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Does a conservative fluid management strategy in the perioperative management of lung resection

Does a conservative ?uid management strategy in the perioperative management of lung resection patients reduce the risk of acute

lung injury?

Robert G.Evans a,b and Babu Naidu a,b,*

a Department of Thoracic Surgery,Heart of England NHS Foundation Trust,Birmingham,UK b

University of Warwick,Coventry,UK

*Corresponding author.Department of Thoracic Surgery,Heart of England NHS Foundation Trust,Bordesley Green East B95SS,UK.Tel:+44-121-4243561;fax:+44-1214240562;e-mail:babu.naidu@https://www.doczj.com/doc/9b13647866.html, (B.Naidu).

Received 6December 2011;received in revised form 23March 2012;accepted 1April 2012

Abstract

A best evidence topic in thoracic surgery was written according to a structured protocol.The question addressed was whether a conser-vative ?uid management strategy in the perioperative management of lung resection patients is associated with a reduced incidence of postoperative acute lung injury (PALI)and/or acute respiratory distress syndrome (ARDS)in the recovery period.Sixty-seven papers were found using the reported search,of which 13level III and 1level IV evidence studies represented the best evidence to answer the question.Two retrospective case-control studies demonstrated a direct association between liberal ?uid intake and the incidence of PALI/ARDS following lung resection on multivariate analysis (MV A)with odds ratios (ORs)of 1.42(95%CI 1.09–4.32,P =0.011)and 2.91(1.9–7.4,P =0.001).In non-PALI/ARDS cases,the mean intraoperative ?uid infusion volume was signi ?cantly less [1.22l (1.17–1.26)vs 1.68l (1.46–1.9)P =0.005],the ?uid balance over the ?rst 24postoperative hours was signi ?cantly less [1.52l positive (1.44–1.60)vs 2.0l positive (1.6–2.4)P =0.026]and cumulated intra-and postoperative ?uid infusion was signi ?cantly less [2.0ml/kg/h (1.7–2.3)vs 2.6ml/kg/h (2.3–2.9)P =0.003].These data show that the difference between ?uid regimes associated with an increased incidence of PALI/ARDS (i.e.‘liberal ’)and those which are not (i.e.‘conservative ’)is narrow but signi ?cant.However,this does not prove a causative role for liberal ?uid in the multifactorial development of PALI/ARDS.On this best evidence,we recommend intra-and postoperative maintenance ?uid to be administered at 1–2ml/kg/h and that a positive ?uid balance of 1.5l should not be exceeded in the perioperative period with caution being exercised with regard to the adequacy of oxygen delivery.If the ?uid balance exceeds this threshold,a high index of suspicion for PALI/ARDS should be adopted and escalation of the level of care should be considered.If a patient develops signs of hypoperfusion after these thresholds are exceeded,inotropic/vasopressor support should be considered.

Keywords:Pneumonectomy ?Lung resection ?Postoperative acute lung injury (PALI)?Acute respiratory distress syndrome (ARDS)?Fluid balance

INTRODUCTION

A best evidence topic was constructed according to a structured protocol as described in ICVTS [1].

THREE-PART QUESTION

In [perioperative lung resection patients]is [a conservative ?uid management strategy]superior to [a liberal ?uid management strategy]in terms of [reduced incidence of postoperative acute lung injury/acute respiratory distress syndrome]?

CLINICAL SCENARIO

A 61-year old man underwent an open left lower lobectomy.He received 2.1l of intravenous crystalloid intraoperatively and in

the ?rst 24h postoperatively,he received ?uids at 125ml/h.He weighed 85kg.Eight hours postoperatively,his urine output was 10ml/h for two consecutive hours.His ?uid balance was 2.3l positive for the last 24h.You consider whether to administer a ?uid challenge or to commence vasopressor/inotropic support mindful of the risk of postoperative acute lung injury (PALI)/acute respiratory distress syndrome (ARDS).

