Cardiology Flashcards

(111 cards)

1
Q

Goals of primary prevention in CAD

A

Maintain or achieve ideal weight

Physical activity

Eat healthy diet

Fruits, vegetables, fiber, low glycemic index, unsaturated fats, omega-3 fatty acids (Mediterranean diet)

Refrain from cigarette smoking (and vaping)

Maintain blood pressure at goal

<140/90 if low risk

<130/80 if risk factors of known CAD

Maintain normal ‘bad’ cholesterol levels (LDL)

Glycemic control in diabetes

High risk patients <70 y/o without bleeding risk, should take aspirin daily (*new guidelines)

Small amount of alcohol consumption (less than 2 drinks/day)

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2
Q

Risk Factors for CAD

A
  • Age >65yrs
  • Gender (male > female until menopause)
  • Cigarette smoking
  • Dyslipidemia (abnormal cholesterol levels)
  • Hypertension (HTN)
  • Abdominal obesity (central obesity)
  • Family history of 1st degree relative with premature MI (men age <55 women <65)
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3
Q

risk factor that is considered a “coronary artery disease equivalent”

A

Diabetes

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4
Q

Define Metabolic Syndrome

A

•Constellation of metabolic abnormalities that confer increased risk of CAD

Three or more of the following

  • Abdominal obesity
  • Triglycerides >150mg/dL
  • HDL <40mg/dl for men and <50mg/dl for women
  • Fasting glucose ≥ 110mg/dL (hyperglycemia/insulin resistance)
  • Hypertension
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5
Q

what artery supplies blood to left ventricle and atrium

A

Left main coronary a.

The left anterior descending artery branches off the left coronary artery and supplies blood to the front of the left

The circumflex artery branches off the left coronary artery and encircles the heart muscle. This artery supplies blood to the outer side and back of the heart.

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6
Q

Which coronary artery supplies blood to the right ventricle, the right atrium, and the SA (sinoatrial) and AV (atrioventricular) nodes

A

Right coronary artery (RCA).

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7
Q

symptoms of chronic stable angina

A
  • Chest discomfort or dyspnea with exertion lasting ~5-15 minutes, predictable & reproducible (due to flow limiting lesion)
  • Relieved by rest and/or nitroglycerin
  • Description of discomfort varies
  • Tightness, squeezing, burning, gas, indigestion or ill characterized
  • Typically located central or slightly left side of chest
  • Pre-syncope (lightheadedness)
  • Fatigue
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8
Q

exclusion criteria for ETT

A
  • ST abnormalities
  • LVH
  • LBBB
  • Vent-paced
  • WPW
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9
Q

when would we include imaging stress tests

A

include imaging if patient has known CAD or multiple risk factors 2

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10
Q

Name types of imaging and nonimaging stress tests

A
  • Non-Imaging Test
    1. Exercise tolerance testing (ETT) (uses treadmill & EKG)

Imaging Tests – include imaging if patient has known CAD or multiple risk factors 2.

  • Echocardiography (exercise or pharmacologic)
  • Radionuclide myocardial perfusion imaging (exercise or pharmacologic)
  • Positron emission tomography (PET) (almost always pharmacologic)
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11
Q

first line stress test for most pts

A

ETT

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12
Q

describe Radionuclide myocardial perfusion imaging

A

Exercise or pharmacologic

Imaging before and after stress

Inject radioactive nucleotide

Poorly perfused areas of the heart do not take up color, localize lesion to coronary artery

Highly sensitive

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13
Q

what test would we use to look for stress induced regional wall motion abnormalities (RWMAs

A

stress echo

to localize lesion to particular coronary artery

Wont contract normally with the rest of the heart

**operator dependent

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14
Q

when would we use Nuclear Medicine PET CT stress test

A

Very sensitive

Very expensive

Best test for obese patients

Not readily available

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15
Q

classif presentation of ACS

A
  • Early morning
  • Substernal chest pressure, “like and elephant sitting on my chest.”
  • Severe
  • Sense of impending doom
  • Radiates to L arm, both arms or jaw
  • Associated shortness of breath, nausea, diaphoresis, lightheadedness
  • Lasts >20min but <1 hr
  • Risk factors
  • Poor exercise tolerance at baseline
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16
Q

3 types of ACS

A
    1. Unstable Angina
    1. Non-ST Elevation Myocardial Infarction (NSTEMI)
    1. ST Elevation Myocardial Infarction (STEMI)
  • **(most serious of the three)
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17
Q

Unstable plaque without plaque rupture is what type of ACS?

