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c. Both
Rheumatologic disorder can be
a. Inflammatory
b. Autoimmune disease
c. Both
d. None
e. None
True about inflammation except:
a. A non-specific immune response against an adverse stimulus
b. Can be caused by microbial invasion
c. Can be caused by physical Injury
d. Main purpose is for body's protection and a part of healing process
e. None
f. None
Cardinal signs of inflammation except:
a. Calor: Heat
b. Rubor: Redness
c. Tumor: Swelling
d. Dolor: Pain
e. Functio laesa: Loss of Function
f. None
e. None
Autoimmune diseases except:
a. Conditions that arise from overreactive immune responses
b. Involved T cells and B cells
c. T cells and B cells → tend to be self-reactive meaning they can adversely target substances & tissues normally present in the body
d. T cells and B cells are designed to address foreign threats but instead they target our own cells leading to abnormality called autoimmune diseases
e. None
f. None
Rheumatologic disorders affect muscoskeletal system including the following except:
a. Joints
b. Muscles
c. Bones
d. Tendons
e. Ligaments
f. None
a. Rheumatoid Arthritis (RA)
Rheumatologic disorder:
Characterized by chronic and systemic inflammation affecting synovium.
a. Rheumatoid Arthritis (RA)
b. Osteoarthritis
c. Systemic Lupus Erythematosus
d. Ankylosing Spondylitis
f. All
Rheumatoid Arthritis (RA)
a. Multiple and symmetrical affecting
b. Morning joint stiffness that last for >30 mins
c. There is hand involvement
d. a and b
e. b and c
f. All
b. Osteoarthritis
Rheumatologic disorder:
Most common joint disease in humans that is not inflammatory, and not autoimmune disease.
a. Rheumatoid Arthritis (RA)
b. Osteoarthritis
c. Systemic Lupus Erythematosus
d. Ankylosing Spondylitis
d. a and b
Osteoarthritis is not inflammatory because it lacks
a. Rubor
b. Calor
c. Pallor
d. a and b
e. b and c
f. All
c. Systemic Lupus Erythematosus
Rheumatologic disorder:
Autoimmune disease that affect women more than men more commonly known as lupus.
a. Rheumatoid Arthritis (RA)
b. Osteoarthritis
c. Systemic Lupus Erythematosus
d. Ankylosing Spondylitis
f. All
malar rash: acute
discoid rash: chronic
Systemic Lupus Erythematosus causes the following.
a. Butterfly-shaped rash or Malar rash in the face
b. Photosensitivity
c. Most common renal complications like nephritis
d. a and b
e. b and c
f. All
d. Ankylosing Spondylitis
Rheumatologic disorder:
Autoimmune disease that usually affects the spinal column of the patient.
a. Rheumatoid Arthritis (RA)
b. Osteoarthritis
c. Systemic Lupus Erythematosus
d. Ankylosing Spondylitis
e. None
Ankylosing Spondylitis except:
a. Affects men more than women
b. Characterized as fusion of the spine or more commonly describe as Bamboo spine
c. Manifested as Enthesitis: Inflammation of the enthesis
d. Manifested as Sacrolitis: Inflammation of sacroiliac joint
e. None
b. Osteoarthritis - not autoimmune, not inflammatory
Autoimmune disease except:
a. Rheumatoid Arthritis (RA)
b. Osteoarthritis
c. Systemic Lupus Erythematosus
d. Ankylosing Spondylitis
e. None
d. Ankylosing Spondylitis
Manifested as enthesitis, and sacrolitis.
