ANZCA Primary interactive diagrams
114 interactive teaching figures mapped to 85 ANZCA Primary learning objectives. Each diagram opens inside the matching note in Primex.
Section 1
Anatomy of the epidural and subarachnoid spaces
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BT_RA 1.4 Dermatomes & myotomesDermatomes & myotomes — Describe the anatomy of the vertebral column, spinal cord and meninges relevant to the performance of central neuraxial block with appropriate surface markings.
Section 2
Drug-receptor interaction: receptor theory, signalling and dose-effect relationships
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BT_GS 1.3 Dose-response curvesDose-response curves — Define and explain dose-effect relationships of drugs with reference to: • Graded and quantal response • Therapeutic index • Potency and efficacy • Competitive and non-competitive antagonists • Partial agonists, mixed ag…
Dose-response curves: efficacy, potency and receptor affinity
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BT_GS 1.4 Dose-response curvesDose-response curves — Describe efficacy and potency with reference to dose-response curves
Pharmacokinetic modelling, absorption, distribution and clearance
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BT_GS 1.7 PK compartment modelsPK compartment models — Explain the concept of pharmacokinetic modelling of single and multiple compartment models and define: • Half life • Clearance • Zero and first order kinetics • Volume of distribution • Bio-availability • Area under the …
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BT_GS 1.8 Concentration–time curves & steady stateConcentration–time curves & steady state — Describe drug absorption with reference to clinically utilised routes of administration
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BT_GS 1.10 Concentration–time curves & steady stateConcentration–time curves & steady state — Describe the mechanisms of drug clearance and how physiological and pathological disturbance may affect these
Drug metabolism, infusion kinetics and therapeutic drug monitoring
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BT_GS 1.11 CYP450 inducer / inhibitor mapCYP450 inducer / inhibitor map — Describe the mechanisms of non-hepatic and hepatic metabolism of drugs including: • Phase 1 and phase 2 reactions • Hepatic extraction ratio and its significance • First pass effect • Enzyme induction and inhibition
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BT_GS 1.12 Context-sensitive half-time + PK compartment models + Concentration–time curves & steady stateContext-sensitive half-time + PK compartment models + Concentration–time curves & steady state — Explain and describe the clinical application of concepts related to intravenous and infusion kinetics including: • Effect-site and effect-site equilibration time • Concept of context sensitive half time • Calculation of…
Mechanisms of drug interactions
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BT_GS 1.19 CYP450 inducer / inhibitor mapCYP450 inducer / inhibitor map — Describe the mechanisms of drug interactions
Section 4
Inhalational agents: physical properties, uptake and distribution
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BT_GS 1.24 Inhalational agent FA/FI uptakeInhalational agent FA/FI uptake — Describe the uptake, distribution and elimination of inhalational anaesthetic agents and the factors which influence induction and recovery from inhalational anaesthesia including the: • Concepts of partition coefficient…
Intravenous induction and sedative agents: properties, kinetics and adverse effects
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BT_GS 1.30 PK compartment modelsPK compartment models — Discuss the pharmacokinetics of IV anaesthetic and sedative agents, including: • Onset and offset • Clinical implications of differences between drugs
Target-controlled infusion models
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Context-sensitive half-time + PK compartment models — Outline the similarities and differences between commonly used Target Controlled Infusion (TCI) models
Section 5
Effects of anaesthesia and ventilation on respiration
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BT_AM 1.19 Mechanical ventilation modesMechanical ventilation modes — Describe different modes of mechanical ventilation and their physiological consequences
Surfactant, compliance and time constants
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Lung + chest wall compliance (Campbell diagram) — Define compliance (static, dynamic and specific) and relate this to the elastic properties of the lung
Pleural pressure and chest wall mechanics
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Lung + chest wall compliance (Campbell diagram) — Describe the elastic properties of the chest wall and plot pressure-volume relationships of the lung, chest wall and the total respiratory system
Lung volumes and dead space
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BT_PO 1.20 Lung volumes & capacitiesLung volumes & capacities — Describe lung volumes and capacities, their measurement and normal values
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BT_PO 1.21 Oxygen cascade — atmosphere to mitochondrionOxygen cascade — atmosphere to mitochondrion — Describe dead space, its measurement and apply the Bohr equation and alveolar gas equation
Alveolar gas composition and oxygen cascade
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BT_PO 1.22 Oxygen cascade — atmosphere to mitochondrionOxygen cascade — atmosphere to mitochondrion — Describe the composition of ideal alveolar and mixed expired gases
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BT_PO 1.23 Oxygen cascade — atmosphere to mitochondrionOxygen cascade — atmosphere to mitochondrion — Describe the oxygen cascade