What would we see on EKG

A

unstable angina

Ischemic symptoms suggestive of ACS and no elevation of cardiac biomarkers (Troponin).

May or may not have ST depressions or non-specific changes (i.e. T wave inversion).

EKG can be normal

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18
Q

Potentially same manifestations as UA but do have elevated cardiac biomarkers (Troponin) suggestive of myocardial tissue death

sx?

A

NSTEMI

Unstable plaque +/- rupture (incomplete or complete occlusion)

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19
Q

Plaque rupture with complete occlusion

A

STEMI

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20
Q

what are the anterior leads and corresponding artery

A

V2, V3, V4

LAD

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21
Q

what are the left lateral leads

A

I, aVL, V5, V6

Left circumflex a

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22
Q

Name inferior leads and corresponding a.

A

II, III, aVF

Right coronary a.

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23
Q

name right ventricular leads and corresponding a.

A

aVR, V1

Right coronary a

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24
Q

name osterior leads and corresponding a

A

ST depressions in V2-V4

RCA

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25
New LBBB in setting of acute CP is ____ until proven otherwise
MI
26
Recall which patients need _urgent coronary artery reperfusion_ (catheterization and percutaneous intervention)
* Hemodynamic instability or cardiogenic shock * Severe left ventricular dysfunction or heart failure * Recurrent or persistent rest angina despite intensive medical therapy * New or worsening mitral regurgitation * Sustained ventricular arrhythmias
27
Immediate tx of ST elevation in MI
* cute Triage * Responsiveness, airway, breathing, and circulation * Evidence of systemic hypoperfusion/cardiogenic shock (hypotension, tachycardia, impaired cognition, cool/clammy) * Congestive heart failure * Ventricular arrhythmias * Activate cardiac catheterization lab (cath lab) * IV heparin bolus then continuous infusion * **MONA (morphine, oxygen (if needed), nitrates, aspirin)** * Oxygen if arterial O2 saturation ≤90% or respiratory distress * Consider Glycoprotein IIb/IIIa inhibitors (Eptifibatide- (Integrilin)) * Percutaneous coronary intervention (PCI) – if available yields highest rates of survival if reperfusion is done within 90min (Door to balloon time). (consider transfer – ?allow 120min) * Fibrinolytic therapy if PCI not available * Beta-blocker * Optimize potassium & magnesium * \* If patient is found to have severe 3 vessel disease during PCI à will need coronary artery bypass graft surgery (CABG)
28
All patients with known CAD should be on
•Asa, BB, and statin if no contraindications
29
recognize demand ischemia
30
Describe the pathophysiology of Prinzmetal angina
Vascular smooth muscle hyper-reactivity * Generally caused by focal spasm of a major coronary artery * Results in high grade obstruction * Transient myocardial ischemia * Occasionally myocardial infarction Spasm occurs in the absence of oxygen supply/demand mismatch • Can happen in normal or diseased vessels
31
clinical features of Prinzmetal angina
Angina symptoms at rest Often between midnight and early morning Associated with transient (15min) ST segment elevation Triggered by coronary artery vasospasm Generally in the absence of high grade coronary artery stenosis Few if any cardiovascular risk factors Drug use Repeat EKG after 15min with total resolution of ST segments
32
EKG findings in vasospastic angina
Repeat EKG after 15min with total resolution of ST segments
33
tx of vasospastic angina
Sublingual nitroglycerin as needed during episodes Smoking cessation Long acting nitrates CCBs
34
Si/sx of Hypertrophic obstructive cardiomyopathy