a. Rheumatoid Arthritis (RA)
b. Osteoarthritis
c. Systemic Lupus Erythematosus
d. Ankylosing Spondylitis
c. Both
Analgesics
a. Drugs that are used to induce analgesia
b. Can be Non-Narcotics and Narcotic Analgesics
c. Both
d. None
e. a and c
Non-Narcotics
a) Does not cause narcosis
b) p-aminophenol Derivatives (paracetamol)
c) NSAIDs
Non-Narcotics
a. Does not cause narcosis
b. p-nitrophenol Derivatives
c. NSAIDs
d. a and b
e. a and c
f. All
f. All
Acetaminophen or paracetamol
a. Weak prostaglandin inhibitor in periphery; Weak cyclooxygenase inhibitor
b. Has analgesic & antipyretic activity; lacks anti-inflammatory
c. Can cause hepatotoxicity
d. a and b
e. b and c
f. All
f. All
Acetaminophen or paracetamol uses:
a. 1st line agent for osteoarthritis due to relative safety
b. Aspirin substitute for patient with Aspirin effects intolerance
c. They are safe for pregnant women, lactating women and children
d. a and b
e. b and c
f. All
Paracetamol
1st line agent for osteoarthritis.
e. b and c
toxic dose of paracetamol: 4g/day
lethal dose of paracetamol: 15g/day
Risk factor for hepatotoxicity by paracetamol.
a. Higher dose intake than recommended dose; >5mg/kg/day
b. Pre-existing liver disease
c. Concomitant use of CYP1A2 inducers
d. a and b
e. b and c
f. All
e. None
NSAIDs except:
a. Non-steroidal Anti-Inflammatory Drugs
b. Does not possess Cyclopentanoperhydrophenanthrenes (CPPP) nucleus found in steroidal drugs
c. Anti-inflammatory drug due to its mechanism
d. Chemically weak organic acids
e. None
a. Nabumetone
Only NSAID that is not a weak organic acid but instead, a prodrug converted to acetic acid derivative.
a. Nabumetone
b. Ibuprofen
c. Indomethacin
d. Naproxen
e. Aspirin
c. Both
Facilitate conversion of arachidonic acid into prostanoids.
a. Cyclooxygenase (COX)
b. Peroxidase (POX)
c. Both
d. None
a. Cyclooxygenase (COX)
Convert arachidonic acid to PGG2.
a. Cyclooxygenase (COX)
b. Peroxidase (POX)
c. Both
d. None
b. Peroxidase (POX)
Convert PGG2 acid to PGH2.
a. Cyclooxygenase (COX)
b. Peroxidase (POX)
c. Both
d. None
f. All
constitutive enzymes - for housekeeping functions
COX-1
a. Constitutive Enzymes
b. PGs for homeostatic functions
c. Important for gastroprotection and renal vasodilation for enhance renal clearance
d. a and b
e. b and c
f. All
f. All
COX-2
a. Inducible Enzymes
b. Triggered due to certain adverse stimulus like microbial invasion and physical injury
c. Responsible for producing prostaglandins for inflammation which is PGE2
d. a and b
e. b and c
f. All
d. a and b
Selective COX-2 inhibitor NSAIDs are safer for the stomach
Indomethacin, oxicam derivatives: COX-1 »»» COX-2
True statements.
a. Majority of NSAIDs are non-selective COX inhibitors
b. Some NSAIDs block COX-1 more than COX-2
c. Selective COX-1 inhibitor NSAIDs are safer for the stomach
d. a and b
e. b and c
f. All
a. I, II, III, IV, V, VI, VII, VIII
Non-selective COX inhibitor
I. Aspirin
II. Pyrazolones derivatives
III. Indole derivatives
IV. Pyrole alkalonic acid derivatives
V. Phenylacetic acid derivatives
VI. Fenamates
VII. Oxicam derivatives
VIII. Propionic acid derivatives
a. I, II, III, IV, V, VI, VII, VIII
b. I, II, III, IV, V, VI,
c. III, IV, V, VI, VII, VIII
d. I, II, III, IV, V,
e. I, II, VII, VIII
Aspirin
The only irreversible COX inhibitor.
