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Файл:Ординатура / Хирургия / Библиотека им академика М.И. Перельмана / Книга_775_Библиотеки_им_академика_М_И_Перельмана.pdf
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- •Foreword
- •Preface
- •Introduction
- •Contents
- •Contributors
- •1.5 Venous Anatomy
- •1.6 Conclusion
- •References
- •2.1 Introduction
- •2.1.1.1 IPDA
- •1.1 Introduction
- •1.2 Arterial Anatomy
- •1.3 Portal Venous Anatomy
- •1.4 Biliary Anatomy
- •2.1.1.4 Dorsal Pancreatic Artery (DPA)
- •2.3 Surgical Techniques
- •2.4 Discussion
- •2.5 Conclusion
- •References
- •3.1 Introduction
- •3.2 Intrahepatic Biliary Tract
- •3.2.4 Accessory Biliary Ducts
- •3.3 Extrahepatic Biliary Tract
- •3.3.2 Retroduodenopancreatic Portion
- •3.3.3 Intramural Portion
- •3.5 Accessory Biliary Tract
- •3.5.2 Vascularization
- •References
- •4.1 Introduction
- •4.2 Posthepatectomy Liver Failure (PHLF)
- •4.3.1 Portal Hypertension
- •4.3.3 Blood Chemistry Tests
- •4.3.4 Indocyanine Green (ICG) Clearance Test
- •4.4 M2BPGi
- •4.5 Scintigraphy
- •4.7 Measuring FLR Function
- •4.8 Conclusions
- •References
- •5.1.1 Hemangioma
- •5.1.2 Focal Nodular Hyperplasia
- •5.1.3 Simple Hepatic Cyst
- •5.1.4 Hepatic Adenoma
- •5.2.1 Hepatocellular Carcinoma
- •5.2.2 Metastatic Disease
- •5.2.3 Intrahepatic Cholangiocarcinoma
- •5.2.4 Hepatic Angiosarcoma
- •5.3.1 Acute Calculous Cholecystitis
- •5.3.2 Chronic Cholecystitis
- •5.3.3 Acalculous Cholecystitis
- •5.3.4 Biliary Dyskinesia
- •5.3.5 Choledocolithiasis
- •5.3.7 Choledochal Cysts
- •5.3.8 Primary Sclerosing Cholangitis
- •5.3.9 Benign Biliary Stricture
- •5.4.1 Extrahepatic Cholangiocarcinoma
- •5.4.2 Gall Bladder Cancer
- •5.5.1 Acute Pancreatitis
- •5.5.2 Chronic Pancreatitis
- •5.5.3 Pancreas Neuroendocrine Tumors
- •5.5.4 Pancreas Cystic Neoplasms
- •5.5.4.1 Intraductal Papillary Mucinous Neoplasm
- •5.5.4.2 Mucinous Cystic Neoplasm
- •5.5.4.3 Solid Pseudopapillary Neoplasm
- •5.6.1 Pancreas Adenocarcinoma
- •References
- •6.2.1 Gallbladder
- •6.3.1 Gallbladder Dysfunction
- •6.3.3 Pancreaticobiliary Maljunction
- •6.4.2 Enterohepatic Circulation
- •6.4.3 Bile Acids
- •References
- •7.1 Introduction
- •BilINs
- •IPNBs
- •7.1.1.2 Imaging Findings
- •BilINs
- •IPNB
- •7.1.2.1 Gross
- •BilIN
- •IPNB
- •Controversial Cases: BilIN or IPNB
- •7.1.2.2 Histologies
- •BilINs
- •IPNB.
- •8.4 Gallbladder Carcinoma
- •8.4.1 Gross Features
- •8.4.2 Microscopic Features
- •8.4.3 Molecular Features
- •References
- •BilIN
- •IPNB
- •7.1.4.1 BilIN
- •7.1.4.2 IPNB
- •7.2 Conclusion
- •References
- •8.1 Introduction
- •8.2 Intrahepatic Cholangiocarcinoma
- •8.2.1 Gross Features
- •8.2.2 Microscopic Features
- •8.2.3 Molecular Features
- •8.3 Extrahepatic Cholangiocarcinoma
- •8.3.1 Gross Features
- •8.3.2 Microscopic Features
- •8.3.3 Molecular Features
- •References
- •10.1.2 Epidemiology
- •10.1.3 Etiology
- •10.1.4 Clinical Features
- •10.1.5 Radiology
- •10.1.6 Pathology
- •10.1.6.1 Macroscopic Appearance
- •10.1.6.3 Immunohistochemistry
- •10.1.6.4 Grading
- •10.1.6.6 Molecular Pathology
- •10.2.2 Epidemiology
- •10.2.3 Etiology
- •10.2.4 Clinical Features
- •10.2.5 Radiology
- •10.2.6 Pathology
- •10.2.6.1 Macroscopic Appearance
- •10.2.6.2 Microscopic Appearance
- •10.2.6.3 Immunohistochemistry
- •10.2.6.5 Molecular Pathology
- •10.3.2 Epidemiology
- •10.3.3 Etiology
- •10.3.4 Clinical Features
- •10.3.5 Radiology
- •10.3.6 Pathology
- •10.3.6.1 Macroscopic Appearance
- •10.3.6.3 Immunohistochemistry
- •10.3.6.5 Molecular Pathology
- •References
- •11: Mucinous Cystic Neoplasms
- •11.1 Introduction
- •11.2 Clinical Aspects
- •11.3 Pathological Findings
- •11.3.1 Macroscopical Features
- •11.3.2 Histological Features
- •11.4 Molecular Abnormalities
- •References
- •12.1 Introduction
- •12.1.1 General Features
- •12.1.2 Diagnostic Features
- •12.1.3 Clinical Implications
- •12.1.4 Desmoplastic Stroma
- •12.1.5 Venous Invasion
- •12.1.6 Variants
- •12.2 Conclusions
- •References
- •13.2.1 Benign Liver Tumors
- •13.2.2 Malignant Liver Tumors