fatigue, dyspnea, chest pain, palpitations, presyncope or syncope – Diastolic dysfunction Myocardial ischemia Mitral regurgitation Systolic dysfunction (end-stage) – Heart failure Supraventricular and ventricular arrhythmias Sudden death - most common cause in young people Teenagers and young adults who collapse and lose consciousness during exercise
35
PE finding of Hypertrophic obstructive cardiomyopathy
Harsh crescendo-decrescendo systolic murmur – Increase intensity with Valsalva maneuver – Decrease intensity with squatting \*\*preload dependent Hypertrophy of the ventricular septum – Significant left ventricular outflow tract (LVOT) obstruction
36
how does heart look in hypertrophic obst ructive cardiomyopathy
– Hypertrophy of the ventricular septum – Significant left ventricular outflow tract (LVOT) obstruction Diastolic dysfunction systolic dys (late-stage)
37
Takotsubo cardiomyopathy si/sx
severe psychological stress
38
Takotsubo cardiomyopathy PE / EKG findings
– Left ventricular apical ballooning – ST elevation without CAD dilated cardiomyopathy - impaired systolic function
39
cause of Chagas dz
– Protozoan infection (Trypanosoma cruzi) Leading cause of DCM in Central and S. America
40
si/sx chagas dz
– Nonspecific EKG abnormalities – Left ventricular apical aneurysms •Apex of the heart dilates – Heart failure – Arrhythmias & heart blocks (all types) **Thromboembolism (right or left ventricular mural thrombi)** **• Pulmonary Embolism** **• Cerebrovascular accident (CVA) = stroke** – Chest pain
41
dilated vs restrictive cardiomyopathy
dilated: ## Footnote Dilatation and impaired contraction of one or both ventricles – * Impaired systolic function * (Ejection Fraction (EF) \<40% restrictive Non-dilated ventricles with impaired ventricular filling Hypertrophy is typically absent (normal wall thickness) Muscle layers are stiff and reduced stretching Rigid ventricular walls resulting in diastolic dysfunction Systolic function usually remains normal à cardiac output is reduced bc total volume in ventricle in diastole is reduced •EF is preserved Biatrial enlargement
42
dilated MC is a systolic / diastolic dysfunction white restrictive CM is systolic / diastolic
dilated - systoluc restrictive - diastolic
43
dilated MC EF is _____ while in restrictive CM EF is \_\_\_\_.
dilated: EF reduced restrictive EF preserved
44
common causes of dilated CM
1.Idiopathic (most common – often familial/gene mutations LMNA Gene mutations (LaminA/C) Infections (i.e. viral myocarditis, Chagas disease) 1. Toxins (drugs, meds, alcohol) 2. Tachycardia induced CMP 5. 3. Stress (takotsubo) – sometimes considered “unclassified”
45
which toxic CM is most common
alcohol
46
common causes of restrictive cardiomyopathy
1. Idiopathic – build up of scar tissue, unknown reason \*most common 2. Amyloidosis – build up of abnormal proteins 3. Radiation exposure 4. Hemochromatosis – excess iron deposition 5. Sarcoidosis
47
physiology of hypertrophic obstructive cardiomyopathy
Hypertrophy of the ventricular septum – Significant left ventricular outflow tract (LVOT) obstruction When ventricles contract during normal systole they become hyperdynamic and walls collapse on themselves More likely to develop obstruction of outflow tract LV volume is normal or reduced, diastolic dysfunction is usually present
48
treatment plan for hypertrophic obstructive cardiomyopathy
Stay hydrated Restrict intense physical exertion Medical therapy to treat chest pain and dyspnea Medical therapy to treat arrhythmias àat risk ventricular arrythmias •Optimize electrolytes Mg
48
when would we perform alcohol septal ablation or septal myectomy)
Hypertrophic obstructive cardiomyopathy (HOCM Invasive procedures to improve LV outflow tract * Do not perform alcohol ablation on patients \<21 y/o iscourage in patient’s \<40 years à * (scar - ↑risk of ventricular arrhythmias)