SEARCH STRATEGY

MEDLINE was searched from 1950to October 2011,and EMBASE was searched from 1980to October 2011using the OVID interface.The search terms were:[acute lung injury.mp OR acute respiratory distress syndrome.mp OR pulmonary oedema.mp]AND [lung resection.mp OR pneumonectomy.mp OR lobec-tomy.mp]AND [intravenous ?uid.mp OR ?uid balance.mp].The Cochrane library was also searched using the same terms.

?The Author 2012.Published by Oxford University Press on behalf of the European Association for Cardio-Thoracic Surgery.All rights reserved.

Interactive CardioVascular and Thoracic Surgery 15(2012)498–504BEST EVIDENCE TOPIC -THORACIC

doi:10.1093/icvts/ivs175Advance Access publication 22May 2012

Table1:Relevant papers

Author,date and

country

Study type(level of

evidence)

Patient group Outcomes Key results Comments

Licker et al.(2003) Anesth Analg, Switzerland,USA[3] Prospective

case-control study (level III)n=879

Lung resections(all types)for

NSCLC

1991–2002

Fluid regimen:

1ml/kg/h in addition to

replacement of losses intra-

and postoperatively

PALI/ARDS:

37(4.2%)

(Using consensus criteria[4])

UVA:

Cumulated intra-and

postoperative crystalloid

fluid infusion ml/kg/h

(mean:95%CI):

PALI/ARDS group;

2.6ml/kg/h(2.3–2.9)

Non-PALI/ARDS group;

2.0ml/kg/h(1.7–2.3)

P=0.003

MVA:

Fluid infusion(cumulated

intra-and postoperative)

is associated with PALI/

ARDS by an OR of2.91

(95%CI:1.9–7.4)

P=0.001

Increasing fluid infusion is shown

to be associated with PALI/ARDS

by UVA and MVA

Factors included in the MVA:

Chronic alcohol excess

Pneumonectomy

Ventilatory hyperpressure

Fluid infused

Licker et al.(2009) Critical Care, Switzerland,USA[2] Retrospective

case-control study (level III)n=1091

Lung resection(all types)for

primary lung cancer

1997–2008

Fluid regimen:

Intraoperative crystalloid:

2–4ml/kg/h in addition to

replacement of losses

Protected lung ventilation

strategy group(2003–2008)

n=558

PALI/ARDS:

5(0.9%)

Standard ventilator strategy

group(1997–2003)

n=533

PALI/ARDS:

19(3.7%)

(Using consensus criteria[4])

Both cohorts had similar

baseline characteristics

UVA:

OR:1.33(95%CI:1.02–

5.08)per1ml/kg/h

increase in intra-and

postoperative fluid

administration

P=0.032

MVA:

OR:1.42(95%CI:1.09–

4.32)per1ml/kg/h

increase in intra-and

postoperative fluid

administration

P=0.011

Increasing fluid infusion is shown

to be associated with PALI/ARDS

by UVA and MVA

Factors included in the MVA:

Chronic alcohol excess

Chemoradiotherapy

Advanced TNM stage

Pneumonectomy

Fluid infused

Blank et al.(2011) Ann Thorac Surg, USA[6] Retrospective case-control study (level III)n=129

Pneumonectomy

1997–2008

Fluid regimen:

intraoperative fluid

management of1ml/kg/h

titrated to a mean arterial

pressure of75%of

preoperative average

All respiratory complications:

27(21%)

PALI/ARDS:

9(7%)

(Using consensus criteria[4])

UVA:

All respiratory

complications group:total

intraoperative fluid;

2.7l(95%CI:2.0–4.0)

No respiratory

complications group;

1.8l(1.5–

2.5)

P<0.001

MVA:

No significant association

Fluid is assessed against a

composite outcome of all

respiratory complications,not

individually against PALI/ARDS

Small cohort of PALI/ARDS cases

Factors included in MVA:

Blood product usage

Total fluids per litre

Surgical indication(benign vs

malignant)