Aspirin
NSAID prototype.
f. None
Aspirin pharmacologic effects except:
a. Analgesic
b. Anti-inflammatory
c. Antipyretic
d. Antiplatelet
e. Anticancer
f. None
f. All
Aspirin at <600mg/day
a. Analgesic
b. Central mechanism: Inhibits pain perception at subcortical sites
c. Peripheral mechanism: Irreversible COX inhibitor
d. a and b
e. b and c
f. All
c. Both
Aspirin at 3.2-4.0 g/day
a. Anti-inflammatory
b. Peripheral mechanism: irreversible COX inhibitor
c. Both
d. None
f. None
Aspirin at 0.3 -1.2 g/day except:
a. Antipyretic
b. Central mechanism: Inhibits response to interleukin-1
c. Block of endogenous pyrogen, IL-1, leading to ↓Body temperature
d. Peripheral mechanism: irreversible COX inhibitor
e. Causes cutaneous vasodilation
f. None
d. a and b
Aspirin at NMT 325 mg/day
a) Antiplatelet
b) TXA2 synthesis inhibition - a potent aggregator
c) Bleeding
Aspirin at NMT 325 mg/day
a. Antiplatelet
b. TXA2 synthesis inhibition
c. Clotting
d. a and b
e. b and c
f. All
a. Chronic inflammation associated to overexpression of COX-2
Aspirin potential use in cancer is attributed to
a. Chronic inflammation associated to overexpression of COX-2
b. Chronic inflammation associated to overexpression of COX-1
c. Acute inflammation associated to overexpression of COX-2
d. Acute inflammation associated to overexpression of COX-1
e. None
c. Both
Gastritis and gastrointestinal ulcer bleeding
- Related to its COX-1 inhibition property resulting to negative alteration of cytoprotection
- treated with Proton pump inhibitors (PPIs): 1st line agents for inhibition of hydrochloric acid
- formerly treated with Misoprostol: alternative but was already banned due to its abortifacient effect
Glomerular Filtration Rate (GFR)
- Alteration in prostaglandins
- Prostaglandin made by COX-1 is important for renal vasodilation which is essential in ↑ GFR
- Aspirin then ↓ Prostaglandin level needed for renal vasodilation resulting to ↓ GFR
Aspirin toxicities
a. Gastritis and gastrointestinal ulcer bleeding
b. Decrease in Glomerular Filtration Rate
c. Both
d. None
b. Uricosurics agonism - should be urucosurics ANTAGONISM.
Aspirin toxicities except:
a. Hypersensitivity Reactions
b. Uricosurics agonism
c. CNS toxicity
d. Reye's Syndrome
e. None
c. Both
Hypersensitivity reactions by Aspirin.
a. NSAID-induced Bronchial Asthma
b. ASA Hypersensitivity Syndrome
c. Both
d. None
a. NSAID-induced Bronchial Asthma
LOX causes bronchospasm = asthma
Hypersensitivity reactions by Aspirin cause by more activation of LOX because of inhibition of COX.
a. NSAID-induced Bronchial Asthma
b. ASA Hypersensitivity Syndrome
c. Both
d. None
b. ASA Hypersensitivity Syndrome
Hypersensitivity reactions by Aspirin manifested as nasal polyposis & chronic sinusitis.
a. NSAID-induced Bronchial Asthma
b. ASA Hypersensitivity Syndrome
c. Both
d. None
f. All
Antagonized uricosuric effect of uricosurics.
a. Aspirin
b. Tolmetin
c. Salicylates
d. a and b
e. b and c
f. All
d. <2 g/day
Aspirin dose that can decrease renal excretion of urate.
a. <5 g/day
b. <4 g/day
c. <3 g/day
d. <2 g/day
a. True
Aspirin is contraindicated to gout patients taking urocosurics.
a. True
b. False
a. Salicylism
headache, tinnitus, vertigo
Mild CNS effects of aspirin.
a. Salicylism
b. Acid-base imbalances, Hallucinations
c. Respiratory depression
f. All
Manifestations of Salicylism.
