Shock & Sepsis Management for NEET PG — Complete Guide 2026
Master shock and sepsis for NEET PG 2026: types of shock (distributive, cardiogenic, hypovolemic, obstructive), Sepsis-3 and qSOFA definitions, hemodynamic parameters, fluid resuscitation, vasopressors, antibiotic timing, and Surviving Sepsis Campaign 2021.

Version 1.0 — Published March 2026
Quick Answer
Shock and sepsis contribute 2–3 direct questions per NEET PG paper. Master these 10 high-yield areas:
- Shock definition — Acute circulatory failure causing cellular hypoxia and organ dysfunction. Hallmark: elevated lactate >2 mmol/L
- Four types — Distributive (septic, anaphylactic, neurogenic), cardiogenic, hypovolemic, obstructive — each with distinct hemodynamic fingerprint
- Hemodynamic profiles — Septic: high CO, low SVR. Cardiogenic: low CO, high SVR, high PCWP. Hypovolemic: low CO, low CVP, high SVR. Obstructive: low CO, high SVR, variable filling
- Sepsis-3 — Life-threatening organ dysfunction from dysregulated host response to infection; SOFA increase >=2. Septic shock = sepsis + vasopressors for MAP >=65 + lactate >2
- qSOFA screen — RR >=22, altered mental status, SBP <=100. Score >=2 flags high-risk patient
- Fluid resuscitation — 30 mL/kg balanced crystalloid within 3 hours. Avoid starch (HES). Guide further fluid by dynamic parameters
- Vasopressors — Norepinephrine first-line. Add vasopressin (0.03 U/min) second. Epinephrine third. Avoid dopamine (arrhythmogenic)
- Antibiotic timing — Within 1 hour for septic shock (each hour delay = ~7% excess mortality). Broad-spectrum empiric, de-escalate with cultures
- MAP target — >=65 mmHg (higher 80–85 in chronic hypertensives per SEPSISPAM)
- SSC 2021 bundle — 1-hour bundle: measure lactate, blood cultures before antibiotics, broad-spectrum antibiotics, 30 mL/kg crystalloid if hypotension or lactate >=4, vasopressors if MAP <65 after fluids
Shock is acute circulatory failure with cellular hypoxia — and sepsis is the most common cause of shock in hospital settings, carrying 30–50% mortality for septic shock. The student who masters shock classification, Sepsis-3 definitions, and the Surviving Sepsis Campaign bundle has covered 2–3 marks on medicine and pharmacology papers. Pair this guide with daily MCQ practice on the Medicine subject hub and cross-reference the high-yield medicine topics overview for adjacent critical care concepts.
Types of shock — the four categories
Shock is acute circulatory failure resulting in inadequate cellular oxygen delivery and organ dysfunction, classified into four types based on hemodynamic mechanism.
| Feature | Distributive (septic) | Cardiogenic | Hypovolemic | Obstructive |
|---|---|---|---|---|
| Mechanism | Vasodilation, capillary leak | Pump failure | Volume loss | Mechanical obstruction to forward flow |
| Cardiac output (CO) | Normal or high (early) | Low | Low | Low |
| Systemic vascular resistance (SVR) | Low | High | High | High |
| Central venous pressure (CVP) | Low or normal | High | Low | High (equalized in tamponade) |
| Pulmonary capillary wedge pressure (PCWP) | Low or normal | High (>18) | Low | Variable |
| Mixed venous O2 sat (SvO2) | High (shunt, impaired extraction) | Low | Low | Low |
| Examples | Sepsis, anaphylaxis, neurogenic, adrenal crisis | MI, cardiomyopathy, valvular disease, arrhythmia | Hemorrhage, GI losses, burns, third-spacing | PE, tension pneumothorax, tamponade |
Clinical clues at the bedside:
- Warm extremities, bounding pulses, wide pulse pressure → distributive (septic)
- Cold extremities, weak pulses, narrow pulse pressure, pulmonary edema → cardiogenic
- Cold extremities, weak pulses, orthostatic changes, flat neck veins → hypovolemic
- Cold extremities, distended neck veins, unilateral absent breath sounds (tension pneumothorax), muffled heart sounds (tamponade) → obstructive
Mixed shock: Many patients have combinations (e.g., septic shock + myocardial depression with reduced CO; hypovolemic + distributive after trauma with SIRS).
Distributive shock
Distributive shock is inappropriate vasodilation with maldistribution of blood flow, most commonly caused by sepsis.
