelothrix, Aerobic Actinomyces, Arcanobacterium, Gordonia, Rothia, Kurthia, Bifidobacterium, Propionibacterium, Fungus-like Nocardia, Rhodoccocus, Tsukamurella</i>
53
Two General Methods of AFS
"1. Ziehl-Neelsen/HOT method (ZN)<div>2. Kinyoun's/COLD method (K)</div>"
54
AFS Reagents
1. Carbon Fuchsin - Fuchsia dye;partnered with 3-5% phenols and carboxylic acid.<div>a. ZN/HOT - 3g CF + 5% phenol</div><div>b. K/COLD - 4g CF + 9% phenols</div><div>2. ZN - Heat and K - Tergitol</div><div>3. ZN and K - Acid Alcohol</div><div>4. ZN and K - Methylene Blue (Most Common in PH) and Malachite Green</div>
55
Differentiate colors of AFO and NAFO.
1. Red - Red<div>2. Red - Red</div><div>3. Red - Colorless</div><div>4. Red - Blue/Green</div>
56
What is the reason behind the serpentine cord structure of Mycobacterium tuberculosis?
"Cord factor; Trehalose 6,6'-dimycolate"
57
Appears red bacilli against bluereen background.
Mycobacterium tuberculosis
58
Tap water bacillus; non-pathogenic; <i>false postive staining reaction</i>
Mycobacterium gordonae
59
Transfer of DNA from one bacterial cell to another
Conjugation
60
AFO with Mycolic Acid
1. Legionella micdadei<div>2. Rhodococcus</div><div>3. Nocardia</div><div>4. Cryptosporidium parvum (parasite)</div><div>5. Isospera belli (parasite)</div>
61
Point of attachment for chromosomes during conjugation
Mesosomes
62
Food and nutrient storageeserve
Inclusion bodies
63
Three polyphosphate granules in inclusion bodies
1. Much granules - <i>Mycobacterium tuberculosis</i>; increased lipid<div>2. Bipolar bodies - <i>Yersinia pestis</i>; Wayson stain: red, safety pin</div><div>3. Babes-ernst/Volutin/Metachromatic granules - <i>Cryobacterium diphtheriae</i></div>
64
For bacterial survivability, resting/hybernating stage once exposed to unfavorable condition.
Endospores/Bacterial Spores
65
Component of endospores
Dipicolinic acid and Calcium ions or known as Calcium Dipicolinate Complex
66
General Rule for Endospores:
All are round/oval/centrally-located, subterminally-located.
67
Exception for Endospores Rules:
1. Clostridium tetani - terminally-located; also known as tennis bracket, lollipop, drumstick bacillus<div>2. Clostridium botulinum - subterminally located</div><div>3. Bacillus anthracis - centrally located</div>
68
Gram positive bacilli; sporulates aerobically (catalase postive)
Bacillus
69
Gram negative bacilli; sporulates anaerobically (catalase negative)
Clostridium
70
Antigen in Flagella: Serotyping
H. Antigen in <i>Y. pestis, E. coli and Salmonella</i>
71
Flagella protein
Flagellin
72
Pili protein
Pilin
73
No flagella
Atrichous
74
Flagella on single side (darting motility) ex. Vibrio
Monotrichous
75
Single flagella on both side
Amphitrichous
76
Tuft of flagella on one side
Lophotrichous
77
Bilophotrichous
Tuft of flagella on both side
78
Type of Pili; attachment of bacteria to host cell; <i>many and shorter</i>
Somatic/Ordinary/Common
79
Type of Pili; bacterial conjugation, <i>one only and longer</i>
Sex/fertility
80
For protection and regulation; externally located
Glycocalyx
81
organized material; firmly attached to cell wall; inhibit phagocytosis causing <i>Meningitis</i>&nbsp;because it can cross blood brain barrier.
Capsule
82
Flagella all over the bacterium; <i>enterobacteriaceae</i> except <i>Klebsiella and Shigella</i>&nbsp;which are non motile
Peritrichous
83
Antigen on Capsule: Serotyping
K Antigen; same as Vi Ag or Virulent Antigen for Salmonella
84
Unorganized material; not firmly attached to cell wall; inhibit phagocytosis
Slime layer
85
Normal flora of skin; opportunistic pathogen in wound infection for open heart surgery, has slime layer glycocalyx
Staphylococcus epidermidis
86
Swelling in capsule glycocalyx
Quellung reaction
87
Five Bacteria with Capsule
1. Neisseria meningitidis<div>2. Haemophilus influenzar</div><div>3. Klebsiella pneumoniae</div><div>4. Streptococcus pneomoniae</div><div>All has polysachharide capsule</div><div>5. Bacillus anthracis - polypeptide D-glutamic acid capsule</div>
88
Shapes of bacteria
Cocci, Bacilli, Hellical/Twisted
89
One plane division; arrangement when cocci divide and remain together
Cocci in pairs/diplococci
90
Examples of kidney/coffee bean-shaped cocci
1. Neisseria<div>2. Branhamella/Moraxella</div><div>except:</div><div><i>Neisseria elongata, Neisseria bacilliformis and Neisseria weaveri</i> (bacillus)</div>
91
Example of flame/lancet-shaped
<i>Streptococcus pneumoniae</i>
92
Two planes&nbsp;of division e.g. <i>Micrococcus tetragenus</i>
Packets of four/tetrads/square groups of four cells.