- •13.2.3.1 Liver Abscess
- •13.4.1 Biliary Tree Tumors
- •13.5.1 Pancreatic Tumors
- •References
- •14.1 MRE Technique
- •14.2 MRE Performance
- •14.4 Technical Limitations
- •14.5 Summary
- •References
- •15.1 Introduction
- •15.6 Conclusion
- •References
- •17.1 Intraoperative Cholangiography
- •17.2 Intraoperative Ultrasound
- •17.2.1 Anatomy
- •17.2.2 Diagnosis
- •17.2.3 Resection Guidance
- •17.2.3.2 Resection Guidance
- •17.3 Intraoperative Fluorescence Imaging
- •17.4 Navigation Assisted Liver Resection
- •References
- •18.1 Introduction
- •18.2 Photon Therapy
- •18.3 Charged Particles Therapy
- •18.4 MRI Guided Therapy
- •18.5 Combination Strategies Using Cytotoxics
- •18.6 Radioimmunotherapy
- •18.8 Summary
- •References
- •19.1 Introduction
- •19.2 Systemic Chemotherapy
- •19.2.1 Adjuvant Therapy
- •19.2.2 First-Line Therapy
- •19.2.3 Second-Line Therapy
- •19.3 Targeted Therapy
- •19.4 Immunotherapy
- •19.5 Precision Medicine
- •References
- •20.1 Introduction
- •20.2.1 Neoadjuvant Chemotherapy
- •20.2.2 Adjuvant Chemotherapy
- •20.2.3 Palliative Chemotherapy
- •20.3 Immunotherapy
- •20.4 Tumor Microenvironment
- •20.5 Summary
- •References
- •21.1 Background
- •21.5 Combination Strategies
- •21.7 Future Perspectives
- •References
- •22.1 FGFR Alterations
- •22.2 IDH Mutations
- •22.3 BRAF Alterations
- •22.7 Conclusions
- •References
- •23.1 Introduction
- •23.2 Adjuvant Systemic Therapy
- •23.3 Neoadjuvant Systemic Therapy
- •23.4.3 Second-Line Therapy
- •23.4.4 Targeted Therapy
- •References
- •24.1 Introduction
- •24.4 The Various Stents Available
- •24.8 Hilar Strictures (Resectable Cases)
- •24.9 Hilar Stricture: Palliative Cases
- •24.11 Endoscopic Ultrasound-Guided Biliary Drainage
- •24.12 Conclusions
- •References
- •25.1 Introduction
- •25.3 EUS-TD Technique
- •25.4 EN Technique
- •25.6 Conclusion
- •References
- •26.1 Background
- •26.2 Short History
- •26.4.6 Personalized Cancer Treatment
- •References
- •27.1 Introduction
- •27.3.1 Pre-Admission Optimization
- •27.3.3 Carbohydrate Loading
- •27.3.6 Early Feeding
- •27.6 Conclusion
- •References
- •28.1 Introduction
- •28.5 Conclusion
- •References
- •29.6 Conclusion
- •References
- •30.1 Introduction
- •30.3 Surgical Indication
- •30.4 Surgical Technique
- •30.4.1 Exposure
- •30.4.4 Parenchymal Transection
- •30.5 Clinical Advantages
- •30.5.1 Technical Advantages
- •30.5.2 Prognostic Advantages
- •30.6 Conclusions
- •References
- •31.1 Introduction
- •31.2 Multiple Bilobar CLM
- •31.2.1 Intraoperative Ultrasound
- •31.2.2 Tumor-vessel Detachment
- •31.2.3 Communicating Veins
- •31.3 New Procedures
- •31.3.1.1 Eligibility Criteria
- •31.3.2 Upper Trasversal Hepatectomy (UTH))
- •31.3.2.1 Mini-Upper Transversal Hepatectomy
- •31.3.2.2 Right Upper Transversal Hepatectomy [33]
- •31.3.2.3 Left Upper Transversal Hepatectomy [24]
- •31.3.2.4 Total Upper Transversal Hepatectomy [24, 34]
- •Eligibility Criteria
- •31.3.3 Mini-mesohepatectomy (MMH) [35, 36]
- •31.3.3.1 Eligibility Criteria
- •31.3.4 Liver Tunnel [37, 38]
- •Eligibility Criteria
- •31.4 Discussion
- •31.5 Concerns & Future Directions
- •31.6 Conclusions
- •References
- •32.1 Introduction
- •References
- •33.1 Introduction
- •33.6 Segmentectomy, Cone Unit Resection
- •33.7 Surgical Outcomes
- •References
- •34.1 Introduction
- •34.6 Laparoscopic Parenchymal Sparing Anatomical Hepatectomy (Lap-PSAH)
- •34.7 Surgical Procedures at Ageo Central General Hospital (ACGH)
- •34.8 Conclusion
- •References
- •35.5 Laparoscopic Segmentectomy V (S5)
- •35.6 Laparoscopic Segmentectomy VI (S6)
- •35.7 Laparoscopic Segmentectomy VII (S7)
- •References
- •36: Modified ALPPS Procedure
- •36.1 Introduction
- •36.2 Discussion
- •36.2.1 Parenchymal Transection
- •36.2.2 Hepatoduodenal Ligament Dissection
- •36.2.4.1 Partial ALPPS
- •36.2.4.2 Hybrid ALPPS
- •36.2.4.3 Mini-ALPPS/ALPTIPS
- •36.2.4.5 Tourniquet ALPPS
- •36.3 Conclusion
- •References
- •37.1 Introduction
- •37.3 Right-Posterior Approach
- •37.4 Right-Uncinate Approach
- •37.5 Mesenteric Approach
- •37.6 Left-Posterior Approach