Pneumonectomy type

Duration of anaesthesia

ASA status

Alam et al.(2007) Ann Thoracic Surg, USA[5] Retrospective case-control study (level III)n=152

Lung resection(all types)for

primary lung cancer

2001–2004

Fluid regimen:

Intraoperative fluid restriction

was used for all patients

Primary lung injury:

76(5.3%)

Primary lung injury=clinical

diagnosis of PALI/ARDS

without available arterial

blood-gas data

PALI/ARDS:

44(3.1%)

(Using consensus criteria[4])

UVA:

Primary lung injury group

(n=76):

Mean perioperative fluids

infused;

2.75l(95%CI:1.35–5)

Control group(n=76):

2.5l(1.4–4.5)

OR1.2(95%CI:1.0–1.4)

P=0.05

Evidence on MVA that increasing

perioperative fluid administration

is associated with‘primary lung

injury’

Absence of arterial blood gas data

on32patients means that the true

incidence of PALI/ARDS according

to[3]guidelines may be over-or

under-estimated.

Analysis of fluid volume against

confirmed cases of PALI/ARDS(44)

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Table1:(Continued)

Author,date and

country

Study type(level of

evidence)

Patient group Outcomes Key results Comments

MVA:

For every500ml increase in perioperative fluid administration:

OR1.2(95%CI:1–1.4)for postoperative primary lung injury

P=0.02was not performed Group matching: Smoking status Extended resection? Sex

pT,pN,pM status

Marret et al.(2010) Interact CardioVasc Thorac Surg,France [7] Retrospective case-control study (level III)n=129

Pneumonectomy

2000–2005

Fluid regimen:

Not defined

PALI/ARDS:

9(7%)

(Using consensus criteria[4])

UVA:

Total intra-and

postoperative fluid

infusion(l):

Patients with all major

complications(n=55);

3.8l±1.5(mean±SD)

Patients without major

complications(n=74);

2.5l±1.3(mean±SD)

OR:1.91(95%CI:1.47–

2.83)

P<0.0001

MVA:

OR1.96per litre increase

(95%CI:1.45–3.16)

P<0.0001

Total fluid infusion was assessed

against all major complications

rather than PALI/ARDS individually

on UVA and MVA

Small sample size(n=9)

Factors included in MVA:

ASA class

Age

Smoking history

COPD

Haemoglobin

Neutrophil count

Urea and creatinine

Total fluid infusion(l)

Peak pressure(cm water)

Tidal volume(ml/kg PBW)

Transfusion(%)

Operating time(min)

Fernandez-Perez et al.(2006) Anesthesiology, USA[8]

Retrospective case-control study (level III)n=170

Pneumonectomy

1999–2003

Fluid regimen:

Not defined

PALI/ARDS:

15(9%)

(Using consensus criteria[4])

Respiratory failure of other

aetiologies:

15(9%)

Total incidence of respiratory

failure:

30(18%)

UVA:

Respiratory failure of all

causes(30):

Median intraoperative

fluid volume infused:2.2l

(inter-quartile range:1.4–

3.7)

Patients without

respiratory failure(140):

Median intraoperative

fluid volume infused1.3l

(inter-quartile range:0.9–

2.7)

P<0.001

MVA:

Per litre of fluid infused

intraoperatively:

OR1.34(95%CI:0.83–

2.09)

P=0.201(not significant)

Fluid input was not directly

assessed against cases of PALI/

ARDS

No effect of increased fluid was

found on MVA

Factors included in MVA:

Intraoperative VT

Preoperative FVC

Fluid

Intraoperative VT x fluid

Parquin et al.(1996) Eur J Cardiothoracic Surg,France[11] Retrospective

case-control study (level III)n=146

Pneumonectomy

1992–1992

Fluid regimen:

Not defined

Pulmonary oedema within

first postoperative week:

22(15%)

Severe pulmonary oedema

within first postoperative

week:

5(3.4%)

Pulmonary oedema criteria:

Tachypnoea

UVA:

Total intraoperative fluid

load≥2l

Pulmonary oedema within

first postoperative week

(n=22):10(45%)

Control group(n=124):

25(20%).