Septic shock: Covered in detail below.
Anaphylactic shock: IgE-mediated mast cell degranulation, urticaria, bronchospasm, airway edema, cardiovascular collapse. Treatment: IM epinephrine 0.3–0.5 mg (0.3–0.5 mL of 1:1000) into anterolateral thigh, repeat every 5–15 min. Adjuncts: IV fluids, H1 and H2 blockers, corticosteroids, inhaled beta-2 agonist.
Neurogenic shock: Loss of sympathetic tone after spinal cord injury (especially above T6). Triad: hypotension + bradycardia + warm extremities. Distinguished from spinal shock (which is temporary areflexia below the injury level). Treatment: IV fluids + vasopressors (norepinephrine or phenylephrine); atropine for bradycardia.
Adrenal crisis: Chronic adrenal insufficiency + stress (surgery, infection). Hypotension refractory to fluids and pressors. Treatment: IV hydrocortisone 100 mg bolus, then 50–100 mg q6h.
Cardiogenic shock
Cardiogenic shock is pump failure with CI <2.2 L/min/m² and hemodynamic signs of tissue hypoperfusion despite adequate preload.
Causes:
- Acute MI with large infarct (most common — SHOCK trial)
- Mechanical complications of MI (VSR, papillary muscle rupture, free wall rupture)
- Acute decompensated heart failure
- Myocarditis
- Arrhythmia (VT, complete heart block)
- Valvular disease (acute MR, AR)
Management:
- Revascularization (primary PCI or CABG — SHOCK trial, mortality benefit at 6 months and 1 year)
- Inotropes: Dobutamine (beta-1 agonist, lowers SVR), milrinone (PDE-3 inhibitor, lowers SVR more)
- Vasopressors: Norepinephrine preferred if hypotensive despite inotropes
- Mechanical circulatory support: Intra-aortic balloon pump (decreases afterload, increases coronary perfusion — IABP-SHOCK II showed no mortality benefit but still used in select cases), Impella, VA-ECMO for refractory shock
Hypovolemic shock
Hypovolemic shock is volume deficit from hemorrhage or non-hemorrhagic losses.
Hemorrhagic shock classes (ATLS):
| Class | Blood loss | HR | BP | Mental status | Treatment |
|---|---|---|---|---|---|
| I | <15% (<750 mL) | <100 | Normal | Slight anxiety | Crystalloid only |
| II | 15–30% (750–1500 mL) | 100–120 | Normal SBP, decreased PP | Mildly anxious | Crystalloid |
| III | 30–40% (1500–2000 mL) | 120–140 | Decreased | Confused | Crystalloid + blood |
| IV | >40% (>2000 mL) | >140 | Severely decreased | Lethargic | Massive transfusion protocol |
Management:
- Control bleeding source (surgical, endoscopic, interventional radiology)
- Crystalloid resuscitation then blood products
- Massive transfusion protocol: 1:1:1 ratio (PRBC:FFP:platelets) — PROPPR trial
- Tranexamic acid within 3 hours of trauma — CRASH-2 trial showed mortality benefit
- Permissive hypotension (target SBP 80–90) until bleeding is controlled in trauma (not in TBI)
Obstructive shock
Obstructive shock is mechanical obstruction to cardiac output — requiring emergency identification and reversal.
| Cause | Diagnosis | Treatment |
|---|---|---|
| Tension pneumothorax | Unilateral absent breath sounds, tracheal deviation, distended neck veins | Needle decompression (2nd ICS, midclavicular) then chest tube |
| Cardiac tamponade | Beck triad (muffled heart sounds, hypotension, distended neck veins), pulsus paradoxus, electrical alternans | Urgent pericardiocentesis |
| Massive pulmonary embolism | Sudden dyspnea, hypoxemia, S1Q3T3, right heart strain on echo | Systemic thrombolysis (alteplase 100 mg over 2 hours) or surgical/catheter embolectomy |
| Auto-PEEP (severe asthma on ventilator) | Rising peak pressures, hypotension | Disconnect from ventilator briefly, reduce RR |
Sepsis definitions — SIRS, Sepsis-3, qSOFA
Sepsis definitions have evolved substantially — the current Sepsis-3 framework (2016) is the one tested in NEET PG.