- •37.7 Anterior Approach
- •37.8 Mesopancreatic Resection
- •37.10 Summary
- •References
- •38: Organ- and Parenchyma-sparing Pancreatic Surgery
- •38.1 Introduction
- •38.2 Organ-Sparing Techniques
- •38.2.1 Spleen-Preserving Distal Pancreatectomy
- •38.3 Parenchyma-Sparing Techniques
- •38.3.2 Dorsal Pancreatectomy
- •38.3.4 Middle-Preserving Pancreatectomy
- •38.4 Conclusion
- •References
- •39.1 Introduction
- •39.2.1 Laparotomy
- •39.2.2 Supramesocolic Approach
- •39.2.3 Inframesocolic Approach
- •39.3 Mesenteric Incision
- •39.9 Antithrombogenic PV Catheter Bypass
- •39.13 Discussion
- •References
- •40.1 Introduction
- •40.4 HA Reconstruction
- •40.4.1 Simple Reconstruction Case
- •40.4.2 Complicated Reconstruction Case
- •40.4.3 Concomitant Vein Resection
- •40.4.4 Management after HA Reconstruction
- •40.5 Conclusions
- •References
- •41.1 Introduction
- •41.3.1 Patients
- •41.3.2 Preoperative Treatments
- •41.3.5 Statistical Analyses
- •41.4 Results
- •41.5 Discussion
- •References
- •42.1 Introduction
- •42.1.1 Preoperative Planning
- •42.2 Surgical Technique
- •42.2.1 Basic Preliminary Maneuvers
- •42.3 Postoperative Management
- •42.4 Conclusions
- •References
- •43: Robotic Pancreaticoduodenectomy
- •43.1 Background
- •43.2 Robotic PD
- •43.3 Conclusion
- •References
- •44: Duodenum-Preserving Pancreatic Head Resection
- •References
- •45.1 Introduction
- •45.2 Surgical Technique
- •45.3 Discussion
- •References
- •46: Spleen-Preserving Distal Pancreatectomy
- •46.1 Introduction
- •46.2 Indications
- •46.4 Technique
- •46.4.1 Warshaw’s Technique
- •46.5 Postoperative Follow-Up
- •References
- •References
- •48.1 Introduction
- •48.10 Surgical Technique Preserving Left Gastric Artery
- •48.12 Conclusions
- •References
- •49: Robotic Distal Pancreatectomy
- •49.1 Surgical Technique
- •49.1.3 Distal Splenopancreatectomy
- •49.1.4 Spleen-Preserving Distal Pancreatectomy
- •49.2 Results
- •49.3 Discussion
- •References
- •50: Total Pancreatectomy
- •50.1 Introduction
- •50.2 Indications
- •50.3 Surgical Procedure
- •50.4 Vascular Resection
- •50.5 Comment
- •References
- •References
- •52.1 Introduction
- •52.2.1 Non-Functional PNEN (NF-PNEN)
- •52.2.2 Functional PNEN
- •52.2.4 High-grade PNEN
- •52.4 Conclusions
- •References
- •53.1 Introduction
- •53.1.1 Fukuoka Guidelines 2012 (Revised 2017)
- •53.1.2 European Guidelines 2018 (EG18)
- •53.2 Discussion
- •References
- •54.1 Introduction
- •54.1.1 Developmental Mechanism
- •54.1.2 Designations
- •54.1.3 Incidence
- •54.1.4 Predictive Factors
- •54.1.5 Treatment
- •54.2 Conclusion
- •References
- •55: Benign Biliary Diseases
- •55.1 Introduction
- •55.2 Congenital Anomalies
- •55.2.1 Biliary Atresia
- •55.2.2 Choledochal Cyst
- •55.3 Diagnosis
- •55.4 Complications
- •55.5 Management
- •55.5.1 Gallstones
- •55.6 Pathogenesis
- •55.8 Complications
- •55.9 Bile Duct Stones
- •55.10 Management
- •55.11 Intrahepatic Stones
- •55.13.1 Benign Biliary Strictures (BBS)
- •55.14 Iatrogenic Biliary Injury
- •55.15 Mirizzi Syndrome (MS)
- •55.16 Liver Transplantation Related BBS
- •55.17 Primary Sclerosing Cholangitis (PSC)
- •55.17.1 Biliary Dyskinesia
- •References
- •56.1 Introduction
- •56.2 Preoperative Evaluation
- •56.2.1 Preoperative Biliary Drainage
- •56.2.2 Portal Vein Embolization
- •56.3.2 Hilar No Touch “En-bloc” Technique
- •56.3.3 Vascular Resection
- •56.3.4 Margin Status
- •56.3.5 Lymph Node Dissection
- •56.3.6 Minimally Invasive Surgery
- •56.4 Short-term Results
- •56.5 Long-term Results
- •56.6 Conclusions
- •Bibliography
- •57.1 Introduction
- •57.2 Clinical Presentation
- •57.3 Serum Tumor Markers
- •57.4 Imaging
- •57.5 Treatment
- •57.6 Surgical Management
- •57.6.1 Liver Resection
- •57.11 Surgical Resection Procedure
- •57.13.2 Long-Term Outcomes
- •57.14 Recurrence
- •57.14.1 Liver Transplantation
- •References
- •58.1 Introduction
- •58.1.2 Surgical Techniques
- •58.1.4 Outcomes After HPD
- •58.1.5 Practical Management During Surgery
- •References
- •59: Hepato-biliary Injuries
- •59.1 Etiology
- •59.4 Diagnosis