Diffusion across the alveolar-capillary membrane
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BT_PO 1.24 Oxygen cascade — atmosphere to mitochondrionOxygen cascade — atmosphere to mitochondrion — Describe the alveolar exchange of oxygen and carbon dioxide
V/Q matching and West's zones
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BT_PO 1.26 V/Q distribution (West / Riley)V/Q distribution (West / Riley) — Describe normal ventilation-perfusion matching
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BT_PO 1.27 V/Q distribution (West / Riley)V/Q distribution (West / Riley) — Describe West’s zones of the lung
Shunt and V/Q inequality
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V/Q distribution (West / Riley) + Oxygen cascade — atmosphere to mitochondrion — Describe the shunt equation
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BT_PO 1.29 V/Q distribution (West / Riley)V/Q distribution (West / Riley) — Discuss regional ventilation-perfusion inequalities and abnormalities, venous admixture, and the effect on oxygenation and carbon dioxide elimination
Oxygen and carbon dioxide carriage in blood
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Oxyhaemoglobin dissociation curve + Oxygen cascade — atmosphere to mitochondrion — Discuss the carriage of oxygen in blood, the oxyhaemoglobin dissociation curve, oxygen stores in the blood and their clinical significance and implications
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BT_PO 1.32 CO₂ dissociation curve (Haldane effect)CO₂ dissociation curve (Haldane effect) — Discuss the carriage of carbon dioxide in blood, the carbon dioxide dissociation curve and their clinical significance and implications
Positive pressure ventilation, PEEP and hypoxaemia
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BT_PO 1.35 Mechanical ventilation modesMechanical ventilation modes — Discuss the physiological consequences of intermittent positive pressure ventilation and positive end-expiratory pressure
Section 6
Pharmacology of autonomic nervous system drugs: sympathomimetics
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BT_PO 1.52 Vasopressor & inotrope selectorVasopressor & inotrope selector — Describe the mechanism of action and effects of sympathomimetic and anticholinergic drugs
Adrenergic blocking agents and autonomic drug interactions
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Psychotropic receptor profiles & dopamine pathways — Outline clinically important drug interactions with the autonomic nervous system (e.g. tricyclic antidepressants, monoamine oxidase inhibitors)
Pharmacology of vasopressors and inotropes
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BT_RT 1.17 Vasopressor & inotrope selectorVasopressor & inotrope selector — With reference to the management of shock, describe the pharmacology of vasopressors and inotropes
Section 7
Anatomy of the heart, great vessels, and coronary circulation
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BT_PO 1.42 ECG — coronary territoriesECG — coronary territories — Describe the anatomy of the heart including the coronary circulation and territories supplied
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Wiggers diagram — cardiac cycle (animated) + Cardiac action potential — Describe the physiological basis of electrical activity and its relationship to mechanical events including the: • Ionic basis of automaticity • The normal and abnormal processes of cardiac excitation • Physiological bas…
Pressure-volume relationships of the cardiac cycle, Starling relationships
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BT_PO 1.44 Cardiac action potentialCardiac action potential — Describe the physiology of cardiac muscle and the mechanism of excitation contraction coupling
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Ventricular pressure-volume loop + PV loop — valve lesions — Describe the events of the cardiac cycle using a Wiggers diagram and pressure-volume loop
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Frank-Starling curve + PV loop — valve lesions — Discuss the factors that determine and control cardiac output and the implications for clinical practice including: • Preload, afterload and contractility • The Frank-Starling mechanism • Cardiac output and vascular func…
Applied cardiovascular physiology including exercise, Valsalva, posture, gravity, IPPV and PEEP
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BT_PO 1.48 Mechanical ventilation modesMechanical ventilation modes — Discuss the cardiovascular responses to: • Changes in posture • Exercise • Valsalva manoeuvre • Positive pressure ventilation and PEEP • Pneumoperitoneum • Haemorrhage and hypovolaemia • Surgery and trauma
Pharmacology of antiarrhythmic drugs
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BT_PO 1.56 Cardiac action potentialCardiac action potential — Outline the physiological and pharmacological basis of classifying antiarrhythmic agents
Pharmacology of antihypertensive agents / Pharmacology of antianginal agents
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BT_PO 1.58 Renin-angiotensin-aldosterone systemRenin-angiotensin-aldosterone system — Describe the pharmacology of • Glyceryl trinitrate • Sodium nitroprusside Outline the pharmacology of other antihypertensive agents
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BT_PO 1.59 ECG — coronary territoriesECG — coronary territories — Outline the pharmacology of drugs used to manage myocardial ischaemia/infarction
Pharmacology of drugs used in cardiac failure
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Nephron + diuretic sites + Renin-angiotensin-aldosterone system — Outline the pharmacology of drugs used to manage acute or chronic cardiac failure