SIRS (historical — still useful for screening)
Systemic Inflammatory Response Syndrome — ≥2 of:
- Temperature >38°C or <36°C
- Heart rate >90/min
- Respiratory rate >20/min or PaCO2 <32 mmHg
- WBC >12,000, <4,000, or >10% bands
Old definitions (Sepsis-1/2): Sepsis = SIRS + infection; severe sepsis = sepsis + organ dysfunction; septic shock = severe sepsis + refractory hypotension.
Sepsis-3 (2016, current)
Sepsis: Life-threatening organ dysfunction caused by a dysregulated host response to infection.
- Identified by acute change in SOFA score >=2 points from baseline (assume baseline 0 if unknown)
- SIRS criteria are NO LONGER part of the sepsis definition (too sensitive, not specific enough)
Septic shock: Subset of sepsis with circulatory and cellular/metabolic abnormalities substantial enough to increase mortality. Clinical criteria:
- Requires vasopressors to maintain MAP >=65 mmHg, AND
- Serum lactate >2 mmol/L, AND
- Despite adequate volume resuscitation
SOFA score components (each 0–4 points, total 0–24):
- Respiration: PaO2/FiO2 ratio
- Coagulation: Platelet count
- Liver: Bilirubin
- Cardiovascular: MAP or vasopressor requirement
- CNS: Glasgow Coma Scale
- Renal: Creatinine or urine output
qSOFA (bedside screening)
Quick SOFA — simpler tool for screening at bedside (not for ICU patients).
One point each for:
- Respiratory rate >=22/min
- Altered mentation (GCS <15)
- Systolic BP <=100 mmHg
qSOFA >=2: High risk of poor outcome in patients with suspected infection.
Limitations: Sensitivity ~60% (misses some sepsis cases). Use alongside clinical judgment, not alone.
Hemodynamic monitoring
Hemodynamic parameters are measurable indicators of cardiac output, vascular tone, and tissue perfusion — guiding shock classification and therapy.
Key parameters:
| Parameter | Normal range | Significance |
|---|---|---|
| Mean arterial pressure (MAP) | 70–100 mmHg | Driving pressure for organ perfusion; target >=65 in sepsis |
| Central venous pressure (CVP) | 2–8 mmHg | Right atrial pressure; surrogate for preload (poor predictor of fluid responsiveness) |
| Pulmonary capillary wedge pressure (PCWP) | 6–12 mmHg | Left atrial pressure; distinguishes cardiogenic (>18) from other shocks |
| Cardiac output (CO) | 4–8 L/min | Volume pumped per minute; low in cardiogenic/hypovolemic/obstructive |
| Cardiac index (CI) | 2.5–4 L/min/m² | CO indexed to BSA; <2.2 in cardiogenic shock |
| Systemic vascular resistance (SVR) | 800–1200 dynes·sec·cm⁻⁵ | Afterload; low in distributive, high in other shocks |
| Mixed venous O2 saturation (SvO2) | 65–75% | Low suggests inadequate oxygen delivery; high in septic shock (shunt/impaired extraction) |
Dynamic vs static fluid responsiveness:
- Static (CVP, PCWP) — unreliable for predicting fluid responsiveness
- Dynamic — preferred:
- Pulse pressure variation (PPV) >13% on mechanical ventilator = fluid responsive
- Stroke volume variation (SVV) >12% = fluid responsive
- Passive leg raise (PLR) with CO increase >10% = fluid responsive
- Inferior vena cava collapsibility >50% on ultrasound = fluid responsive
Lactate: Surrogate for tissue hypoxia. Normal <2 mmol/L. >4 = severe. Lactate clearance (decrease over 6 hours) correlates with outcome; failure to clear is a poor prognostic sign.
Fluid resuscitation
Fluid resuscitation is the initial intervention in hypotensive shock — delivered in a stepwise, measured way to restore perfusion without causing overload.
Initial resuscitation (Surviving Sepsis Campaign 2021):
- 30 mL/kg IV crystalloid within the first 3 hours of sepsis-induced hypotension or lactate >=4 mmol/L
- Balanced crystalloid preferred (Ringer lactate, Plasma-Lyte) over 0.9% normal saline
- SMART trial: Balanced crystalloids reduced major adverse kidney events vs saline
- BaSICS trial: No mortality difference but balanced crystalloids remain preferred
- Avoid hydroxyethyl starch (HES) — increased AKI and mortality (6S, CHEST trials) — contraindicated in sepsis
- Albumin 4–5% can be added if large volumes of crystalloid needed (ALBIOS showed no harm, possibly benefit in septic shock subset)
After initial bolus: Guide additional fluid by dynamic parameters. Passive leg raise is free, reversible, and reliable.