- •59.4.1 Clinical Presentation
- •59.4.2 Imaging
- •References
- •60.1 Background
- •60.2 Diagnostics
- •60.3 Treatment
- •60.3.1 Nonoperative Management
- •60.3.2 Interventional Treatment
- •60.3.3 Surgery
- •References
- •61.1 Historical Overview
- •61.2.1.1 Acute Liver Failure (ALF)
- •61.2.1.2 Chronic Liver Failure
- •61.2.3 MELD Exceptions
- •61.2.4 Other Standardized MELD Exceptions
- •61.2.4.1 Non-Standardized MELD Exceptions
- •References
- •62.3 Patient Assessment
- •62.4 Prognostic Factors
- •62.6 Extracorporeal Liver Support Systems
- •62.8 Conclusion
- •References
- •63.1 Introduction
- •63.2 Donation After Brain Death
- •63.3 Donors after Circulatory Death
- •63.4.1 Surgical Technique
- •63.4.1.1 Cross-clamping
- •63.4.2 Technical Variants
- •63.4.2.1 Split Liver Retrieval
- •63.4.2.2 En-bloc Liver-pancreas Retrieval
- •63.4.2.3 En-bloc Liver-bowel Retrieval
- •63.4.3 Back-table
- •63.4.3.1 Incidents: Accidents
- •References
- •64.1 Introduction
- •64.11 Conclusions
- •References
- •65: Living Donor Liver Transplantation
- •65.1 Introduction
- •65.2.1 Graft Size
- •65.2.2 Left Liver Graft
- •65.2.3 Right Liver Graft
- •65.2.4 Right Lateral Sector Graft
- •65.2.5 Dual Graft
- •65.2.6 ABO Blood Type Incompatible Graft
- •References

Abstract
ERAS Multidisciplinary Team
Multidisciplinary Enhanced Recovery
After Surgery (ERAS) Pathway
forHepatobiliary andPancreatic
Surgery
DidierRoulin andNicolasDemartines
28
Enhanced Recovery After Surgery (ERAS) is a multimodal multidisciplinary bundle aiming to provide the best
evidence-based care to the patient in order to improve
recovery by reducing the surgical stress. The principles of
ERAS have been successfully applied in many surgical
disciplines, including hepatobiliary and pancreatic surgery. The present chapter will review the current evidence
in favor of ERAS for liver and pancreas surgery with
focus on the multidisciplinary interaction between healthcare professionals involved in the patient’s perioperative
care.
28.1 Introduction
Enhanced Recovery After Surgery (ERAS) is a multimodal
multidisciplinary pathway aiming to provide the best
evidence- based care to the patient with the involvement of a
multidisciplinary team [1]. The aim of enhanced recovery is
not only to shorten patient’s length of stay, which was initially named “fast-track”, but mainly to restore patient’s preoperative function allowing the patient to get back to his
baseline condition early [2]. ERAS focuses on “Enhanced”
not on “fast”, meaning general improvement of patient’s
condition is the key that may as secondary (positive) effect
speed up the entire perioperative process. The principles of
ERAS have been successfully applied in many surgical disciplines, including hepatobiliary and pancreatic surgery. The
implementation of ERAS into clinical practice is a new way
of conceive the perioperative period with new organization.
To apply successfully an ERAS pathway is demanding and
requires the full involvement and training of a dedicated
multidisciplinary team (MDT), as illustrated on Fig.28.1.
D. Roulin · N. Demartines (*)
Department of Visceral Surgery, Lausanne University Hospital,
University of Lausanne, Lausanne, Switzerland
e-mail: demartines@chuv.ch
Management
Head of Surgery
Project team
Surgery leader
ERAS-dedicated nurse
Surgeons Nurses
Patient’s care
Dieticians Physiotherapists
Fig. 28.1 Organization chart of an Enhanced Recovery After Surgery
(ERAS) multidisciplinary team
Specic ERAS guidelines were rst published in 2016 for
liver surgery [3] and were updated in 2019 for pancreatoduodenectomy [4]. These recommendations were based on a
systematic review and processed by a modied Delphi process and detailed the associated evidence and recommendation for each ERAS items (23 for liver, 27 for pancreas). The
present chapter will go through the practical implementation
of an ERAS program and the current evidence supporting
ERAS for liver and pancreas surgery, with focus on the multidisciplinary management of the patient and the active
involvement of the patient himself.