93
Three planes of division e.g. <i>Micrococcus luteus</i>
Packets of eight/cubical/sarcina/sarcinae
94
One plane of division; <i>continuously dividing</i>; cells adhere after repeated division in one plane
Cocci in chain/streptococcus
95
Three or more planes of division; irregular pattern, random planes
Cluster of cocci/staphylococcus
96
Bacilli arrangement of&nbsp;<i>Enterobacteriaceae family</i>
Short plump/stout/small coccobacilli
97
Bacilli arrangement of Bacillus anthracis
large square cut ends chain sporulated
98
Bacilli arrangement of <i>Haemophilus ducreyl</i>
School of fish pattern, small, short bacilli
99
Bacilli arrangement of <i>Bacteroides</i> (anaerobe)
Large rounded end chains non-sporeforming bacilli
100
Bacilli arranged in chain
Streptobacilli
101
Bacilli arrangement of Corynebacterium diphtheriae; <i>pleomorphic</i>&nbsp;because of irregularity
Chinese letter or cuneiform (V-shaped) also known as club-shaped, fence stick, barbed, cigar packed, pallisade
102
Bacilli arrangement of <i>Vibrio</i>
Curved, comma-shaped, small
103
Bacilli arrangement of <b>CHA<> (C<i>ampylobacter, Helicobacter and Arcobacter</i>) which are <i>microaerophilic bacteria (requires 2-10 percent of oxygen)</i>
Curved shaped, S-shaped, C-shaped or Sea gull wing
104
Arrangement of Spirillum minor/minos
Spirals
105
Spirochetes; loosely twisted
Borellia
106
Spirochetes; tightly twisted like corkscrew
Treponema
107
Spirochetes; tightly twisted but one/two ends bend into a hook&nbsp;
Leptospira; e.g.&nbsp;<i>Leptospira interogans</i>&nbsp;<div>Causative agent of Leptospirosis</div>
108
Special/Selective Stain for Cell Wall
Dyar, Dienes, Victoria blue dye
109
Special/Selective Stain for Capsule
Welch, Anthony, Gin, Tyler, Muir, HIS Stain
110
Special/Selective Stain for Spores
Schaeffer-fulton, Dorner, Wirtz-conklin
111
Special/Selective Stain for Spirochetes
Fontana Tribondeau, Levaditi Silver Impregnation, India Ink, Warthin-starry
112
Special/Selective Stain for Flagella
Leifson, Gray, Fisher and Conn; in which three have <i>tannic acid</i> that <i>coats, swell, precipitate </i>flagella
113
Special/Selective Stain for Metachromatic granules
"Ljubinsky, LAMB (Loeffler's Alkaline Methylene Blue), Albert, Neisser, Burke's and Lindergran"
114
Special/Selective Stain for Nucleic Acid
Feulgen, Acridine Orange
115
Special/Selective Stain for Polar Bodies
Wayson
116
Special/Selective Stain for Rickettsia
Gimenez stain and Macchiavello stain
117
Special/Selective Stain for Legionella
Dieterle Silver Stain
118
Special/Selective Stain for <i>Mycobacterium leprae</i>
Fire-Faraco
119
Special/Selective Stain for Mycoplasma
"Diene's Stain"
120
Special/Selective Stain for Negri bodies
"Seller's Stain"
121
Staining in which the purpose is to withstand heat-fixing; chromogen is acidic (-) which repels chromogen (-) resulting for the <i>bacterial cell to remain unstained in colored background.</i>
Indirect/Negative/Relief Stain
122
Black background and capsule is unstained
Nigrosin and India Ink
123
Purple background and unstained capsule
"Anthony's Stain"
124
Single/only one stain in bacterial smear.<div>e.g. Crystal Violet, Gentian Violet, Eosin, Methylene Blue and Malachite Green</div>
Direct/Simple Stain
125
"Two/more stains to divide/differentiate bacteria into groups e.g Gram Stain, AFS, Baumgarten and Pappenheim's Stain"
Differential stain
126
"Differentiate Baumgarten and Pappenheim's Stain"
"<b style="""">B<>aumgarten - <i>M. tuberculosis</i> (<b style="""">B<>lue) or <i>M. leprae</i> (Red); causative agent of leprosy or Hansen's Disease<div>Pappenheim's Stain - <i>M. tuberculosis</i><b style=""font-style: italic;"">&nbsp;<>(Red) or <i>M. lacticola </i>(Blue); formerly known as M. smegmatis, an opportunistic bacteria sa mga bagong tuli</div>"
127
Three phenotypic characterization (CAB)
1. Cultural/Colonial<div>2. Antigenic Determination</div><div>3. Biochemical Reaction</div>
128
Employs molecular and more specific immunological techniques; not routinely used and involves PCR.
Genotypic characterization
129
Uses standard McFarland (turbidity)
Animal inoculation
130
Test for motility; specimen in a drop of water on a microscopic slide and cover it with a glass slip; little illumination as possible and viewing must be done quickly due to drying. <i>True motility is seen in independent darting movement.</i>
Wet mount preparation
131
Same as wet mount preperation but with an addition of 2 to 3 drops of petroleum jolly in the inoculum. As little illumination as possible, but may be viewed longer due to airtight seal of petroleum jelly which slows down the process of dying.
Hanging drop technique
132
Differentiate Brownian motion and true motility.
Brownian motion - collisions of water molecules (seen in LPO)<div><div>True motility - independent movement over greater distances; uni-directional (seen in HPO)</div></div><div>Thus, to see motility, LPO first then HPO.</div>
133
Bacteria showing darting motility as true motility
Vibrio
134
Bacteria showing tumbling motility as true motility
Listeria monocytogenes
135
Bacteria showing gliding motility as true motility.