Over-resuscitation harms:
- Pulmonary edema and prolonged ventilation
- Abdominal compartment syndrome (intra-abdominal pressure >20)
- Interstitial edema impairing organ function
- Higher mortality (observational data)
Vasopressors — choice and mechanism
Vasopressors restore vascular tone and MAP when volume replacement alone fails — with a clear hierarchy of first, second, and third-line agents in septic shock.
| Drug | Mechanism | First-line in | Adverse effects |
|---|---|---|---|
| Norepinephrine | Alpha-1 (primary) + beta-1 (modest) | Septic shock (1st line) | Arrhythmia, digital ischemia |
| Vasopressin | V1 receptor (non-adrenergic vasoconstriction) | Septic shock (add-on at 0.03 U/min) | Splanchnic and digital ischemia at higher doses |
| Epinephrine | Alpha-1 + beta-1 + beta-2 | Anaphylaxis; septic shock 3rd line | Tachyarrhythmia, hyperglycemia, lactic acidosis |
| Dopamine | Dose-dependent (dopa → beta → alpha) | Avoided in sepsis (arrhythmia, worse outcomes — SOAP-II trial) | Tachyarrhythmia |
| Phenylephrine | Pure alpha-1 | Septic shock with tachyarrhythmia | Reflex bradycardia, reduced CO |
| Dobutamine | Beta-1 (primary) | Cardiogenic shock; add-on for sepsis with low CO | Tachycardia, hypotension |
| Milrinone | PDE-3 inhibitor (inotrope + vasodilator) | Cardiogenic shock with high SVR | Hypotension, arrhythmia |
| Angiotensin II | AT1 receptor agonist | Vasodilatory shock refractory to norepinephrine + vasopressin | Thromboembolism |
Septic shock titration (SSC 2021):
- Start norepinephrine — titrate to MAP >=65 mmHg
- Add vasopressin 0.03 U/min if norepinephrine dose reaches 0.25–0.5 mcg/kg/min — reduces norepinephrine requirement
- Add epinephrine (or increase norepinephrine) if target not achieved
- Add dobutamine if evidence of cardiac dysfunction (low CO, elevated lactate despite adequate MAP)
Why norepinephrine over dopamine: SOAP-II trial (NEJM 2010) showed dopamine caused more arrhythmias and trend toward higher mortality in cardiogenic shock subgroup.
Antibiotic timing and choice
Antibiotic timing is one of the most evidence-based interventions in sepsis — each hour of delay associates with ~7% increased mortality (Kumar et al., CCM 2006).
Surviving Sepsis Campaign 2021 recommendations:
- Septic shock: Antibiotics within 1 hour (strong recommendation)
- Sepsis without shock, high infection probability: Within 1 hour
- Sepsis without shock, uncertain diagnosis: Within 3 hours
Empiric regimen principles:
- Broad-spectrum covering likely pathogens based on source and local antibiogram
- Combination therapy for septic shock (e.g., beta-lactam + aminoglycoside or fluoroquinolone) for possible resistant organisms
- Adjust dose for renal/hepatic function; consider extended infusion beta-lactams in septic shock
Common source-based empiric choices:
| Source | First-line empiric |
|---|---|
| Urinary (community) | Ceftriaxone or piperacillin-tazobactam |
| Urinary (healthcare-associated) | Piperacillin-tazobactam or carbapenem |
| Abdominal (community) | Piperacillin-tazobactam or ceftriaxone + metronidazole |
| Abdominal (healthcare) | Carbapenem (meropenem/imipenem) |
| Pulmonary (community) | Ceftriaxone + azithromycin |
| Pulmonary (HAP/VAP) | Piperacillin-tazobactam or cefepime + vancomycin + antipseudomonal |
| Skin/soft tissue with MRSA risk | Vancomycin + piperacillin-tazobactam |
| Unknown source | Piperacillin-tazobactam +/- vancomycin |
Source control: Drain abscesses, remove infected devices, debride necrotic tissue. Essential complement to antibiotics.
Blood cultures: Obtain BEFORE antibiotics if this does not delay treatment by more than 45 minutes.
De-escalation: Narrow therapy once cultures and sensitivities available (typically 48–72 hours). Shortens antibiotic exposure and reduces resistance emergence.