Hospital direction
Anesthesia leader
Anesthesiologists
28.2 ERAS: Moving fromEvidence-Based
into Clinical Practice
The evidence-based items included in ERAS is a continuous
process covering the entire patient’s journey, starting from
the pre-admission until home-discharge and follow-up. The
main areas of focus are preoperative counselling and optimization, normovolemia, multimodal opioid sparing analgesia,
© The Author(s), under exclusive license to Springer Nature Singapore Pte Ltd. 2022
M. Makuuchi et al. (eds.), The IASGO Textbook of Multi-Disciplinary Management of Hepato-Pancreato-Biliary Diseases,
https://doi.org/10.1007/978-981-19-0063-1_28
229

230
D. Roulin and N. Demartines
as well as early scheduled nutrition and mobilization.
According to the latest available guidelines, ERAS items for
liver and pancreatic surgery are summarized in Table28.1.
The translation of evidence-based elements of enhancement
Table 28.1 Enhanced Recovery After Surgery (ERAS) items for liver and pancreas surgery
Liver Pancreas
Preoperative
counselling
Prehabilitation Prehabilitation program three to six weeks before surgery.
Biliary drainage Avoidance of preoperative drainage, only if bilirubin
Smoking and alcohol
cessation
Preoperative nutrition Patients at risk (weight loss 10–15% within six months,
Immunonutrition Limited evidence for use. Not recommended.
Oral bowel
preparation
Fasting and
carbohydrate drinks
Preanaesthetic
medication
Anti-thrombotic
prophylaxis
Perioperative steroids Steroids (methylprednisolone) may be used before
Antimicrobial
prophylaxis and skin
preparation
Epidural Not recommended in open liver surgery for ERAS
Minimally invasive
surgery
Postoperative
analgesia
Wound catheter Preperitoneal wound catheter as alternative to epidural for
Postoperative Nausea
and Vomiting (PONV)
prophylaxis
Hypothermia
prevention
Glycaemic control Glucose levels should be maintained as close to normal as possible without causing hypoglycemia.
Fluid balance The maintenance of low central venous pressure (below
Nasogastric
intubation
Dedicated multimedia preoperative counselling.
Smoking and high alcohol consumption cessation at least four weeks before surgery.
Body Mass Index (BMI)<18.5kg/m
albumin <30g/l in the absence of liver or renal
dysfunction) should receive oral nutritional supplements
for seven days prior to surgery.
Avoidance of oral bowel preparation.
Clear uids until two hours, solids six hours before surgery. Carbohydrate loading on evening and two hours before
surgery.
No long acting sedative premedication. No anxiolytics. Acetaminophen and single dose
Concomitant chemical and mechanical thromboprophylaxis.
hepatectomy in normal liver parenchyma, since it
decreases liver injury and intraoperative stress. Steroids
should not be given in diabetic patients.
Single iv antibiotic 30–60minutes before incision. Skin
preparation with a scrub of chlorhexidine-alcohol.
patients. Wound infusion catheter or intrathecal opiates
can be good alternatives combined with multimodal
analgesia.
Laparoscopic liver resection can be performed by
hepato-biliary surgeons experienced in laparoscopic
surgery, in particular left lateral sectionectomy and
resections of lesions located in anterior segments.
Multimodal PONV prophylaxis adapted to risk factors.
Active warming (cutaneous and perfusions warming) to maintain body temperature≥36°C.
5 cmH
O) with close monitoring during hepatic surgery
2
is advocated. Balanced crystalloid should be preferred.
No postoperative gastric tube
2
and serum
into clinical practice represent a proper challenge. Simply
elaborating and establishing a protocol is not enough [5] and
much more efforts and changes in organization are required
to improve the perioperative outcome.
>250μmol/l, cholangitis, or neoadjuvant treatment.
Preoperative nutritional intervention if severe weight loss.
Nutritional status assessment based on BMI and weight loss.
gabapentinoid.
Single dose iv antibiotic less than 60min before skin
incision. Intraoperative bile culture if preoperative biliary
stenting. Therapeutic postoperative antibiotics if positive
bile culture. Use of alcohol-based preparations and wound
protectors.
Thoracic epidural analgesia (T5–8) for open. If no epidural:
Intravenous lidocaine or transversus abdominis plane block/
wound inltration.
Laparoscopic pancreatoduodenectomy (PD) only in highly
experienced high-volume center. No recommendation for
robotic-assisted PD.
Multimodal opioid sparing analgesia.
open PD.
Avoidance of uid overload.

28 Multidisciplinary Enhanced Recovery After Surgery (ERAS) Pathway forHepatobiliary andPancreatic Surgery
Table 28.1 (continued)
Liver Pancreas
Abdominal drains No routine abdominal drain Perianastomotic drain removal at 72hours in low-risk
Somatostatin
analogues
Urinary catheter Removal on POD 3 Early urinary catheter removal
Delayed gastric
emptying (DGE)
Stimulation of bowel
movement
Diet Normal diet after surgery according to tolerance.
Mobilization Early and active mobilization.
Audit Regular and continuous audit.
– No systematic use of somatostatin
An omentum ap to cover the cut surface of the liver
reduces the risk of DGE after left-sided hepatectomy
Stimulation of bowel movement after liver surgery is not
indicated.
patients
No acknowledged prophylactic strategy. Early diagnosis of
intraabdominal complications. Articial nutrition in case of
prolonged DGE.