Capnocytophaga
136
Why does SIM must be incubated at room temperature?
To avoid false negative result because for some organisms, human temperature is inhibitory like in the case of <i>Y. pestis</i>.
137
Semi-solid culture medium; contains 0.5-1% of agar; gelatin-like; used to motility, sulfur reduction or hydrogen sulfide and indole production.
Sulfide Indole Motility
138
True motility for SIM
Bacterial growth pattern away from stab line or haziness and turbidity in the medium (top of medium is cloudy)
139
Describes similarity or dissimilarity of genes at an allelic position on homologous chromosome; relating to antigen strength.
Zygosity
140
Term used for stronger expression of genes
Dosage
141
Antigens that elicits an immune response.
Immunogen
142
Large, molecular, weight proteins or polysaccharides that bind to an antibody or T-cell receptor; located in surfaces of the cell membrane
Antigens
143
Occurence of antigens
in vivo - within the circulation<div>in vitro - laboratory setting</div>
144
Antigens that do not originate from the self (recepient) but from the same specie (donor).
Allogeneic Antigen
145
Antigens that originate from same individual; self antigen; may cause immune response e.g. autoimmune diseases
Autologous Antigen
146
Immune cells that once exposed to antigens, and presented it to T cells becomes plasma cells and releases antibodies to bind with antigen that elicit the immune response.
B Lymphocytes or B cells
147
"Immune cells that releases <i>cytokines</i>&nbsp;to signal B cells' transformation to plasma cells.&nbsp;"
T Lymphocytes or T cells
148
Immune cells recognized as memory cells which respond during antigen re-exposure.&nbsp;
B Lymphocytes or B Cells
149
Antigenic determinants; elicit antibody production after interacting to specific B cell receptors
Epitopes
150
Two common function of antibodies
(1) Combine with antigen and (2) mediate various biological effects.
151
What are the five antibodies? (MAGED)
IgM, IgA, IgG, IgE, IgD&nbsp;
152
What are the two antibodies significant in blood banking?
IgG and IgM; IgA may also be included but rarely encountered
153
"Antibodies which react at 37<span style=""color: rgb(32, 33, 36);"">°C (human temperature) causing transfusion reactions/anemia and its isotopes are capable of destroying transfused Ag-positive red blood cells</span>"
IgG
154
"Antibodies which are not clinically significant but naturally occuring and reacts at 22<span style=""color: rgb(32, 33, 36);"">°C; its isotopes are produces in response to naturally occuring antigens (intestinal flora and pollen grains)</span>"
IgM
155
Antigen binding site or region
Fab fragment
156
Immune cells binding site in order to assist for phagocytosis
Fc Fragment
157
Phagocytosis of red blood cells once pass through the liver or spleen
Extravascular Hemolysis
158
Produced after exposure to genetically different or non-self red blood cell antigens after transfusion
Alloantibodies
159
Produced in response to self antigens
Autoantibodies
160
Drank blood of three young men; first blood transfusion, all men died
Pope Innocent VIII; 1942
161
Discovered the circulatory system in his book <i>Du Motu Cordis</i>
William Harvey; 1628
162
Successfully transfused blood from one dog to another
Richard Lower; 1656
163
First animal to human transfusion; thinks that animal blood is more pure than that of human; did it by transfusing 9 ounces of blood to treat a 16 year old boy and 3 ounces of human blood was transfused to the lamb.&nbsp;
Jean Baptiste Denis; June 1667
164
Mad man who was involved in the first malpractice of blood transfusion done by Jean Baptiste Denis; calf blood was used, survived the first transfusion, died on the second resulting to 150 years of blood transfusion ban in Europe.
Antoine Mauroy; June 1667
165
Father of american surgery; first human-to-human transfusion but not published
Philip Syng Physick; 1795
166
He said that donor and recepient must be of the same specie.
John Henry Leacock; 1861
167
"Successfully transfused the husband's blood to a woman who is dying from postpartum hemorrhage.&nbsp; 4 ounces of blood from arm using a syringe; did 10 and 5 was proven beneficial."
James Blundell; 1818
168
Two contributors in understanding blood incompatibility
Emil Ponfick and Leonard Landois
169
Transfer of blood from one specie to another
Xenotransfusion
170
Discovered transfusion reaction; observed red cell lysis from a woman who received blood from a sheep; hemorrhage affects liver and lungs
Emil Ponfick
171
Discovered that human red cells would lyse when mixed in vitro with sera of other animals; pioneered agglutination which is the reason for conducting cross matching.
Leondard Landois
172
Discovered ABO Blood Groups
Karl Landsteiner; 1901
173
Developed Syringe Valve Apparatus
Unger
174
Carried out vein-to-vein transfusion of blood using multiple syringe and special cannula which was proven to be time consuming, complicated and requires many resources.