P<0.01

No arterial blood gas data

Consensus criteria[4]are not used

Data confounded by mild

pulmonary oedema

Impossible to directly compare

this study to others

Factors included in MVA: R.G.Evans and B.Naidu/Interactive CardioVascular and Thoracic Surgery

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Table1:(Continued)

Author,date and

country

Study type(level of

evidence)

Patient group Outcomes Key results Comments

Crackles

Edematous Sputum Diffuse infiltrates on chest radiographs MVA:

Total intraoperative fluid

load≥2l is associated with

pulmonary oedema of all

severities(P=0.02)

Prior radiotherapy

Total fluid load≥2l

Remaining lung perfusion≤55%

Moller et al.(2002) Eur Resp J, Denmark[9] Retrospective case-control study (level III)n=107

Pneumonectomy

4-year period

Fluid regimen:

Normal saline0.9%was

administered at5ml/kg/h

intraoperatively

Pulmonary complications

(all):

19(7.8%)

No measurement of

incidence of PALI/ARDS

UVA:

>4l during anaesthesia(n

=13)

38.5%developed

pulmonary complications

<4l during anaesthesia(n

=92)

15.2%developed

pulmonary complications

P<0.05

>4l fluid balance group

associated with higher

mortality(30.8vs7.6%,

P<0.05)

MVA:

Intraoperative fluid

balance>4l

OR4.48(95%CI:1.05–

19.02)

P=0.042

No analysis of mortality

on MVA

Consensus criteria[4]are not used

Fluid balance/excess is not

specifically analysed against PALI/

ARDS

Rationale for large volumes of

intraoperative fluid administration

not given

Possibility data is confounded by

blood loss

Factors included in the MVA:

Age>70

Pre-op heart disease

BMI<17or>25

Pneumonectomy(right)

Anaesthesia>360min

Fluid excess>+4l

Bernard et al.(2001) J Thorac Cardiovasc Surg,USA[10] Retrospective cohort study

(level III)n=639

Pneumonectomy

1985–1998

Fluid regimen:

Not defined

Post-pneumonectomy

pulmonary oedema(PPPE):

7(1.1%)

UVA:

IV fluid variables

associated with

cardiopulmonary

complications(all causes):

IV crystalloid first24h

(including intraoperative

fluids)

(P=0.01)

IV crystalloid first12h

(including intraoperative

fluids)

(P=0.01)

IV fluid variables

associated with mortality:

IV crystalloid first12h

(P=0.01)

MVA:

No significant associations

with IV crystalloid

PPPE is not defined

Consensus criteria[4]are not used

Primary data relating to fluid

administration are unpublished

Study is not controlled

Fluids are not directly assessed

against PALI/ARDS

Factors included in MVA:

Increased age

Cardiovascular disease

Muscle reinforcement of bronchial

stump

Ruffini et al.(2001) Eur J Cardiothoracic Surg,Italy[15] Retrospective

case-control study (level III)n=1221

Lung resection(all types)for

lung cancer

1993–1999

PALI/ARDS:

27(2.2%)

(Using consensus criteria[4])

No evidence of an

association between fluid

intake and PALI/ARDS

Primary data relating to fluid

administration is unpublished

Intraoperative fluid restriction of

<1500ml may account for the low

incidence(2.2%)of PALI/ARDS

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Table 1:(Continued )

Author,date and country

Study type (level of evidence)

Patient group

Outcomes

Key results

Comments

Crystalloid

Intraoperative fluid restriction of <1.5l

1.5l of crystalloid over 48h postoperatively

Kutlu et al.(2000).Ann Thorac Surg,UK [14]

Retrospective

case-control study (level III)

n =1139

Lung resections (all types)1991–1997Fluid regimen:Not defined PALI/ARDS:45(3.9%)

(Using consensus criteria [4])