Use of chewing gum, alvimopan or mosapride.
231
A MDT must be gathered rst under the initiative of a
project leader or “ERAS champion”. In our experience, the
surgeons in charge of the respective units were designed as
leaders of the team and were supported by two to three designated surgeons. In other hospitals anesthesiologists are the
champions but the process remain the same: surgeons, anesthesiologists, nurses and patients working together. An optimal MDT should include at least a nurse, an anesthesiologists,
an administrator and a surgeon. Other health care workers
like physiotherapists or nutritionists as part of the team. A
dedicated and specically trained ERAS nurse is of uttermost importance. The support of the administration is essential from the beginning, to obtain the required resources and
monitor the nancial benets. The team should then undergo
training to implement an enhanced recovery pathway in their
own unit or hospital. ERAS implementation process is a systematic training program provided by ERAS academic
experts and conducted over a 8 to 10 months structured
period. Following the denition of measurable goals, actions
and plans are put into practice, then observation and measurement are taken, and nally adequate adjustments are
made. Regular multidisciplinary audit, also including nutritionists and physiotherapists, are conducted in order to monitor compliance and sustainability of changes achieved
following the implementation process. The use of a systematic interactive audit system allows standardization of outcomes reporting and continuous data analysis [6]. Long term
follow-up studies acknowledged the sustainability of such
multidisciplinary implementation and maintenance of ERAS
program [7]. With the Covid pandemic, the way to implement ERAS program is about to evolve and e-learning platforms will be used instead of in person meetings.
28.3 ERAS Benets inHepato-Biliary
andPancreatic Surgery
Following successful ERAS implementation, clinical benets in liver surgery were consistently reported. At least ve
meta-analysis [8–12], with the latest published in 2020
reported a signicant reduction in length of stay as well as
30%–50% reduction of postoperative complications, without
increasing mortality or readmission. When reported, the
functional recovery as well as the quality of life was also
improved with ERAS [8]. ERAS compliance was ranging
from 65% to 74% [10] and the rate of liver specic complications was not reduced by ERAS implementation [9]. Less
than 20% of included studies in the latest metanalysis [10],
reported a systematic audit. Therefore, signicant improvement in the reporting of compliance as well as the application of systematic audit are awaited in ERAS for
hepato-biliary surgery.
Regarding pancreatic surgery, the effect of ERAS on clinical outcome was frequently reported from 2007 until now in
many studies. Their results were gathered in ve main metaanalysis [13–17], which reported a signicant reduction of
overall morbidity and length of stay without any increase in
readmission rate when an enhanced recovery protocol was
applied. Concerning pancreatic surgery specic complications, such as delayed gastric emptying and pancreatic stula, three of the ve abovementioned meta-analysis [14, 15,
17] described a reduction of delayed gastric emptying and a
similar rate of clinically signicant pancreatic stula with
ERAS compared to historical care. However, the high variability of the number of ERAS items used in each study leads
to heterogeneity in the included study.

232
D. Roulin and N. Demartines
A recent multicenter cohort study including 404 patients
undergoing pancreateoduodenectomy within ERAS assessed
the application of the guidelines in daily clinical practice
[18]. The number of items applied divided the total number,
also called “compliance”, was 62%, with the postoperative
period being the most challenging part. Each item of an
enhanced recovery protocol is of importance, but it is mainly
their cumulative proportion, expressed as overall compliance, was a major factor for clinical outcome as an overall
compliance of more than 70% was associated with a signicant reduction of overall complications and length of stay.
When looking at the impact of each element, the avoidance
of postoperative nasogastric tube and early mobilization
were independent factors associated with improved outcome
after pancreatoduodenectomy.
The long-term outcome after pancreatic and liver surgery
is also correlated with the multidisciplinary oncological
treatment, including adjuvant chemotherapy. As postoperative complications might increase the interval between the
surgical procedure and the start of chemotherapy, the potential role of ERAS compliance on this interval was evaluated
in a retrospective analysis [19]. An overall compliance equal
or more than 67% was associated with a signicant decrease
of the interval between surgery and chemotherapy for
patients >65years old.
As already mentioned, economical resources are a frequently raised issue when considering implementing ERAS,
as it requires specic resources such as an enhanced recovery dedicated nurse, information’s booklet and database
[20]. These investments may lead to resistance to enhanced
recovery implementation [21]. However, these initial costs
are quickly overwhelmed by the in-hospital cost reduction
induced not only by the reduction of length of stay, but also
by the decrease of complications. In hepato-biliary and pancreatic surgery, a recent systematic review [22] described
among the ve included studies in pancreas surgery, a mean
cost reduction in favor of the ERAS of USD 7020. In liver
surgery, only three studies were found, which precluded a
systematic cost analysis. However, a cost-minimization analysis for liver surgery showed a total mean cost reduction of €
3080 per patient following ERAS implementation [23].
Understanding barriers and enablers to ERAS implementation is a key process to improve collaboration within the
MDT.An interesting study assessed qualitative barriers and
enables across nurses, surgeons and anesthesiologists [24].
Nurses identied patient’s reluctance to early mobilization
and feeding, which could be overcome by patient education.