Edward Lindemann
175
Blood Bank System Development; Director of First American Red Cross at 1941 at Presbyterian Hospital. Part of the pilot program for American Red Cross
Dr. Charles Drew; WWII
176
Tried glucose as preservative and introduces citrate-dextrose solution
Rous and Turner; 1916
177
Introduced acid citrate dextrose
Loutit and Mollison; 1943
178
Introduces citrate-phosphate dextrose; less acidic and now the standard preservative
Gibson; 1957
179
Normal life span of RBC in circulation
120 days
180
Three important areas in RBC biology and preservation
1. Chemical composition and structure of RBC<div>2. Hemoglobin structure and function</div><div>3. RBC metabolism</div>
181
Ratio of CHON, Sterols, and CHO in RBC membrane
52:40:8
182
Three important RBC characteristics
1. Deformability<div>2. Permeability</div><div>3. Flexibility</div>
183
Gives the red blood cell shape and resillence
membrane skeleton and lipid bilayer
184
Differentiate external and internal layer of RBC membrane
External - rich in phospholipids and glycolipids<div>Internal - rich in aminophospholipids</div>
185
Principle in decrease RBC viability due to less deformability
<b>ATP decreases<> -&gt; <b>decreased <i>spectrin</i><><i> </i>which stabilize RBC cell membrane and shape and<b> increased calcium <i>deposition</i><><i> </i>resulting to increase membrane rigidness and loss of pliability -&gt; red blood cell destruction/extravascular hemolysis (through spleen) (reduced RBC viability)
186
Where are rigid red blood cells destroyed?
Sinusoidal Orifices of the Spleen
187
Commonly seen anomalies in RBC removed by Spleen
Bite cells and Spherocytes
188
Prevents colloid hemolysis and control the volume of the RBC.
Permeability properties of RBC
189
Internal to external ratio of sodium in RBC
1:12
190
Internal to external ratio of Potassium in RBC
25:1&nbsp;
191
Calcium binding protein that controls excessive intracellular calcium levels through Calcium ATPase Pumps
Calmodulin
192
What happens with ATP in RBC decreases?
Entry of Calcium and Sodium level increases, Potassium and Water decreases and goes to the extracellular compartment resulting into dehydrated and less flexible RBC which are destroyed by Spleen through extravascular hemolysis.
193
Source of energy of RBC
Glucose metabolism
194
Why are RBC anaerobic?
Lack of nucleus and mitochondria leading to non-oxidative metabolism
195
True or False: RBC delivers oxygen and do not consume it.
True
196
Supplies 90% of RBC energy and functions to reduce methemoglobin and 2,3-DPG production.
Anaerobic glycolytic pathway
197
Supplies 10% of energy in RBC and NADPH.
Pentose Phosphate Pathway
198
Keeps glutathione in its reduced state to prevent RBC destruction.
NADPH
199
Maintains iron in its ferrous state.
Methemoglobin Reductase Pathway
200
"controls hemoglobin's affinity to oxygen"
2,3-DPG
201
"Explain Hemoglobin Dissociation Curve.<img src=""o2-dissociation-curve-labeled.jpg"">"
<b>Normal 7.4<> - For example, in the lungs, the pressure is at 100mmHg and HgB is at 100% of Oxygen. Travelling into the tissues, where pressure is at 40mmHg (vein tension) HgB will give off 25% of Oxygen, leaving HgB with 75%.<div><b>Left Shift 7.6<> - Decreased 2,3-DPG, Increased HgB to O2 affinity resulting to decreased O2 tissue delivery meaning RBC becomes less sufficient. Only 12% of RBC is released in the tissues.</div><div><b>Right Shift 7.2<> - Increased 2,3-DPG, Decreased HgB to O2 affinity resulting to increased O2 tissue delivery,</div>
202
Temperature to maintain optimum blood viability.
"1<span style=""color: rgb(32, 33, 36);"">°C to 6</span><span style=""color: rgb(32, 33, 36);"">°C; liquid state</span>"
203
How many RBC survive/maintain viability after the average 24 hour post blood transfusion?
75% of RBC
204
"<img src=""1.png""><div>Memorize Mo 'To!</div>"
205
What are the four approved anticoagulant preservative solutions?
1. Acid citrate-dextrose - 21 days<div>2. Citrate-phosphate dextrose - 21 days</div><div>3. Citrate-phosphate-double-dextrose - 21 days</div><div>4. Citrate-phosphate-dextrose-adenine - 35 days because of Adenine; resulting to increased ATP longer and RBC survivability.</div>
206
Preserving solutions that are added to the RBC after removal of plasma with or without platelets
Additive Solutions
207
What are the three licensed additive solutions?
1.<b> Adsol<> - mannitol; 42 days<div>2. <b>Nutricel<> - citrate and phosphate; 42 days</div><div>3. <b>Optisol<> - mannitol; 42 days</div><div>All three contains: <b>Saline, Adenine and Glucose<> to replace anticoagulant properties that were removed during plasma extraction.</div>
208
Aside from nourishment and anticoagulation, what are the benefits of adding additive solutions?
1. Extends shelf-life of RBC to 42 days<div>2. Harvest more plasma and platelets from blood unit</div><div>3. Lowers RBC viscocity</div>
209
Cyroprotective agent that protects the cell by adding the agent slowly with vigorous shaking since RBC membrane is permeable.
Glycerol; penetrates the RBC
210
Storage temperature for red blood cell freezing.
"Increased glycerol concentration - -65<span style=""color: rgb(32, 33, 36);"">°C</span><div><span style=""color: rgb(32, 33, 36);"">Decreased glycerol concentration - -120</span><span style=""color: rgb(32, 33, 36);"">°C</span></div>"
211
Storage life of frozen RBC
10 years after freezing
212
What is the purpose of RBC freezing?
1. for Autologous units; blood donation for own use.<div>2. for rare blood types; to prevent difficulty in finding a donor.</div>
213
"<img src=""2.png""><div>Memorize Mo 'To!</div>"
214
Process by which ATP and 2,3-DPG levels are restored or enhanced by metabolic alterations.
RBC Rejuvenation
215
How long does rejuvenation work?