Surviving Sepsis Campaign 2021 — the hour-1 bundle
The Surviving Sepsis Campaign is the international consensus guideline for sepsis management — updated in 2021 with a streamlined 1-hour bundle replacing the older 3- and 6-hour bundles.
1-hour bundle (for both sepsis and septic shock):
- Measure lactate level. Re-measure if initial lactate >2 mmol/L.
- Obtain blood cultures before administering antibiotics.
- Administer broad-spectrum antibiotics.
- Begin rapid administration of 30 mL/kg crystalloid for hypotension or lactate >=4 mmol/L.
- Apply vasopressors if patient is hypotensive during or after fluid resuscitation to maintain MAP >=65 mmHg.
Additional SSC 2021 recommendations:
- Target MAP >=65 mmHg (higher in chronic hypertensives — SEPSISPAM)
- Use norepinephrine as first-line vasopressor; add vasopressin second
- Use dynamic parameters to guide further fluid resuscitation
- Steroid therapy (hydrocortisone 200 mg/day) for septic shock requiring vasopressors despite adequate fluid and initial pressor (ADRENAL, APROCCHSS trials — modest mortality benefit)
- VTE prophylaxis (heparin or LMWH)
- Stress ulcer prophylaxis for high-risk patients (PPI or H2 blocker)
- Glucose target 140–180 mg/dL (avoid tight control — NICE-SUGAR trial showed increased mortality with <110)
- Nutrition: early enteral feeding within 72 hours
Lactate-guided resuscitation: Trend lactate every 2–4 hours; decreasing lactate indicates adequate resuscitation; rising lactate suggests ongoing hypoperfusion.
Complications and outcomes
Sepsis survivors face significant long-term morbidity known as post-sepsis syndrome — physical, cognitive, and psychological impairments lasting months to years.
Acute complications:
- ARDS (acute respiratory distress syndrome) — PaO2/FiO2 <=300 with bilateral infiltrates not explained by cardiac failure
- Acute kidney injury — occurs in 40–50% of septic patients; highest mortality subgroup
- Disseminated intravascular coagulation (DIC) — consumptive coagulopathy with bleeding and microthrombi
- Cardiomyopathy (sepsis-induced cardiomyopathy, septic CMO) — reversible LV dysfunction
- Hepatic dysfunction — cholestasis, shock liver
Mortality:
- Sepsis: 10–20%
- Septic shock: 30–50%
- Multi-organ failure: 50–80% (mortality increases with each failing organ)
Prognostic scores:
- SOFA score — organ dysfunction and mortality
- APACHE-II — 24-hour ICU severity
- MEWS — ward-based deterioration
Sources and references
- Surviving Sepsis Campaign International Guidelines for Management of Sepsis and Septic Shock 2021 (Intensive Care Medicine, 2021; 47:1181-1247) — the global reference for sepsis protocols.
- Singer M, Deutschman CS, Seymour CW, et al. — The Third International Consensus Definitions for Sepsis and Septic Shock (Sepsis-3) (JAMA 2016; 315:801-810).
- Harrison's Principles of Internal Medicine, 21st Edition (Loscalzo et al., 2022) — Chapters on Shock and Sepsis.
- Rivers E, Nguyen B, et al. — Early goal-directed therapy in the treatment of severe sepsis and septic shock (NEJM 2001; 345:1368-1377) — historical EGDT trial; subsequent ProCESS, ARISE, ProMISe trials showed similar outcomes with usual care.
- De Backer D, Biston P, et al. — Comparison of dopamine and norepinephrine in the treatment of shock (NEJM 2010; 362:779-789; SOAP-II trial).
- API Textbook of Medicine, 11th Edition (Munjal et al., 2019) — Indian-context critical care management.
Frequently asked questions
How many shock/sepsis questions appear in NEET PG?
Critical care topics contribute 2-3 direct questions per NEET PG paper across medicine, surgery, and pharmacology. Shock classification by hemodynamic parameters, Sepsis-3 definitions, and vasopressor choice are the three most frequently tested subtopics based on 2019-2025 pattern analysis.
What are the four types of shock?
Shock is classified into four types: distributive (septic, anaphylactic, neurogenic — low SVR, high CO), cardiogenic (MI, heart failure — low CO, high SVR, high PCWP), hypovolemic (hemorrhage, dehydration — low CO, high SVR, low CVP), and obstructive (PE, tension pneumothorax, tamponade — low CO, high SVR, variable filling pressures). Hemodynamic profile distinguishes them at the bedside.