Lack of manpower and time was also identied. From the
surgeons’ perspective, nursing culture and lack of nursing
time, as well as personal preferences and resistance to change
were potential barriers. Anesthesiologists expressed concerns that changing nursing culture and surgeon’s behavior
would be difcult, and this could be overwhelmed by
improved communication and collaboration. A systematic
review [25] included studies with focus on health professionals’ experiences of ERAS implementation and identied ve
main themes: communication and collaboration, resistance
to change, role and signicance of protocol-based care, and
knowledge and expectation. This review concluded that
communication among partners and with patients, as well
provision of comprehensive information to health professionals and patients, in addition with Identifying a local
ERAS champions could improve ERAS implementation.
28.5 Conclusion
ERAS is a powerful improvement tool for the patient’s perioperative course. But application of ERAS in hepato-biliary
and pancreatic surgery requires multidisciplinary communication and collaboration in order to deliver evidence-based
best practice in a setting of patient-centered care. Under
these circumstances, ERAS leads to improved patient outcome, with reduced complications and improved functional
outcome associated with reduced length of stay for hepatobiliary and pancreatic surgery. In addition, implementation
of ERAS pathway is a cost-effective intervention, allowing
support from healthcare administration. Patient education
and involvement, as well as multidisciplinary communication and collaboration are essential to reach high compliance
to ERAS items, resulting in improved outcome.
28.4 ERAS asaMultidisciplinary Team
Approach
A multidisciplinary team (MDT) approach provides comprehensive patient-centered care by gathering a range of different health care professionals sharing a common objective. As
ERAS is a multimodal multidisciplinary approach in order to
improve patient outcome, the multidisciplinary work is
essential, not only during the implementation period but also
in the crucial period of sustainability.
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2. Ljungqvist O, Young-Fadok T, Demartines N. The history
of enhanced recovery after surgery and the ERAS society. J
Laparoendosc Adv Surg Tech. 2017;27(9):860–2. https://doi.
org/10.1089/lap.2017.0350.
3. Melloul E, Hübner M, Scott M, etal. Guidelines for perioperative
care for liver surgery: enhanced recovery after surgery (ERAS)
society recommendations. World J Surg. 2016;40:2425–40. https://
doi.org/10.1007/s00268- 016- 3700- 1.

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4. Melloul E, Lassen K, Roulin D, et al. Guidelines for
Perioperative Care for Pancreatoduodenectomy: Enhanced
Recovery After Surgery (ERAS) Recommendations 2019.
World J Surg. 2020;44(7):2056–84. https://doi.org/10.1007/
s00268- 020- 05462- w.
5. Maessen J, Dejong CHC, Hausel J, etal. A protocol is not enough
to implement an enhanced recovery programme for colorectal
resection. Br J Surg. 2007;94(2):224–31. https://doi.org/10.1002/
bjs.5468.
6. Currie A, Soop M, Demartines N, Fearon K, Kennedy R, Ljungqvist
O. Enhanced recovery after surgery interactive audit system: 10
years’ experience with an international web-based clinical and
research perioperative care database. Clin Colon Rectal Surg.
2019;32(1):75–81. https://doi.org/10.1055/s- 0038- 1673357.
7. Martin D, Roulin D, Addor V, Blanc C, Demartines N,
Hübner M. Enhanced recovery implementation in colorectal
surgery- temporary or persistent improvement? Langenbecks
Arch Surg. 2016;401(8):1163–9. https://doi.org/10.1007/
s00423- 016- 1518- 9.
8. Song W, Wang K, Zhang RJ, Dai QX, Zou SB.The enhanced recovery after surgery (ERAS) program in liver surgery: a meta-analysis
of randomized controlled trials. Springerplus. 2016;5(1):1–10.
https://doi.org/10.1186/s40064- 016- 1793- 5.
9. Hughes MJ, McNally S, Wigmore SJ.Enhanced recovery following liver surgery: a systematic review and meta-analysis. HPB.
2014;16(8):699–706. https://doi.org/10.1111/hpb.12245.
10. Noba L, Rodgers S, Chandler C, Balfour A, Hariharan D, Yip
VS. Enhanced recovery after surgery (ERAS) reduces hospital
costs and improve clinical outcomes in liver surgery: a systematic
review and meta-analysis. J Gastrointest Surg. 2020;24(4):918–32.
https://doi.org/10.1007/s11605- 019- 04499- 0.
11. Wang C, Zheng G, Zhang W, etal. Enhanced recovery after surgery
programs for liver resection: a meta-analysis. J Gastrointest Surg.
2017;21(3):472–86. https://doi.org/10.1007/s11605- 017- 3360- y.
12. Zhao Y, Qin H, Wu Y, Xiang B. Enhanced recovery after surgery
program reduces length of hospital stay and complications in liver
resection: a PRISMA-compliant systematic review and metaanalysis of randomized controlled trials. Medicine (Baltimore).
2017;96(31):e7628.
13. Coolsen MME, Van Dam RM, Van Der Wilt AA, Slim K, Lassen
K, Dejong CHC.Systematic review and meta-analysis of enhanced
recovery after pancreatic surgery with particular emphasis on
pancreaticoduodenectomies. World J Surg. 2013;37(8):1909–18.
https://doi.org/10.1007/s00268- 013- 2044- 3.
14. Xiong J, Szatmary P, Huang W, etal. Enhanced recovery after surgery program in patients undergoing pancreaticoduodenectomy a
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15. Ji HB, Zhu WT, Wei Q, Wang XX, Wang HB, Chen QP.Impact of
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19. St-Amour P, St-Amour P, Joliat GR, etal. Impact of ERAS compliance on the delay between surgery and adjuvant chemotherapy in
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2020;405(7):959–66. https://doi.org/10.1007/s00423- 020- 01981- 1.