At expiration or 3 days after outdate
216
Explain process of RBC Rejuvenation
"Incubate RBC with <b>50mL Rejuvasol<> for <b>1 hour at 37<><span style=""color: rgb(32, 33, 36);""><b>°C<>, once finished, wash sample to remove rejuvenation solution. <b>Blood is ready for transfusion within 24 hours.<></span>"
217
What are the contents of rejuvenation agentejuvasol.
Phosphate<div>Inosine</div><div>Pyruvate</div><div>Adenine</div>
218
Cellular fragments derived from the cytoplasm of megakaryocytes present in the bone marrow
Platelets
219
Normal count of platelets
"150,000 to 350,000 per&nbsp;<span style=""color: rgb(32, 33, 36);"">μL (microliter)</span>"
220
Platelet storage temperature and days
"20<span style=""color: rgb(32, 33, 36);"">°C to 24</span><span style=""color: rgb(32, 33, 36);"">°C for 5 days with continuous agitation</span>"
221
Platelet release and circulation.
9 to 12 days
222
Average diameter of platelets
"2 to 4&nbsp;<span style=""color: rgb(32, 33, 36);"">μm</span>"
223
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Lactate Dehydrogenase<ul><li>increased levels are seen in<ul><li>Lactate Dehydrogenase Isoenzyme<ul><li>LD- 3 (HHMM)<ul><li>related disorder</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Pulmonary embolism</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Pulmonary pneumonia</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Lymphocytosis</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Acute pancreatitis</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Carcinoma</li> </div><l>"
224
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Lactate Dehydrogenase<ul><li>increased levels are seen in<ul><li>Lactate Dehydrogenase Isoenzyme<ul><li><b>Lactate dehydrogenase Electrophoresis<> <img src=""%LOCAL_FILE%C4ofvOcM-8mCx9wYXvriLagNKtZ7JDdFvsFdUwlZWcVYIDVGEt0x7yyAqGCj7x9RdPvPWzeQn5-jP6aMlV-9VZQcMvlliXOo-FO9oM8pYVGcCXQiLmZNyXEEHx33ltPb.png"" width=""123"" height=""110""/><ul><li>occurs in</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
AMI, Intravascular hemolysis, Hemolyzed specimen
225
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li><b>General Properties of Enzymes <><ul><li>enzyme classification</li><l></li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""4"" isListItem=""true"" > <li>Oxidoreductase</li> </div><ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Catalyzes the REDOX reaction Between two substances;</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>examples:: Lactate Dehydrogenase, Glucose-6-Phosphate Dehydrogenase </li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li><i>There is a removal of electrons on the substrate and being transferred to anothe</i>r</li> </div><l><div rem=""true"" crt=""null"" tags=""[]"" valueType=""4"" isListItem=""true"" > <li>Transferase</li> </div><ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Catalyzes the transfer of a group other than hydrogen Ion;</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>examples:: ALT, AST, GGT, CK</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li><i>Removal of groups on the substrate then transferred to another</i></li> </div><l><div rem=""true"" crt=""null"" tags=""[]"" valueType=""4"" isListItem=""true"" > <li>Hydrolase</li> </div><ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Catalyze hydrolysis of bonds</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li><i> Splitting of substrate involving water</i></li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""4"" isListItem=""true"" > <li>types</li> </div><ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Esterases:: ALP, ACP, Cholenesterase, Lipase</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Peptidase:: Trypsin, Pepsin, Leucine Amino Peptidase</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Glycosidase:: Amylase, Galactosidase</li> </div><l><l><div rem=""true"" crt=""null"" tags=""[]"" valueType=""4"" isListItem=""true"" > <li>Lyases</li> </div><ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Catalyzes removal of groups of substrate without hydrolysis</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>examples:: Aldolase, Pyruvate decarboxylase, Glutamate Decarboxylase, Tryptophan Decarboxylase</li> </div><l><div rem=""true"" crt=""null"" tags=""[]"" valueType=""4"" isListItem=""true"" > <li>Isomerase</li> </div><ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Catalyzes the interconversion of Geometric, Optic, or Positional Isomers;</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>examples:: Triosphosphate isomerase, Ribose phosphate isomerase, Glucose phosphate isomerase</li> </div><l><div rem=""true"" crt=""null"" tags=""[]"" valueType=""4"" isListItem=""true"" > <li>Ligase</li> </div><ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Catalyzes the Joining of two substrate molecules</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>examples:: Glutathione synthase</li> </div><l><l>"
226
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Amylase<ul><li>Isoenzymes<ul><li>P-type or {{(Amylopsin)}}</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Derived from pancreatic tissue</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Pancreatic isoenzyme, migrates more slowly</li> </div><l>"
227
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Amylase<ul><li>other elevations are seen in<ul><li>example</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Peptic ulcer, Intestinal obstruction, cholecystitis, acute Appendicitis
228
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Creatinine Kinase<ul><li>Reference values<ul><li>female</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
15-130 U/L (37 degrees Celsius)
229
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Other Important Enzymes<ul><li>Pseudocholinesterase(PChE)<ul><li>tissue source</li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Liver, myocardium, and pancreas
230
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Prostatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Acid phosphatase/ Acis Orthophosphoric Monoester Phosphohydrolase<ul><li>Reference value:<ul><li>male</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
2.5-11.7 U/L (Total ACP) 0- 3.5 ng/mL (Prostatic ACP)
231
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Creatinine Kinase<ul><li>Isoenzymes<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
CK-3 (CK-MM) Muscle Type
232
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Amylase<ul><li>Amylase levels during acute pancreatitis (earliest pancreatic marker)<ul><li>rise</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
2-12 Hours
233
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Creatinine Kinase<ul><li>Isoenzymes<ul><li><b style=""color: lightblue;""> [ ... ] <> :: Must not be found in in blood but it may be normally present in neonatal sera</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