No evidence of fluids as a risk factor

Primary data relating to fluid administration is unpublished

Van der Werff et al.(1997)Chest,Netherlands [12]Retrospective

case-control study (level III)

n =197

Pneumonectomy 1989–1995Fluid regimen:Not defined Postoperative pulmonary oedema (PPE):29(14.7%)

No evidence of fluids as a risk factor for PPE

Primary data relating to fluid administration is unpublished Consensus criteria [4]are not used therefore incidence of PALI/ARDS may be over-/under-estimated

Hayes et al.(1995)Thorax,UK [13]Retrospective

case-control study (level III)

n =469

Lung resections (all types)1991–1994Fluid regimen:Not defined

PALI/ARDS:22(5.1%)

(Using consensus criteria [4])

No evidence of fluids as a risk factor

Primary data relating to fluid administration is unpublished

Zeldin et al.(1984)J Thorac Cardiovasc Surg,USA [17]Retrospective unmatched

case-control study of selected patients (level IV)

n =25

Pneumonectomy

Pulmonary oedema:10Uncomplicated

pneumonectomy:15

Fluid intake (pulmonary oedema group):4913±1169ml (mean ±SD)

Fluid intake (uncomplicated

pneumonectomy group):3483±984ml

Consensus criteria [4]post-date the study

Severity of pulmonary oedema is not described

Cases and controls are not matched

Zeldin et al.(1984)J Thorac Cardiovasc Surg,USA [18]Experimental canine animal study

n =13

A (n =8):100ml/kg crystalloid immediately prior to right pneumonectomy followed by >100ml/kg postoperative fluid balance

B (n =5):50ml/kg

immediately prior to right pneumonectomy followed by 50ml/kg intraoperatively followed by <100ml/kg postoperative fluid balance C (n =4):100ml/kg

immediately prior to sham thoracotomy followed by >100ml/kg postoperative fluid balance

Pulmonary oedema:62dogs in group A died prematurely

(Left lung weight/right lung weight ratio >1)

(Left lung/body weight ratio >0.68)

All dogs received 4ml of fluid for every millilitre of intraoperative blood loss

Group A:all surviving dogs developed pulmonary oedema

Group B:no dogs developed pulmonary oedema

Group C:no dogs developed pulmonary oedema

Fluid regimens described are not directly comparable to medical practice

Severity of pulmonary oedema is not described in

clinically-translatable terms Powerful demonstration of the pathophysiology of

pneumonectomy exposing the remaining lung to a risk of pulmonary oedema

Evidence of a link between

post-pneumonectomy pulmonary oedema and large fluid load in mammals

UVA:univariate analysis;MVA:multivariate analysis;PALI:postoperative acute lung injury;ARDS:acute respiratory distress syndrome;NSCLC:non-small cell lung cancer.

R.G.Evans and B.Naidu /Interactive CardioVascular and Thoracic Surgery

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SEARCH OUTCOME

Sixty-seven papers were found using the reported search. Fourteen papers were selected as giving the best evidence (Table1).

RESULTS

The best evidence available to answer this question are the studies by Licker et al.[2,3].Both used consensus guideline criteria[4]for the diagnosis of PALI/ARDS and demonstrated an association between increasing the volume of?uid admin-istration in the intraoperative and postoperative periods and the incidence of PALI/ARDS on multivariate analysis(MV A) with odds ratios(ORs)of1.42(95%CI1.09–4.32,P=0.011)[2] and2.91(1.9–7.4,P=0.001)[3].In non-PALI/ARDS cases,the mean intraoperative?uid infusion volume was signi?cantly less (1.22l(1.17–1.26)vs1.68l(1.46–1.9)P=0.005),?uid balance over the?rst24postoperative hours was signi?cantly less (1.52l positive(1.44–1.60)vs2.0l positive(1.6–2.4)P=0.026) and cumulated intra-and postoperative?uid infusion was also signi?cantly less(2.0ml/kg/h(1.7–2.3)vs 2.6ml/kg/h (2.3–2.9)P=0.003)[3].Total?uid infusion in the?rst24h postoperatively was not signi?cantly different(PALI/ARDS group 2.1l(1.85–2.33),non-PALI/ARDS group 1.85l(1.79–1.91)P=0.075)[3].This data set provides evidence that the difference between?uid therapy associated with an increased incidence of PALI/ARDS(i.e.‘liberal’)and?uid therapy asso-ciated with no increased incidence(i.e.‘conservative’)is narrow,although it is not possible to provide an exact de?n-ition of liberal?uid therapy from these data.Alam et al.[5] also demonstrated a signi?cant association on MV A between increasing?uid administration and the outcome‘primary lung injury’(OR1.2(1–1.4),P=0.02)for every500ml increase in perioperative?uid administration;however,this study was limited by the use of non-standardized diagnostic criteria for PALI/ARDS,raising the potential for an over-or under-diagnosis of the condition.