49
Implantable cardioverter-defibrillator is best therapy for patients w/ HOCM who have either
* survived SCD, have known ventricular arrhythmias * or unexplained syncope
49
features of arrhythmogenic right ventricular cardiomyopathy (ARVC/D)
Myocardium of right ventricle is replaced by fibrous and/or fibro-fatty tissue Genetically determined Sudden cardiac death in young adults (can be exercise induced but not always Right ventricular function is abnormal with regional akinesias or dyskinesis – part of the wall of the right ventricle is not contracting with the rest of the right ventricle
49
best imaging modality for diagnosis of ARVC/D
Cardiac MRI – gold standard à see fibrous deposits within myocardium
50
where would we see ## Footnote Right ventricular function is abnormal with regional akinesias or dyskinesis – part of the wall of the right ventricle is not contracting with the rest of the right ventricle
Arrhythmogenic right ventricular cardiomyopathy (ARVC)
51
Recognize when a cardioverter-defibrillator is indicated for treatment of dilated cardiomyopathy
* Patients with dilated CMP & EF \< 35% - * Patients with dilated CMP & significant arrhythmia - * Patients with dilated CMP & FmHx of sudden death OR known LMNA gene mutation
51
what is considered HTN stage 1 2 crisis
51
what is normal BP
•Normal Blood Pressure: 140/\>90
52
“gold standard” for dx HTN
Ambulatory blood pressure monitoring (ABPM)
53
most common cause of secondary HTN
rendal disease
54
explain masked vs white coat HTN
masked A blood pressure that is consistently elevated by out-of-office measurements but does not meet the criteria based on office readings. assoc w/ increase risk of mortality and morbidity white coat A blood pressure that is consistently elevated by office readings but does not meet diagnostic criteria for hypertension based on out-of-office readings.
55
dx tx for HTN in CKD
ACEs and ARBs have been shown to delay the progress of kidney disease and protects the kidneys
56
tx of HTN in lederly
Treatment verse non-treatment Benefits verse risks Diuertics CCBs ACE
57
tx of HTN in AAs
Low plasma renin activity and increased sodium/fluid loading which can make them resistant to ACEs/ ARB Diuertics CCBs
58
tx HTN in diabetics
Due to renal protective nature of ACEs and ARBs, it is recommended that these should be used for reduction of renal nephropathy Most often this patient population requires multiple agents (average 3-5) to control their hypertension
59
tx HTN in HF w/ EF \<40%
Diuretics – helps with fluid maintenance and decreasing pre-load ACE/ARB – decreases comorbidities and hospitalizations Beta-blockers – decreases LV remodeling
60
tx of HTN in prior MI
Found to reduce size of infarct after an acute MI b-blockers!!!! A MUST
61
labs evaluating HTN
chem 10 - electrolytes and renal function fasting glucose hemaglobinn A1C Lipid profile
62
labs evaluating HTN crisis
ADD EKG (LVH) CBC TSH
63
what HTN drugs should we NEVER combine
ACE + ARB + potassium sparing diuretic - hyperkalemic CRISIS
64
HTN drugs you should never combine
* Alpha OR beta blocker + Clonidine * Nifedepine + diuretic synergism * Hydralazine + direct acting vasodilators OR Prazosin * Diltiazem + Verapamil + Beta-blocker * ACE + ARB + Potassium sparing diuretic
65
define resistant HTN
Blood pressure remains above goal in spite of the concurrent use of 3 antihypertensive agents of different classes Rule out secondary causes prior to labeling someone with resistant hypertension
66
clasic triad of medication in reistant htn
* ACE (prils) * ARB (sartans) CCB (amlodipine, Diltiazem, Nifedipine, Verapamil
67
management of resistant HTN
Consider using different drug mechanisms and optimize the management of comorbidities Classic triad of medication: * ACE (prils) * ARB (sartans) * CCB (amlodipine, Diltiazem, Nifedipine, Verapamil) Potassium sparing diuretics •Potential to decrease SBP 5-20 mmHg and DBP 5-10 mmHg Addition of beta-blockers if patient has: * CHF * CAD Alpha blockers (-zosin)