CK-1 (CK-BB) Brain Type
234
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Creatinine Kinase<ul><li>Isoenzymes<ul><li><b style=""color: lightblue;""> [ ... ] <> <ul><li>increase in:: CNS shock, Seizure, Lung and Gastrointestinal Diseases </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
CK-1 (CK-BB) Brain Type
235
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Liver Enzymes<ul><li>Clinically significant Enzymes<ul><li>Alkaline phosphatase (ALP)<ul><li><b> Abnormal Fractions of ALP (“Carcinoplacental ALPs”) <><ul><li>Isoenzymes<ul><li>Regan<ul><li>condition</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
malignancy
236
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Creatinine Kinase<ul><li>Oliver-Rosalki<ul><li>pH= { ... }</li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"pH= <b style=""color: lightblue;"">{{6.8}}<>"
237
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Lipase<ul><li><b style=""color: lightblue;""> [ ... ] <> <ul><li>peak:: 24 hours </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
During acute pancreatitis
238
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Lactate Dehydrogenase<ul><li>increased levels are seen in<ul><li>Lactate Dehydrogenase Isoenzyme<ul><li><b>Lactate dehydrogenase Electrophoresis<> <img src=""%LOCAL_FILE%C4ofvOcM-8mCx9wYXvriLagNKtZ7JDdFvsFdUwlZWcVYIDVGEt0x7yyAqGCj7x9RdPvPWzeQn5-jP6aMlV-9VZQcMvlliXOo-FO9oM8pYVGcCXQiLmZNyXEEHx33ltPb.png"" width=""123"" height=""110""/><ul><li>reference range</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
100-125 U/L (37 degrees Celsius)
239
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li><b style=""color: lightblue;""> [ ... ] <> <ul><li>highest activity in:: cardiac, liver, and skeletal muscle</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Aspartate Aminotransferase
240
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li><b>Lipase<><ul><li>Determination of Lipase enzyme<ul><li><b>Tietz and Fiereck<><ul><li>Peroxidase coupling</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
most commonly used method
241
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li><b style=""color: lightblue;""> [ ... ] <> <ul><li>reference value:: 5-37 U/L on other reference 5-30 U/L (37 degrees Celsius)</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Aspartate Aminotransferase
242
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Creatinine Kinase<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l>"
Tanzer-Gilbarg
243
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Acid Phosphatase<ul><li>Summary of ACP Methods<ul><li>Babson, Read and Philips<ul><li>substrate</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Alpha naphtyl PO4
244
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Liver Enzymes<ul><li>Clinically significant Enzymes<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Alkaline phosphatase (ALP)
245
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li>Measurement of Enzyme Activity<ul><li><b> Catalytic Mechanism of Enzymes <><ul><li>Energy vs. progression of reaction, indicating energy barrier that substrate must surpass to react with and without enzyme catalysis<ul><li><b style=""color: lightblue;""> [ ... ] <> :: Used to measure many non-enzymatic constituents in serum </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Enzymes as Reagents
246
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li>Functions of Enzymes</li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Hydration of carbon dioxide</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Nerve induction</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Muscle contraction</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Nutrients degradation</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Growth and reproduction</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Energy storage and use</li> </div><l>"
247
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Amylase<ul><li>Amyloclastic (iodometric)<ul><li>substrate</li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Starch molecule with iodine
248
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Liver Enzymes<ul><li>Clinically significant Enzymes<ul><li>Alkaline phosphatase (ALP)<ul><li>Isoenzymes<ul><li><b style=""color: lightblue;""> [ ... ] <> :: Increased in GIT Disorders</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Intestinal ALP
249
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Aspartate Aminotransferase<ul><li>Karmen Method<ul><li>pH= { ... } to { ... }</li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"pH= <b style=""color: lightblue;"">{{7.3}}<> to <b style=""color: lightblue;"">{{7.8 }}<>"
250
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li><b>General Properties of Enzymes <><ul><li>enzyme classification<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Transferase
251
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Amylase<ul><li>Amylase levels during acute pancreatitis (earliest pancreatic marker)<ul><li>normalize</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
3-5 days
252
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Creatinine Kinase<ul><li>other variants of creatinine kinase<ul><li><b style=""color: lightblue;""> [ ... ] <> :: Computed to know the possible release of CK-MB from non-cardiac tissue when CK is very high</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
CK relative Index (CKI)
253
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li><b>General Properties of Enzymes <><ul><li>enzyme classification<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Lyases
254
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Alkaline phosphatase<ul><li><b>Chemical Inhibition <><ul><li><b style=""color: lightblue;""> [ ... ] <> :: Inhibits Bone</li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
3M Urea (Synthetic Urea)
255
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Acid Phosphatase<ul><li>Summary of ACP Methods<ul><li><b style=""color: lightblue;""> [ ... ] <> <ul><li>substrate:: Phenyl Po4 </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Gutman and Gutman
256
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Other Important Enzymes<ul><li>Pseudocholinesterase(PChE)<ul><li>reference value</li><l></li><l></li><l></li><l></li><l></li><l></li><l>
0.5-1.3 pH units (plasma)
257
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Amylase<ul><li>Isoenzymes</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"<ol><div rem=""true"" crt=""null"" tags=""[]"" valueType=""4"" isListItem=""true"" > <li>P-type or {{(Amylopsin)}}</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""4"" isListItem=""true"" > <li>S- type or {{(Thyalin)}}</li> </div></ol>"