Oxygen delivery, consumption and the oxygen flux equation
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BT_RT 1.4 Oxygen delivery & consumption (DO₂/VO₂)Oxygen delivery & consumption (DO₂/VO₂) — Describe oxygen delivery and outline the use of indicators of tissue oxygenation (base deficit, lactate, mixed venous oxygen saturation) in resuscitation
Section 8
Nephron anatomy, renal blood flow and glomerular filtration
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BT_PO 1.61 Nephron + diuretic sitesNephron + diuretic sites — Outline the functional anatomy of the nephron
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Renal autoregulation (RBF + GFR vs MAP) + Renin-angiotensin-aldosterone system + Acute kidney injury staging — Explain the physiology of renal blood flow
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Starling capillary forces + Nephron + diuretic sites + Acute kidney injury staging — Describe glomerular filtration and tubular function
Regulation and measurement of renal function
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Renal autoregulation (RBF + GFR vs MAP) + Nephron + diuretic sites + Renin-angiotensin-aldosterone system + Acute kidney injury staging — Explain the mechanisms involved in the regulation of renal function
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BT_PO 1.68 Starling capillary forces + Renal autoregulation (RBF + GFR vs MAP) + Acute kidney injury stagingStarling capillary forces + Renal autoregulation (RBF + GFR vs MAP) + Acute kidney injury staging — Describe the principles of measurement of glomerular filtration rate and renal blood flow
Endocrine and metabolic functions of the kidney
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BT_PO 1.66 Nephron + diuretic sites + Renin-angiotensin-aldosterone system + Acute kidney injury stagingNephron + diuretic sites + Renin-angiotensin-aldosterone system + Acute kidney injury staging — Outline the endocrine functions of the kidney
Renal regulation of electrolytes and body fluid composition and volume
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BT_PO 1.69 Acute kidney injury stagingAcute kidney injury staging — Describe the physiological effects and clinical assessment of renal dysfunction
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Renin-angiotensin-aldosterone system + Acute kidney injury staging — Explain the renal responses to hypovolaemia
Pharmacology of diuretics
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BT_PO 1.81 Nephron + diuretic sitesNephron + diuretic sites — Classify diuretics based on their site of action
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BT_PO 1.82 Nephron + diuretic sitesNephron + diuretic sites — Outline the pharmacology of diuretics
Section 9
Electrolyte composition of body fluids, ionic equilibria, and transport of ions
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Sodium & water disorders + IV fluid composition — Describe the function, distribution and physiological importance of sodium, chloride, potassium, magnesium, calcium and phosphate ions
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Renin-angiotensin-aldosterone system + Sodium & water disorders + IV fluid composition — Describe the mechanisms involved in the maintenance of fluid and electrolyte balance
Body fluids: total body water, intracellular and extracellular compartments, interstitial fluid
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Renin-angiotensin-aldosterone system + Sodium & water disorders + IV fluid composition — Describe the regulation of osmolality
Venous and capillary systems, micro-circulation, lymphatics
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BT_PO 1.77 Starling capillary forcesStarling capillary forces — Outline the significance of oncotic pressure, colloid osmotic pressure and reflection coefficients
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BT_PO 1.77a Sodium & water disorders + IV fluid compositionSodium & water disorders + IV fluid composition — Describe the body fluid ‘compartments’ and the movement of fluid between compartments
Intravenous fluids including crystalloids and colloids
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BT_PO 1.77b Sodium & water disorders + IV fluid compositionSodium & water disorders + IV fluid composition — Describe the chemical composition of crystalloids and colloids, and their use as volume replacement and maintenance fluid, including potential adverse effects
Section 10
Acid-base balance including buffer systems, the Henderson-Hasselbalch equation, base excess
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Davenport acid-base diagram + Anion gap and delta ratio + ABG interpretation algorithm — Describe the regulation of acid/base balance
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Davenport acid-base diagram + Anion gap and delta ratio + ABG interpretation algorithm — Describe acid-base chemistry using the Henderson- Hasselbach equation and strong ion difference
Section 11
Cerebral blood flow regulation, autoregulation and perfusion pressure
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BT_RT 1.12 Monro-Kellie intracranial volume + ICP curveMonro-Kellie intracranial volume + ICP curve — Discuss the factors determining intracranial pressure and its regulation
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Cerebral autoregulation (CBF vs MAP / PaCO₂ / PaO₂) — Describe the regulation of cerebral blood flow, and factors leading to loss of autoregulation
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BT_RT 1.14 Cerebral autoregulation (CBF vs MAP / PaCO₂ / PaO₂) + Monro-Kellie intracranial volume + ICP curveCerebral autoregulation (CBF vs MAP / PaCO₂ / PaO₂) + Monro-Kellie intracranial volume + ICP curve — Describe cerebral perfusion pressure
