Transfusion for the sickest ICU patients: Are there unanswered questions?

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Transfusion for the sickest ICU patients: Are there unanswered questions? Tim Walsh Professor of Critical Care Edinburgh University

None Conflict of Interest

Guidelines on the management of anaemia and red cell transfusion in adult critically ill patients. BRITISH COMMITTEE FOR STANDARDS IN HAEMATOLOGY Br J Haem. in press Andrew Retter, Duncan Wyncoll, Rupert Pearse, Damien Carson, Stuart McKechnie, Simon Stanworth, Shubha Allard, Dafydd Thomas, Tim Walsh GRADE RECOMMENDATIONS 1: Summary of the Grade Recommendations Determination of the quality of evidence - Underlying methodology A. Randomised control trial B. A downgraded randomised control trial or high quality observational studies C. Well-done observational studies D. Case series or expert opinion - Factors that may decrease the strength of evidence 1. Poor quality of planning and implementation of available randomised control studies, increasing the risk of bias 2. Inconsistency of results 3. Indirectness of evidence 4. Imprecision of results 5. High likelihood of reporting bias - Main factors that may increase the strength of the evidence 1. Large magnitude of effect (direct evidence, relative risk >2, with no plausible confounders) 2. Very large magnitude of effect with RR >5 and no threats to validity 3. Dose respondent gradient Factors determining strong vs. weak recommendations Quality of evidence Relative importance of outcomes Baseline risk of outcomes Magnitude of relative risk Precision of the estimates of effect Cost The lower the quality of evidence the weaker the recommendation If values and results vary widely the weaker the recommendation The higher the risk, the greater the magnitude of effect The greater the benefit the stronger the recommendation The greater the precision the stronger the recommendation The greater the cost the weaker the recommendation

General Critical Care A transfusion threshold of 70 g/l or below, with a target Hb range of 70-90 g/l, should be the default for all critically ill patients, unless specific co-morbidities or acute illnessrelated factors modify clinical decision-making. Grade 1B Transfusion triggers should not exceed 90 g/l in most critically ill patients. Grade 1B TRICC NEJM 1999 Non-leucodepleted RBCs Storage age ICU practice >14 years ago

Transfusion in Critical Care: Cohort studies Reference Region Participant Numbers RBCT Prevalence Hb level prompting transfusion (Rao et al., 2002) UK 1500 53% 8.5g/dL (Chohan et al., 2003) UK 176 52% - (Walsh et al., 2004) UK 1023 39.5% 7.8g/dL (Vincent et al., 2002) EU 3534 37% 8.4g/dL (Sakr et al., 2010) EU 5925 30.9% 8.2g/dL (Corwin et al., 2004) USA 4892 44% 8.6g/dL (French et al., 2002) AUS/NZ 1808 19.8% 8.2g/dL (ANZICS CTG 2010) AUS/NZ 5128 15% 7.7g/dL (Cohen et al., 2010) ISRAEL 238 50% 7.9g/dL

Variation in Transfusion practice in the UK ISOC (2006-07) data (M Seretny unpublished) 29 General ICUs; 1900 sequential admissions Mean Pre-transfusion Hb: 8.2g/dL (95%CI: 7.9 to 8.3). Comparison across 29 participating centres ANOVA P =0.002

weaning failure weaning failure stable ischaemic heart disease weaning failure with acute myocardial ischaemia

Admission ICU admission: Sepsis Elevated markers of cellular hypoxaemia Ischaemic heart disease Worsening organ failure Delayed weaning from mechanical ventilation Post-extubation recovery Discharge

Admission ICU admission: Sepsis Elevated markers of cellular hypoxaemia Ischaemic heart disease Worsening organ failure Delayed weaning from mechanical ventilation Post-extubation recovery Discharge

Sepsis In the early resuscitation of patients with severe sepsis, if there is clear evidence of inadequate DO 2, transfusion of RBCs to a target Hb of 90-100 g/l should be considered. Grade 2C Single centre RCT of complex intervention including transfusion Await: Rivers NEJM 2001 345: 1368-1377 ARISE (ANZICS); ProMISE (UK); PROCESS (USA) Transfusion Requirements in Septic Shock (TRISS; Scandinavian CCTG) During the later stages of severe sepsis, a restrictive approach to transfusion should be followed with a target Hb of 70-90 g/l. Grade 1B TRICC NEJM 1999