258
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li>Measurement of Enzyme Activity<ul><li><b>general methods of measuring enzymatic reactions<><ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Continuous Time
259
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Lactate Dehydrogenase<ul><li>increased levels are seen in</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Cardiac Disease</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Hepatic Disease</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Skeletal Disease</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Renal Disease</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>5X increase in {{<b>megaloblastic anemia<>}}</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Highest levels are seen in {{<b>pernicious anemia<>}} and {{<b>hemolytic disorders<>}}</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Marked elevations are also seen in acute lymphoblastic leukemia</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Also a marker for AMI</li> </div><l>"
260
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Liver Enzymes<ul><li>Clinically significant Enzymes<ul><li>Alkaline phosphatase (ALP)<ul><li><b> Abnormal Fractions of ALP (“Carcinoplacental ALPs”) <><ul><li>Isoenzymes<ul><li>Nagao<ul><li>conditions</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Cancers of pleural surfaces</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Adenocarcinoma of pancreas</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Adenocarcinoma of bile duct</li> </div><l>"
261
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Lactate Dehydrogenase<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l>"
Wrobleuski-ladue
262
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li><b style=""color: lightblue;""> [ ... ] <> <ul><li>other elevations are seen in<ul><li>example:: Peptic ulcer, Intestinal obstruction, cholecystitis, acute Appendicitis </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Amylase
263
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Creatinine Kinase<ul><li><b style=""color: lightblue;""> [ ... ] <> <ul><li>male:: 15-160 U/L (37 degrees Celsius) </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Reference values
264
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Alanine Aminotransferase<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l>"
Coupled Enzymatic Reaction
265
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Other Important Enzymes<ul><li>Drug Metabolizing Enzymes<ul><li>Phase I reactions are often mediated by{ ... }.</li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"Phase I reactions are often mediated by<b style=""color: lightblue;"">{{ cytochrome P450 (CYP 450)}}<>."
266
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Alkaline phosphatase<ul><li>Alkaline phosphatase isoenzyme determination<ul><li><b style=""color: lightblue;""> [ ... ] <> :: Heating serum at 56 degrees Celsius for 10 minutes </li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Heat stability
267
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li><b>General Properties of Enzymes <><ul><li>Components of Enzyme<ul><li><b style=""color: lightblue;""> [ ... ] <> :: A cavity other than the active site that binds the regulatory molecules (Effector)</li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Allosteric site
268
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li><b>General Properties of Enzymes <><ul><li><b>Terms Associated with Enzymes<><ul><li>Cofactor<ul><li>Two types of Cofactors<ul><li>Co-enzyme/Prosthetic group<ul><li>example</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Nucleotide (NAD, NADP, vitamins)
269
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Lactate Dehydrogenase<ul><li>increased levels are seen in<ul><li>Lactate Dehydrogenase Isoenzyme<ul><li>LD-1 (HHHH)<ul><li>found in</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Heart</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>RBC</li> </div><l>"
270
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Lactate Dehydrogenase<ul><li>increased levels are seen in<ul><li>Lactate Dehydrogenase Isoenzyme<ul><li>LD-4(HMMM)<ul><li>related disorder</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Hepatic injury
271
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Other Important Enzymes<ul><li>Glucose-6-Phosphate Dehydrogenase (G-6-PD)<ul><li>specimen</li><l></li><l></li><l></li><l></li><l></li><l></li><l>
red cell hemolysate and serum (serum is used for evaluation of enzyme elevations)
272
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Lipase<ul><li>During acute pancreatitis<ul><li>peak</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
24 hours
273
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Creatinine Kinase<ul><li>Isoenzymes<ul><li>CK-1 (CK-BB) Brain Type<ul><li>increase in</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
CNS shock, Seizure, Lung and Gastrointestinal Diseases
274
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Lactate Dehydrogenase<ul><li>increased levels are seen in<ul><li>Lactate Dehydrogenase Isoenzyme<ul><li><b>Lactate dehydrogenase Electrophoresis<> <img src=""%LOCAL_FILE%C4ofvOcM-8mCx9wYXvriLagNKtZ7JDdFvsFdUwlZWcVYIDVGEt0x7yyAqGCj7x9RdPvPWzeQn5-jP6aMlV-9VZQcMvlliXOo-FO9oM8pYVGcCXQiLmZNyXEEHx33ltPb.png"" width=""123"" height=""110""/><ul><li>6 th band in electrophoresis indicates { ... }or “{{Alcohol dehydrogenase}}”</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
"6 th band in electrophoresis indicates <b style=""color: lightblue;"">{{LD-6 }}<>or “{{Alcohol dehydrogenase}}”"
275
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Liver Enzymes<ul><li>Clinically significant Enzymes<ul><li>5’ Nucleotidase<ul><li>methods of detection</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Dixon & purdon, Campbell, Belfield & Goldberg
276
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li><b>General Properties of Enzymes <><ul><li>enzyme classification<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Hydrolase
277
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li><b>General Properties of Enzymes <><ul><li>enzyme classification<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Oxidoreductase
278
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Other Important Enzymes<ul><li>Angiotensin<ul><li>tissue source</li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Lungs, testes, macrophage and epitheloid cells
279
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Other Important Enzymes<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l>"
Angiotensin
280