a. Hyperthermia
b. Tinnitus
c. Hyperventilation
d. a and b
e. b and c
f. All
b. Acid-base imbalances, Hallucinations
Severe CNS effects of aspirin.
a. Salicylism
b. Acid-base imbalances, Hallucinations
c. Respiratory depression
c. Respiratory depression
Fatal CNS effects of aspirin.
a. Salicylism
b. Acid-base imbalances, Hallucinations
c. Respiratory depression
d. Reye's Syndrome
→ would result to hepatic encephalopathy
Observed in children taking aspirin with fever & viral infection.
a. Salicylism
b. Acid-base imbalances, Hallucinations
c. Respiratory depression
d. Reye's Syndrome
c. Both
Fatal complications of Reye's Syndrome by aspirin.
a. Hepatic Failure
b. Encephalopathy
c. Both
d. None
f. All
Pyrazolone derivatives
a. Phenylbutazone
b. Dipyrone
c. Sulfinpyrazone
d. a and b
e. b and c
f. All
c. Sulfinpyrazone
Pyrazolone derivative that is not an NSAID but a uricosuric agent.
a. Phenylbutazone
b. Dipyrone
c. Sulfinpyrazone
d. a and b
e. b and c
f. All
f. All
Pyrazolone derivatives.
a. Analgesic
b. Anti-inflammatory
c. No longer clinically impactful due to certain hematologic and nephro toxicities
d. a and b
e. b and c
f. All
f. All
Pyrazolone derivative hematologic toxicities.
a. Thrombocytopenia (↓ Platelet count)
b. Aplastic Anemia (↓ Platelet count, ↓ RBC, ↓ WBC)
c. Agranulocytosis (↓ Granulocyte count: Basophils, Eosinophils, Neutrophils)
d. a and b
e. b and c
f. All
f. All
Pyrazolone derivative nephrotoxicities.
a. Acute Tubular Necrosis
b. Anasarca
c. Nephrotic Syndrome
d. a and b
e. b and c
f. All
f. None
Indole derivatives except:
a. Indomethacin
b. Blocks COX-1 > COX-2
c. Can cause gastric effects at a higher extent than other NSAIDs
d. a and b
e. b and c
f. None
f. All
Bartter syndrome - disrupts salt and electrolyte imbalance → low K+, metabolic acidosis
Uses of indomethacin
a. To enhance closure of Patent Ductus Arteriosus
b. Management of Bartter Syndrome
c. Treatment of pain in acute gout
d. a and b
e. b and c
f. All
Indomethacin
Used to enhance closure of Patent Ductus Arteriosus.
Indomethacin
Management of Bartter Syndrome
Treatment of pain in acute gout.
b. Tolmetin
Pyrrole alklanoic acid derivative.
a. Indomethacin
b. Tolmetin
c. Sulindac
d. Mefenamic Acid
a. I, II, III, IV, V, VI
Phenylacetic acid derivatives
I. Sulindac
II. Alclofenac
III. Diclofenac
IV. Ketorolac
V. Etodolac
VI. Nabumetone
a. I, II, III, IV, V, VI
b. I, II, III
c. IV, V, VI
d. I, II, III, IV, V
e. II, III, IV, V, VI
b. I, II, III
SAD
Sulindac
Alclofenac
Diclofenac
Phenylacetic acid referred to as the true phenylacetates.
I. Sulindac
II. Alclofenac
III. Diclofenac
IV. Ketorolac
V. Etodolac
VI. Nabumetone
a. I, II, III, IV, V, VI
b. I, II, III
c. IV, V, VI
d. I, II, III, IV, V
e. II, III, IV, V, VI
c. IV, V, VI
KEN
Ketorolac
Etodolac
Nabumetone
Acetic acid derivatives.