68
Malignant Hypertensive is characterized by
encephalopathy or nephropathy with accompanying papilledema
69
HTN urgency is most often seen in pts who
Most often patients present who are not adherent to their blood pressure regimen
70
tx of HTN urgency
Blood pressure must be reduced within a few hours and is not a medical emergency. Usually this can be treated within the office setting and does not require transfer to a higher level of care
71
define HTN emergency
an elevated BP (usually DBP \>120 mmHg) with evidence of end-organ damage
72
tx of HTN emergency
Required substantial reduction in BP within 1 hour to avoid the risk of severe morbidities or mortality IV MEDS Goal is to reduce the pressure by no more the 25% within minutes to 1-2 hours and then towards a level of 160/100 mmHg within 2-6 hours •Excessive reduction in BP may precipitate coronary, cerebral, or renal ischemia.
73
examples of meds used to tx HTN emergency
IV * Nitroprusside (Nipride) * Nitroglycerin * Beta-Blockers (Labetalol or Esmolol) * Nicardipine * Diuretics * Hydralazine * Multiple other choices that are less widely used
74
compare good vs bad chlesterol
Low-density lipoprotein (LDL) “bad cholesterol” •Main carrier of cholesterol, deliver to cells High-density lipoprotein (HDL) “good cholesterol” * Acceptor of cholesterol from various tissues * 50% protein
75
LDL is removed from system in 2 ways:
Receptor- dependent Binds to cell surface receptors → endocytosis LDL is enzymatically degraded → chol released into cytoplasm and excreted Non-receptor-dependent Ingestion by phagocytic monocytes Macrophage uptake of LDL in the arterial wall can result in accumulation of insoluble cholesterol ester → formation of foam cells →development of atherosclerosis due to large foam cell deposition next to arterial walls
76
# define limits of dyslipidemia in regards to HDL LDL TGs
* LDL \>160 mg/dL * HDL \< 40 mg/dL * Triglyceride \> 150mg/dL (all three are independent risk factors for CAD)
77
•Total cholesterol is not a risk factor for heart disease but rather the ratio of plasma\_\_\_ to plasma \_\_\_\_.
LDL to HDL
78
how do we measure LDL
•LDL = total cholesterol – HDL – Triglycerides Friedwald equation
79
primary vs secondary causes of dyslipidemia
* Primary causes * Disorders of lipid metabolism (overproduction and/or impaired removal of lipoproteins) * Secondary causes * Type2 DM * Excessive alcohol consumption * Cholestatic liver disease * Nephrotic syndrome * Chronic renal failure * Hypothyroidism * Cigarette smoking * Obesity Drugs
80
who do we screen for dyslipidemia
* Age; men \> 35yrs & women \>45yrs (LDL levels increase with age) * Men \>25yrs with cardiovascular risk factors (more than one RFs, including HTN, tobacco use, or +FMHx or one RF that is severe) * Women \>35 with cardiovascular risk factors * Patients with diabetes * Patients with a first degree relative with premature CAD (before 55yrs for men and before 65yrs for women)
81
how often do we screen pts for dyslipidemia
every 5 years in patients clearly above therapy threshold. Every 3 years in patients near threshold.
82
Explain familial dyslipidemia
* Autosomal dominant * Strongly link to premature CAD * \>200 LDL receptor mutations french canadiana and lebonese underexpression of LDL R
83
clinical presentation of familial disorders of LDL R
* Xanthomas * high LDL * FHx
84
first line tx for dyslipidemia
lifestyle modifications Unsaturated fats Decrease cholesterol by upregulating the LDL receptor - removing more LDL
85
name the most commonly used lipid lowering medication anf the ONLY medication to prove positive CV outcomes
Statins
86
•All patients with known atherosclerosis (CAD, CVD, PVD) regardless of LDL level should receive ____ therapy