Ischaemic Heart Disease Patients suffering from acute coronary syndromes the Hb should be maintained at >80 g/l. Grade 2C Physiological rationale Cohort studies (conflicting results) Pilot RCT Am J Cardiol 2001 108:1108-1111 Anaemic critically ill patients with stable angina should have an Hb maintained >70 g/l, but transfusion to a Hb >100 g/l has uncertain benefit. Grade 2B Physiological rationale Sub-group analysis of TRICC trial Crit Care Med 2001 29: 227-234 Trials in other patient groups (TRACS; FOCUS)

Acute Coronary Syndromes Wu et al. NEJM 2001; 345:1230 Rao et al. JAMA 2004; 292:1555 Sabatine et al. Circulation 2005; 111:2042 Retrospective MI aged >65 Retrospective Analysis of RCT data sets NSTEMI Retrospective Analysis of RCT data sets STEMI and NSTEMI Anaemia associated with increased mortality Transfusions associated with decreased risk Anaemia associated with increased mortality Transfusions associated with increased mortality Anaemia (<14 g/dl) associated with increased mortality in STEMI. RBC transfusions decreased risk Anaemia (<11 g/dl) associated with increase in mortality for NSTEMI. RBC transfusions associated with increased risk Major clinical uncertainty PCA with widespread use of anti-platelet therapy increasing importance of issue

Is low transfusion threshold safe in critically ill patients with cardiovascular disease? Hebert PC et al. Crit Care Med 2001; 29: 227 Subgroup of 357 patients with cardiovascular disease 30 day mortality Difference 0.3% (-8.4% to 9.1%) Subgroup of 257 patients with ischaemic heart disease 30 day mortality Difference 4.9% (-15.3% to 5.6%)

Similar rates of composite outcome (death, cardiogenic shock, dialysis, ARDS) Trend to higher death rates in liberal group Higher complication rates in liberal group Transfusion an independent risk factor for adverse outcomes in multivariable model

Mean age 82 years; cardiovascular disease 63% Protocolised liberal versus clinician judgement restrictive No difference in death or physical ability No difference in cardiovascular complications No excess mortality among transfused patients (65% lower use of RBCs; 97% versus 41% transfusion exposure)

Admission ICU admission: Sepsis Elevated markers of cellular hypoxaemia Ischaemic heart disease Worsening organ failure Delayed weaning from mechanical ventilation Post-extubation recovery Discharge

TRICC NEJM 2009

Weaning failure Recommendation: Red cell transfusion should not be used as a strategy to assist weaning from mechanical ventilation when the Hb is >70 g/l. Grade 2D Sub-group analysis of TRICC trial Cohort studies Case reports

A feasibility randomized trial comparing restrictive and liberal blood transfusion strategies in patients requiring four or more days in intensive care ISRCTN24842715; Clinicaltrials.gov NCT00944112

Inclusion Criteria 1. The patient remains in the ICU after 96 hours (4 days) or more following ICU admission 2. The patient has required mechanical ventilation via an endotracheal tube or tracheostomy tube for 96 hours or more 3. The patient is expected to require 24 hours of further mechanical ventilation at the time of assessment 4. The patient is aged >55 years of age 5. The patient has a Hb value of 90g/L or less at the time of assessment

Intervention Restrictive Group: Single unit RBC transfusions with a transfusion trigger of 70 g/l Target Hb concentration of 71-90 g/l during the intervention period Liberal Group: Single unit RBC transfusions with a transfusion trigger of 90 g/l Target of 91-110 g/l during intervention. All patients transfused within 24 hours of randomisation Duration: 14 days or ICU discharge whichever longer

Total Admissions N = 3394 Failed to meet all inclusion criteria N = 119 Not approached for consent N = 40 No available relative (17) No available research staff (2) Clinician refusal (18) Communication difficulties (3) Restrictive group N = 51 Patients 55, ventilated >96 hours N =406 Eligible patients N = 200 Approached for Consent N = 160 Randomised N = 100 Exclusion criteria N = 87 Bleeding (1) Brain Injury (11) Intracranial haemorrhage (25) Survival expected <48 hours (18) Transfusion objection (1) Erythropoietin therapy (2) Follow up not feasible (12) Enrolled in another trial (17) Consent declined N = 60 Liberal group N = 49 6% of all ICU admissions eligible Recruitment achieved 9% clinician refusal 63% consent rate from relatives/patients 50% of eligible patients entered trial 60 day follow up Deaths 14 RMI complete 29 SF-12 complete 23 60 day follow up Deaths 22 RMI complete 26 SF-12 complete 23 180 day follow up Deaths 19 RMI complete 29 SF-12 complete 28 HE questionnaire 29 180 day follow up Deaths 27 RMI complete 21 SF-12 complete 21 HE questionnaire 20