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Liver Enzymes<ul><li>Clinically significant Enzymes<ul><li>Gamma Glutamyl transferase (GGT)<ul><li>increased in<ul><li>Useful in differentiating the source of an elevated ALP<ul><li>GGT levels are increased in { ... }</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"GGT levels are increased in <b style=""color: lightblue;"">{{liver disorders}}<>"
281
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li><b>Lipase<><ul><li>Determination of Lipase enzyme<ul><li><b>Tietz and Fiereck<><ul><li><b style=""color: lightblue;""> [ ... ] <> :: most commonly used method </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Peroxidase coupling
282
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li><b>General Properties of Enzymes <><ul><li><b>Terms Associated with Enzymes<><ul><li><b style=""color: lightblue;""> [ ... ] <> :: refers to the measurement of enzyme activity in the body to trace the damage of specific organ or to diagnose disease for proper treatment. </li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Clinical enzymology
283
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Lactate Dehydrogenase<ul><li>highest activity in</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
heart, hepatic, skeletal muscle and RBC
284
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Liver Enzymes<ul><li>Clinically significant Enzymes<ul><li>Gamma Glutamyl transferase (GGT)<ul><li>Reference value:<ul><li>male</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
6-45 U/L (37C)
285
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Lactate Dehydrogenase<ul><li>increased levels are seen in<ul><li>Lactate Dehydrogenase Isoenzyme<ul><li>LD -2 (HHHM)<ul><li>found in</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Heart</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>RBC</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Kidneys</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li><i> NOT IN SKELETAL MUSCLE </i></li> </div><l>"
286
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Aspartate Aminotransferase<ul><li>Also a marker for AMI<ul><li>peak</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
24 hours
287
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Gamma Glutamyl Transferase<ul><li>Szasz Assay</li><l></li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Uses gamma-glutamy l-p-nitroanilide as substrate</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Measures absorbance @ 405-420 nm</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>GGT activity is stable with no loss of activity for 1 week at 4 degrees Celsius</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Not affected by hemolysis</li> </div><l>"
288
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Liver Enzymes<ul><li>Clinically significant Enzymes<ul><li><b style=""color: lightblue;""> [ ... ] <> <ul><li>diagnostic significance:: hepatobiliary disorders (biliary tract obstruction), hepatic parenchyma, alcoholism, acute pancreatitis, diabetes mellitus </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Gamma Glutamyl transferase (GGT)
289
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Acid Phosphatase<ul><li>Summary of ACP Methods</li><l></li><l></li><l></li><l></li><l></li><l>
290
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Creatinine Kinase<ul><li>Isoenzymes<ul><li>CK-2 (CK-MB) Hybrid Type<ul><li>condition</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>AMI (Acute myocardial infarction)</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Ischemia</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Cardiac surgery</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Malignant Hyperthermia</li> </div><l>"
291
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Myocardial Infarction Enzymes<ul><li>Myocardial infarction profile<ul><li>Aspartate Aminotransferase<ul><li>other source</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Kidney, RBC and Pancreas
292
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Acid Phosphatase<ul><li>Summary of ACP Methods<ul><li>Gutman and Gutman<ul><li>end products</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Inorganic PO4
293
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Amylase<ul><li>other source</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Adipose tissue, fallopian tubes, small intestine and skeletal muscles
294
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Liver Enzymes<ul><li>Clinically significant Enzymes<ul><li>Alkaline phosphatase (ALP)<ul><li>Isoenzymes<ul><li><b style=""color: lightblue;""> [ ... ] <> :: Increased in Liver disease </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Liver ALP
295
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzyme<ul><li><b>General Properties of Enzymes <><ul><li><b>Terms Associated with Enzymes<><ul><li>Cofactor<ul><li>Two types of Cofactors<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>"
Co-enzyme/Prosthetic group
296
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Other Important Enzymes<ul><li>Glucose-6-Phosphate Dehydrogenase (G-6-PD)<ul><li>reference value</li><l></li><l></li><l></li><l></li><l></li><l></li><l>
10-15 U hemoglobin or 1200-2000 mU/mL packed RBC
297
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Enzymes Methods of Determinations<ul><li>Amylase<ul><li>Chromogenic<ul><li>substrate</li><l></li><l></li><l></li><l></li><l></li><l></li><l>
Starch molecules with chromogenic dye
298
"<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li><b style=""color: lightblue;""> [ ... ] <> :: </li><l></li><l></li><l></li><l></li><l></li><l>"
Clinically significant Enzymes
299
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Liver Enzymes<ul><li>Clinically significant Enzymes<ul><li>Gamma Glutamyl transferase (GGT)<ul><li>diagnostic significance</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
hepatobiliary disorders (biliary tract obstruction), hepatic parenchyma, alcoholism, acute pancreatitis, diabetes mellitus
300
<ul><li>Clinical Chemistry 2<ul><li><b>LECTURE<><ul><li>Lesson 1. Enzymology (and other Organs using Enzyme Markers)<ul><li>Classification of Enzymes<ul><li>Pancreatic Enzymes<ul><li>Clinically significant Enzymes<ul><li>Amylase<ul><li>Macroamylasemia</li><l></li><l></li><l></li><l></li><l></li><l></li><l></li><l>
"<ul><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Results when AMS molecules combine with immunoglobulins to form a complex with immunoglobulis to forms a complex that is too large to be filtered across the glomerulus</li> </div><div rem=""true"" crt=""null"" tags=""[]"" valueType=""undefined"" isListItem=""true"" > <li>Serum AMS levels increases because of the reduction in renal clearance</li> </div><l>"

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