Several of the other studies analysed were limited in that ?uids were not directly assessed against PALI/ARDS;composite outcome measures such as‘all respiratory’or’all major’compli-cations were used[6–10].Others were limited for the purposes of comparison by using non-standardized outcomes related to PALI/ARDS,e.g.‘primary lung injury’and‘postoperative pulmon-ary oedema’[5,9–12]rather than consensus criteria[4].Where no association is reported,several papers have not published the amount of?uid administered[10,12–15].Blank et al.[6]may have shown an association between?uid intake and the outcome‘all respiratory complications’were the cohort of PALI/ ARDS cases larger(n=9)[16].

The published data show that liberal?uid therapy is asso-ciated with a higher incidence of PALI/ARDS;however,a causal relationship cannot be inferred;PALI/ARDS is clearly a multifactorial disease process with liberal?uid therapy being one of several associated risk factors(e.g.blood transfusion, hypotensive haemorrhage,prolonged duration of one-lung ventilation and ventilator-induced lung injury).It is thought that the development of PALI/ARDS may require two or more of these‘hits’[17].The evidence presented here follows on from the1984unmatched case–control study[18]of25patients which suggested that a liberal vs judicious periopera-

tive?uid load is associated with pulmonary oedema following pneumonectomy(4913±1169ml(n=10pulmonary oedema cases)vs3483±984ml(n=15controls)(mean±SD)).This study also described a canine experimental model of right pneumonectomy with a48h period of postoperative moni-toring that assessed a liberal crystalloid perioperative?uid load (100ml/kg rapidly infused immediately preoperatively followed

by a>100ml/kg postoperative?uid balance(n=8))vs a judi-cious perioperative?uid load(50ml/kg rapidly infused imme-diately preoperatively followed by50ml/kg rapidly infused intraoperatively followed by a<100ml/kg postoperative?uid balance[n=5])vs a control group with a100ml/kg preopera-

tive rapid?uid load followed by sham thoracotomy and>100

ml/kg postoperative?uid balance.All dogs in the liberal?uid

load group developed pulmonary oedema,whereas no dogs in

the judicious?uid load or control group developed the condition.

The control group data powerfully demonstrate that the peri-operative pathophysiology of pneumonectomy exposes the remaining lung to a risk of pulmonary oedema in mammals. CLINICAL BOTTOM LINE

PALI/ARDS has a mortality of>50%[19];therefore,strategies to reduce its incidence are of great interest.On this best evidence presented,we recommend a conservative strategy of administra-

tion of maintenance?uids at1–2ml/kg/h in the intra-and post-operative periods and that a positive?uid balance of1.5l should

not be exceeded,to mitigate the risk of multifactorial PALI/ ARDS.Caution should be exercised with regard to silent hypo-volaemia,impaired oxygen delivery and acute kidney injury[20].

If the?uid balance exceeds this threshold,a high index of suspi-

cion for PALI/ARDS should be adopted and an escalation of the level of care should be considered.If a patient develops signs of hypoperfusion after these thresholds are exceeded,inotropic/ vasopressor support should be considered.

Con?ict of interest:none declared.

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