Baseline characteristics Variable Male N (%) Documented ischemic heart disease N (%) APACHE II score Mean (SD) Charlson comorbidity index Median (1 st, 3 rd quartile; range) Proportion of patients with organ dysfunction Respiratory Coagulation Hepatic Cardiovascular Renal Restrictive Transfusion Group (N = 51) 36 (70.6) 24 (49.0) 17 (33.3) 15 (30.6) 20.2 (6.6) 21.5 (6.4) Liberal Transfusion Group (N = 49) 2 (1, 2; 0 9) 2 (1, 4; 0 9) 100 43.1 25.5 76.5 56.9 100 30.6 22.4 59.2 57.1

Hemoglobin Value (g/l) 125 Plot of Hemoglobin value by Timepoint and Randomised Group Randomised Group Restrictive Liberal 100 75 50 Rand Day Day 1 Day 2 Day 3 Day 4 Day 5 Severity of anaemia (mean) Liberal: Hb 95.7 (6.3) g/l Restrictive: Hb 81.9 ( 5.1) g/l Duration of intervention (median) Liberal 16 days (15, 27; 1-61). Restrictive 17 days (13, 32; 3-61) Day 6 Day 7 Day 8 Day 9 Day 10 Day 11 Day 12 Day 13 Day 14... Last Day

Secondary outcomes Mortality (ICU; hospital; 30, 60, and 180 days after randomisation) HRQoL among survivors at 60 and 180 days after randomisation Physical function at 60 and 180 days after randomisation ICU and hospital length of stay following randomisation Change in organ failures occurring in the ICU postrandomisation Ventilation free days during 60 days after randomisation Antibiotic-free days during 60 days follow up Incidence of adverse events: acute coronary syndromes Thromboembolic (including stroke)

% of patients with event Difference in Mortality over 180 days follow up 100% 90% 80% P=0.089 70% 60% Restrictive Liberal 50% 40% 30% 20% 10% 0% Months since Randomisation 0 1 2 3 4 5 Number at risk: Restrictive 51 39 36 34 31 31 Liberal 49 33 27 26 23 22 Cohort mortality 46% Unadjusted HR 0.60 (95% CI: 0.34 to 1.09; P = 0.093) Adjusted HR 0.53 (95% CI: 0.28 to 1.03; P = 0.061) (Gender; age; APACHE II; baseline SOFA; IHD)

Difference in physical function and quality of life among survivors Outcome Median (1 st, 3 rd quartile; range) Restrictive Transfusion Group (N = 51) Liberal Transfusion Group (N = 49) Difference in medians (95% confidence intervals) Rivermead Mobility Index (0 to 15) 180 days 13 (7, 15; 0 15) 10 (5, 12; 0 15) 1.9 (-1.0 to 4.9) SF-12 Physical Function Score (0 to 100) 180 days 30 (24, 40; 12-54) 31 (24, 39; 20-44) -1.2 ( -8.9 to 6.5) SF-12 Mental Component Score (0 to 100) 180 days 51 (31, 57; 16-71) 39 (34, 48; 16-67) 12.1 ( 0.2 to 24.1)

Pre-defined adverse events Acute Coronary Syndrome N (%) Restrictive Transfusion Group (N = 51) 2 (3.9) 2 (4.1) Liberal Transfusion Group (N = 49) Thrombotic events N (%) Pulmonary embolus Deep vein thrombosis Cerebral infarct Other thrombotic event Any thrombotic event 0 (0) 1 (2) 0 (0) 5 (9.8) 6 (11.8) 0 (0) 0 (0) 1 (2) 2 (4.1) 3 (6.1)

Admission ICU admission: Sepsis Elevated markers of cellular hypoxaemia Ischaemic heart disease Worsening organ failure Delayed weaning from mechanical ventilation Post-extubation recovery Discharge

Post-ICU anaemia: A consequence of evidence based transfusion practice Walsh et al. Intensive Care Medicine 2006; 32: 1206 Prevalence of different degrees of anaemia at hospital discharge. Hb level Males (n=161) N (%) Females (n=122) N (%) All patients (n=283) N (%) Hb < 90 g/l 14 (8.7) 18 (14.8) 32 (11.3) Hb < 100g/L 48 (29.8) 44 (36.1) 92 (32.5) Hb < reference range. 137 (85.1) 82 (67.2) 219 (77.4) 85% normochromic normocytic Bateman et al. CCM 2009; 37: 1906 32% Hb <11 g/dl at 3 months Associated with persisting inflammation and low QoL scores

Unanswered questions? Uncertainties about the product: Leucodepletion; Storage age Variation in clinical practice Early sepsis Answers coming? Comorbidities and illness severity Post-ICU recovery