statin
87
4 statin benefit groups
* Clinical Atherosclerotic cardiovascular disease (ASCVD) * LDL-C ≥190 mg/dL, Age ≥21 years * Primary prevention – Diabetes: Age 40-75 years, LDL-C 70-189 mg/dL * Primary prevention - No Diabetes: ≥7.5% 10-year ASCVD risk, Age 40-75 years, LDL-C 70-189 mg/dL
88
High Intensity statin therapy lowers LDL on average by \_\_\_
about 50% atorvastatin (40-80mg) Rosuvstatin 20, 40 mg
89
moderate intensity statins lower LDL by approx ____ to \_\_\_\_
30-\<50% atorv 10, 20 simvas 20-40 pravas 40,80n
90
pts with an LDL \> 190 should be started on
high intensity
91
pts w DM and LDL 70-189 should be started on
mod intensity UNLESS ASCVD risk is \>7.5% = start on high intesity
92
pts w/ clinical ASCVD should be started on
high-intensity unless \>75 moderate
93
pt starting statin therapy complains of severe fatigue and muscle weakness - CK is extremely high dx tx
Rhabdomyolysis * Promptly discontinue the statin * Address possibility of rhabdomyolysis with: * CK * Creatinine – * acute kidney injury as myoglobin can deposit onto kidney * Urinalysis for myoglobinuria * (+) for blood * (-) for red cells
94
what labs should we check before initiating statin therapy
fasting lipid ALT CK
95
other reasons for elevated CK
Thyroid disease Inflammatory myopathies Polymyalgia Rheumatica (age greater than 50) Injury/Trauma or excessive exercise Alcohol misuse/DT’s Seizures/CVA Neuropathies/motor neuron dz (GBS,ALS,post-polio syndrome
96
what would we see in UA of pt w Rhabdomyolysis
## Footnote * myoglobinuria * (+) for blood * (-) for red cells
97
exosgenous causes of increased statin intolerance
* Erythromycin * Cyclosporin * HIV retroviral inhibitors * Grapefruit juice * Combination lipid therapy * Fibrates * Niacin
98
what could we use ## Footnote * In combination with statin, reduces LDL even more * May be good alternative to high dose statin (if pts don’t tolerate high dose statin)
Cholesterol Absorption Inhibitors ## Footnote * Ezetimibe (Zetia) - * Inhibits intestinal absorption of cholesterol monitor LFTs
99
when would we tx increased TGs
\>500
100
Severe hypertriglyceridemia (levels over 1000 mg/dL) what are we concerned for
* Risk of pancreatitis * Fibrates & fish oils SEE Lipemic blood sample
101
Tx of elevated TGs
* Weight loss in obese patients * May reduce TG levels by 22% and increase HDL 9% * Aerobic exercise * Avoid concentrated sugars * Low fat diets coupled with complex carbohydrates reduce LDL and HDL * Diet consisting of complex carbs and mono- and polyunsaturated fats probably a good approach. * Avoid medications that raise triglyceride levels * Strict glycemic control in diabetics
102
pharmacotherapies used to tx elevated TGs
unclear if they make a differenc ## Footnote * Fish Oil * Decreases TG by 15 to 30% o 1 to 2 Grams a day * Niacin * 15 to 30 % increase in HDL and 20-30 % decrease in TG * Lots of side effects, flushing (15 to 50% don’t tolerate; ?Worsens diabetes * Titrate very slowly * Fibrates * 15% increase in HDL and 15-20% reduction in TG * Fenofibrate, Gemfibrozil * ACCORD showed no differences in primary outcomes, CVD death, all cause death with Fenofibrate
103
define metabolic syndrome
* Perfect “storm” of risk factors for atherogenesis * DM, CAD, CVA, NAFLD, CA * Pro-inflammatory state
104
how would we Dx metabolic syndrome
* Need 3/5 RF’s to be considered metabolic syndrome * Glucose intolerance * FBG 100 to 125 mg/dL * Hgb A1c 5.7 to 6.4% * Elevated Blood pressure * SBP \> 135 * DBP \> 85 * Dyslipidemia (Trig and HDL are separate RF’s) * Elevated triglyclerides \> 150 mg/dL * Low HDL \<40 mg/dl * Elevated apolipoprotein B * Central obesity * Waist circumference greater than 40 inches in men * 35 inches in women
105
106
when initiating statin therapy it is important to check
baseline LFTs and CK