What is Sepsis-3?
Sepsis-3 (2016 definition) defines sepsis as life-threatening organ dysfunction caused by a dysregulated host response to infection, identified clinically by a rise in SOFA score of 2 or more points from baseline. Septic shock is sepsis requiring vasopressors to maintain MAP greater than or equal to 65 mmHg despite adequate fluid resuscitation, plus serum lactate greater than 2 mmol/L. SIRS criteria are no longer part of the sepsis definition.
What is qSOFA?
qSOFA (quick SOFA) is a bedside screening tool for sepsis in non-ICU settings. Score 1 point for each: respiratory rate greater than or equal to 22/min, altered mentation (GCS less than 15), systolic BP less than or equal to 100 mmHg. Score greater than or equal to 2 suggests high risk of poor outcome. qSOFA is a screening tool, not a definitive sepsis diagnosis — missed sensitivity has been reported.
What is the first-line vasopressor in septic shock?
Norepinephrine is the first-line vasopressor in septic shock (Surviving Sepsis Campaign 2021). It increases SVR via alpha-1 agonism with modest inotropy via beta-1 agonism. Add vasopressin 0.03 U/min as second agent to reduce norepinephrine dose. Epinephrine is third-line (add-on). Dopamine is no longer recommended due to arrhythmogenicity. Phenylephrine is used selectively when tachyarrhythmia is an issue.
How much fluid should I give in septic shock?
Initial fluid resuscitation is 30 mL/kg crystalloid (balanced crystalloid preferred over normal saline per SMART and BaSICS trials) within the first 3 hours. After this, further fluid should be guided by dynamic parameters (pulse pressure variation, stroke volume variation, passive leg raise) rather than static (CVP, PCWP). Over-resuscitation causes pulmonary edema, abdominal compartment syndrome, and worse outcomes.
When should antibiotics be given in sepsis?
Antibiotics should be given within 1 hour of recognition of septic shock (Surviving Sepsis Campaign 2021, strong recommendation). For sepsis without shock, within 1 hour if high certainty of infection; within 3 hours if diagnosis is less certain. Each hour of delay is associated with approximately 7 percent increased mortality. Broad-spectrum coverage initially, then de-escalate based on cultures.
What are the hemodynamic parameters in different shocks?
In distributive shock (septic): CO is high or normal, SVR is low, PCWP is low or normal, CVP is low or normal. In cardiogenic shock: CO is low, SVR is high, PCWP is high, CVP is high. In hypovolemic shock: CO is low, SVR is high, PCWP is low, CVP is low. In obstructive shock (tamponade, PE): CO is low, SVR is high, PCWP variable, CVP is high (or equalized in tamponade).
What is the MAP target in septic shock?
The MAP target in septic shock is greater than or equal to 65 mmHg (Surviving Sepsis Campaign 2021). Higher targets (MAP 80-85) should be considered only in chronically hypertensive patients — the SEPSISPAM trial showed reduced need for RRT in this subgroup. Lower MAPs cause end-organ hypoperfusion; higher MAPs cause arrhythmia and vasopressor toxicity.
What is the crystalloid versus colloid debate?
Balanced crystalloids (Ringer lactate, Plasma-Lyte) are first-line resuscitation fluid in sepsis. Normal saline causes hyperchloremic metabolic acidosis (SMART trial). Albumin is a reasonable addition when large volumes of crystalloid have been given (ALBIOS trial). Hydroxyethyl starch (HES) is contraindicated in sepsis — increased AKI and mortality (CHEST, 6S trials). Gelatin colloids should also be avoided.
Ready to test your critical care knowledge? Pair this with the pharmacology MCQ strategy guide for vasopressor drug drills, and use the AI tutor to work through shock vignettes on demand.
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This content is for educational purposes for NEET PG exam preparation. It is not a substitute for professional medical advice, diagnosis, or treatment. Clinical information has been reviewed by qualified medical professionals.
Written by: NEETPGAI Editorial Team Reviewed by: Pending SME Review Last reviewed: March 2026
This article is reviewed by qualified medical professionals for clinical accuracy and exam relevance. For corrections or updates, contact the editorial team.
This content is for educational purposes for NEET PG exam preparation. It is not a substitute for professional medical advice, diagnosis, or treatment. Clinical information has been reviewed by qualified medical professionals.
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