I. Sulindac
II. Alclofenac
III. Diclofenac
IV. Ketorolac
V. Etodolac
VI. Nabumetone
a. I, II, III, IV, V, VI
b. I, II, III
c. IV, V, VI
d. I, II, III, IV, V
e. II, III, IV, V, VI
a. Sulindac
Can cause Steven Johnson Syndrome and Toxic Epidermal Necrolysis
a. Sulindac
b. Alclofenac
c. Diclofenac
d. Ketorolac
e. Etodolac
f. Nabumetone
d. Ketorolac
Can be used as treatment for pain after surgery (Especially when anaesthesia effect has worn off).
a. Sulindac
b. Alclofenac
c. Diclofenac
d. Ketorolac
e. Etodolac
f. Nabumetone
f. All
Fenamates.
a. Mefenamic Acid
b. Meclofenamic Acid
c. Flufenamic Acid
d. a and b
e. b and c
f. All
f. all
antipyretic: > 6 months
anti-inflammatory: > 14 yrs
Fenamates.
a. Analgesic
b. Anti-inflammatory
c. Antipyretic
d. a and b
e. b and c
f. All
a. Mefenamic acid - Fenamates should never be given to children.
*based on notes:
anti-pyretic: > 6 months
anti-inflammatory: > 14 yrs
Should never be given to children.
a. Mefenamic acid
b. Ibuprofen
c. Paracetamol
d. Ketorolac
e. Aspirin
b. Ibuprofen
Safest NSAID to children.
a. Mefenamic acid
b. Ibuprofen
c. Paracetamol
d. Ketorolac
e. Aspirin
f. All
Oxicam derivatives
a. Piroxicam
b. Can cause bleeding and ulceration
c. Block COX-1 in greater extent than COX-2
d. a and b
e. b and c
f. All
f. All
Propionic acid derivatives
a. Analgesic
b. Anti-inflammatory
c. Antipyretic
d. a and b
e. b and c
f. All
Naproxen
When patient has fever, patient is not responsive to 1st line antipyretics like Aspirin or Acetaminophen but is sensitive to Naproxen → tumor fever
Used in Fever of Malignancy in which it can be used as a confirmatory agent if patient has cancer.
f. All
Specific COX-2 inhibitors
a. Less associated to gastric effects like gastritis and gastrointestinal ulcer bleeding
b. Increased risk of acute thrombotic events to patient with cardiovascular problems
c. May lead to myocardial infarction and stroke
d. a and b
e. b and c
f. All
e. None
Specific COX-2 inhibitors except:
a. Celecoxib
b. Etoricoxib
c. Valdecoxib
d. Rofecoxib
e. None
f. c and d
Rofecoxib - MI, stroke
Specific COX-2 inhibitors already withdrawn from the market due to toxic effects.
a. Celecoxib
b. Etoricoxib
c. Valdecoxib
d. Rofecoxib
e. a and b
f. c and d
A. Bone marrow toxicity and hepatotoxicity
What are the primary watch-out toxicities for Methotrexate?
A. Bone marrow toxicity and hepatotoxicity
B. Ototoxicity and nephrolithiasis
C. Pulmonary fibrosis and pancreatitis
D. Cardiotoxicity and hypothyroidism
B. Leucovorin (Folinic Acid)
What rescue agent is administered to treat or prevent Methotrexate toxicity?
A. N-acetylcysteine
B. Leucovorin
C. Deferoxamine
D. Naloxone
B. Degenerative wear-and-tear condition
What type of joint condition is Osteoarthritis (OA)?
A. Autoimmune condition
B. Degenerative wear-and-tear condition
C. Infectious condition
D. Metabolic storage condition
B. Malar rash
What is the acute skin manifestation characteristic of Systemic Lupus Erythematosus (SLE)?
A. Discoid rash
B. Malar rash
C. Target lesions
D. Psoriatic plaques
A. Anti-dsDNA
Which specific antibody level is measured to track active disease activity in Systemic Lupus Erythematosus (SLE)?