Pharmacology of antidepressants and antipsychotics
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Psychotropic receptor profiles & dopamine pathways — Outline the pharmacology of drugs acting via effects on serotonin or serotonin receptors
Section 12
Opioid pharmacology — receptors, mechanism of action and agonist-antagonist types
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BT_PM 1.14 Dose-response curvesDose-response curves — Describe the actions of agonists, partial agonists, mixed agonist-antagonists and antagonists
Anatomy of the brachial plexus
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BT_RA 1.5 Dermatomes & myotomesDermatomes & myotomes — Outline the dermatomal innervations
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BT_RA 1.6 Dermatomes & myotomesDermatomes & myotomes — Outline the myotomal innervations
Section 13
Neuromuscular blockade: onset, offset and adverse effects
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BT_GS 1.38 Train-of-four monitoringTrain-of-four monitoring — Describe the adverse effects of neuromuscular blocking agents and factors that may modify responses to muscle relaxants
Section 16
Nutrition, metabolism, and energy balance
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BT_PO 1.85 Glucose homeostasisGlucose homeostasis — Explain the control of blood glucose
The pituitary gland and hypothalamus / Thyroid hormones and their control
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BT_PO 1.87 Hypothalamic-pituitary-adrenal axisHypothalamic-pituitary-adrenal axis — Outline control of secretion and the functions of: • Pituitary hormones • Thyroid hormones • Adrenocortical hormones • Adrenomedullary hormones
Pharmacology of corticosteroids
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BT_PO 1.90 Glucose homeostasisGlucose homeostasis — Outline the pharmacology of: • Insulin preparations • Oral hypoglycaemics
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Hypothalamic-pituitary-adrenal axis + Glucose homeostasis — Outline the pharmacology of: • Thyroid hormone replacement and anti- thyroid drugs • Corticosteroids • Glucagon • Vasopressin and analogues
Section 17
White blood cells
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BT_PO 1.110 Iron homeostasisIron homeostasis — Describe the physiological consequences of acute and chronic anaemia, including iron deficiency.
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BT_PO 1.112 Coagulation cascadeCoagulation cascade — Describe the physiology of haemostasis, including: • Coagulation • The role of platelets • Fibrinolysis
Coagulation cascade and fibrinolysis / Platelets and their role in haemostasis
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BT_PO 1.114 Coagulation cascadeCoagulation cascade — Describe the methods for assessing coagulation, platelet function and fibrinolysis
Pharmacology of protamine
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BT_PO 1.118 Coagulation cascadeCoagulation cascade — Describe the pharmacology of heparin and low molecular weight heparins including their side-effects
Anticoagulant pharmacology and reversal
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BT_PO 1.120 Coagulation cascadeCoagulation cascade — Describe the pharmacology of warfarin and other anticoagulant drugs
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BT_PO 1.121 Coagulation cascadeCoagulation cascade — Describe methods to reverse the effect of warfarin and other anticoagulant drugs
Pharmacology of iron replacement / Blood groups and transfusion
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BT_PO 1.124a Iron homeostasisIron homeostasis — Outline the pharmacology of iron replacement
Section 18
Immune defence, anaesthetic effects and hypersensitivity
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BT_PO 1.128 Complement cascade & hypersensitivity I–IVComplement cascade & hypersensitivity I–IV — Describe the immunology and pathophysiology of hypersensitivity reactions
Antimicrobial pharmacology, prophylaxis and antiseptics
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BT_PO 1.130 Antimicrobial PK/PD targetsAntimicrobial PK/PD targets — Describe the pharmacology of antimicrobial drugs used perioperatively, including their spectrum of activity.
Systemic inflammatory response and anaphylaxis
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Complement cascade & hypersensitivity I–IV — Describe the immunology and pathophysiology of anaphylaxis.
Section 21
Neonatal organ system physiology, fluids and glucose homeostasis
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SS_PA 1.26 Glucose homeostasisGlucose homeostasis — Outline glucose homeostasis in the neonate and explain the changes that occur with growth and development
Section 22
Neuromuscular monitoring including train-of-four and other methods
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BT_GS 1.55 Train-of-four monitoringTrain-of-four monitoring — Describe the concept of depth of neuromuscular blockade and explain the use of neuromuscular monitoring
Principles of measurement, SI units
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BT_SQ 1.6 Capnography waveform interpreterCapnography waveform interpreter — Describe the methods of measurement applicable to anaesthesia, including clinical utility, complications and sources of error in particular: • SI units • Measurement of volumes, flows, and pressures, including transducer…
Additional diagrams
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BT_PO 1.111 Iron homeostasisIron homeostasis
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