A. Anti-dsDNA
B. Anti-Ro
C. Anti-Sm
D. Anti-histone
B. It decreases prostacyclin (PGI2) while leaving Thromboxane A2 unopposed
Why does selective COX-2 inhibition increase the risk of myocardial infarction (MI) and stroke?
A. It decreases mucus production in the stomach
B. It decreases prostacyclin while leaving Thromboxane A2 unopposed
C. It direct induces coronary vasospasm
D. It destroys vascular endothelial cells
A. Allergy, nasal polyps, and asthma
What three conditions make up Samter's Triad in Aspirin-Exacerbated Respiratory Disease (AERD)?
A. Allergy, nasal polyps, and asthma
B. Fever, rash, and joint pain
C. Tinnitus, vertigo, and headache
D. Peptic ulcer, hypertension, and renal failure
B. Headache, tinnitus, and vertigo
What classic triad of symptoms indicates mild Aspirin toxicity (Salicylism)?
A. Nausea, vomiting, and diarrhea
B. Headache, tinnitus, and vertigo
C. Fever, rash, and itching
D. Seizures, coma, and arrhythmia
B. Urinary alkalinization using Sodium Bicarbonate
How is severe Aspirin overdose managed using urinary pH manipulation?
A. Urinary acidification using Ammonium Chloride
B. Urinary alkalinization using Sodium Bicarbonate
C. Fluid restriction
D. Administration of loop diuretics
B. Piroxicam
Which NSAID carries the highest risk of causing Peptic Ulcer Disease (PUD)?
A. Ibuprofen
B. Piroxicam
C. Celecoxib
D. Mefenamic acid
A. Sulindac
Which NSAID prodrug is used to prevent familial intestinal polyposis?
A. Sulindac
B. Ketorolac
C. Diclofenac
D. Meloxicam
A. Indomethacin
Which NSAID is indicated to promote closure of Patent Ductus Arteriosus (PDA)?
A. Indomethacin
B. Naproxen
C. Mefenamic acid
D. Celecoxib
A. Naproxen
Which NSAID is uniquely used in the diagnosis of tumor fever?
A. Naproxen
B. Ibuprofen
C. Ketoprofen
D. Etodolac
CPR
Coma
Pinpoint pupils
Respiratory depression
What is the classic Triad of Toxicity for Opioid overdose?
B. Miosis, Convulsions, and Constipation
Which Opioid side effects are considered "constants" because tolerance does NOT develop to them?
A. Euphoria, Analgesia, and Sedation
B. Miosis, Convulsions, and Constipation
C. Respiratory depression and Nausea
D. Hypotension and Bradycardia
B. Truncal rigidity
What unique toxic side effect is specifically associated with high doses of Fentanyl?
A. Nephrolithiasis
B. Truncal rigidity
C. Ototoxicity
D. Aplastic anemia
B. 80 mg/dL and above
At what serum salicylate level does hyperthermia and metabolic acidosis typically occur?
A. 50 mg/dL and above
B. 80 mg/dL and above
C. 110 mg/dL and above
D. 160 mg/dL and above
D. 160 mg/dL and above
At what serum salicylate level does renal and respiratory failure occur?
A. 50 mg/dL and above
B. 80 mg/dL and above
C. 110 mg/dL and above
D. 160 mg/dL and above
A. 50 mg/dL and above
Salicylism: headache, tinnitus, vertigo
At what serum salicylate level does salicylism occur?
A. 50 mg/dL and above
B. 80 mg/dL and above
C. 110 mg/dL and above
D. 160 mg/dL and above
C. Sulfinpyrazone
Which Pyrazolone derivative is utilized specifically as a uricosuric agent?
A. Oxyphenbutazone
B. Phenylbutazone
C. Sulfinpyrazone
D. Tolmetin
B. Ketoprofen
Which NSAID exhibits a dual mechanism of action by inhibiting BOTH COX and LOX enzymes?
A. Ibuprofen
B. Ketoprofen
C. Naproxen
D. Mefenamic acid