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bjs.9184.
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bmjopen- 2018- 022259.

ERAS inPancreatic Surgery
JuliePerinel andMustaphaAdham
29
Abstract
Pancreatic surgery is associated with a signicant morbidity and prolonged length of hospital stay (LOS). In
2012, the Enhanced Recovery After Surgery (ERAS)
study group published the rst guidelines to implement
ERAS program in patients undergoing pancreaticoduodenectomy (PD). These guidelines, updated in 2019,
included 27 evidence-based recommendations but also a
proper and structured audit system to provide feedback
and to report the compliance. Systematic review and
meta-analysis reported improved postoperative outcomes
in ERAS group, with shorter LOS, lower incidence of
delayed gastric emptying and overall complications without increasing readmission rates or mortality. ERAS program represents also a nancial issue and is associated
with signicant cost savings. However, considering the
majority of non-randomized studies and the substantial
heterogeneity between the studies, more large-scale randomized studies with standardized ERAS program are
still needed. Implementation of the ERAS program is a
challenging process requiring the commitment of a multidisciplinary team. Compliance is a key element to assess
the success of ERAS implementation and also to improve
postoperative outcomes.
Enhanced recovery after surgery (ERAS) is a multimodal
and multidisciplinary pathway developed to decrease perioperative surgical stress, to reduce postoperative complications
and to accelerate postoperative recovery [1]. Initially implemented in colorectal surgery [2], ERAS program was associated with a signicant reduction in postoperative morbidity
and a shorten length of hospital stay (LOS) [3, 4]. Programs
based on enhanced recovery in pancreatic surgery have been
J. Perinel (*) · M. Adham
Department of Digestive Surgery, Edouard Herriot Hospital,
Hospices Civils de Lyon, UCBL1, Lyon, France
e-mail: julie.perinel@chu-lyon.fr
developed over a decade [5]. In 2012, the ERAS study group
published the rst guidelines for pancreaticoduodenectomy
(PD) [6]. An updated version has been published in 2019 and
included 27 evidence-based recommendations to manage
perioperative care after PD [7].
Pancreatic surgery, and especially PD, is considered as a
complex and high-risk surgical procedure. While the mortality has signicantly decreased to less than 5% with the centralization in high volume centers, the morbidity remains
high (30–60%) with prolonged LOS [8]. Postoperative complications such as postoperative pancreatic stula (POPF),
delayed gastric emptying (DGE) and surgical site infections
(SSI) contribute to delay the recovery and increase the LOS
[9, 10]. Besides, pancreatic surgery remains challenging
because several questions remain unsolved considering prophylactic abdominal drainage, preoperative biliary drainage
and early feeding in patients at high risk of DGE or ileus. In
this context, the implementation of ERAS program could
contribute to reduce postoperative complications, to shorten
LOS and to standardize the practice in pancreatic surgery.
29.1 ERAS Guidelines inPD
ERAS guidelines for PD included dedicated preoperative
counseling and initiation of a prehabilitation program, with
physical exercise and nutritional supplements, 3–6 weeks
before surgery. Nutritional supports (nasogastric or nasojejunal feeding tube) are recommended in case of malnutrition
(15% weight loss or BMI<18.5kg/m2). Immunonutrition is
no longer recommended and preoperative fasting is limited
to 6 h for solids and 2 h for liquids in absence of contraindication. Carbohydrate loads are given the previous day
and up to 2h before anesthesia. Preoperative biliary drainage
should be performed only in the following indications: serum
bilirubin level>250μmol/L, cholangitis, neoadjuvant treatment. Preoperatively, premedication is avoided and antithrombotic prophylaxis should be started 2–12 h before
surgery and continued 4 weeks after surgery in case of can-
© The Author(s), under exclusive license to Springer Nature Singapore Pte Ltd. 2022
M. Makuuchi et al. (eds.), The IASGO Textbook of Multi-Disciplinary Management of Hepato-Pancreato-Biliary Diseases,
https://doi.org/10.1007/978-981-19-0063-1_29
235

236
J. Perinel and M. Adham
cer. Prophylaxis of nausea and vomiting (PONV) is started
and consisted of at least two different antiemetics.
Antimicrobial prophylaxis is administrated less than 60min
before skin incision and repeated according to the duration
of procedure. If bile culture is positive, antibiotics should be
considered for the postoperative course. Postoperative analgesia is ensured using a thoracic epidural for open PD or
preperitoneal wound catheters in case of contraindication to
avoid opioid. To prevent hypothermia, a body-bear hugger
and warming set for intravenous infusions are used to maintain temperature above 36°C.Perioperatively, dened protocols are used to maintain normoglycemia and a goal-directed
uid therapy algorithm is used to avoid uid overload. The
nasogastric tube is inserted during the surgery and removed
before the reversal of anesthesia. There are still concerns
about the safety of minimally invasive PD.Laparoscopic PD
should be performed only in high volume and expert centers
with selected patients. Robotic PD is not recommended.
Management of prophylactic drainage after PD continued to
be controversial and the level of evidence is too low to conclude. Guidelines recommend systematic drainage and early
removal at 72h in patients at low risk (i.e., amylase content
in drain <5000U/L on POD1). Systematic use of somatostatin analogues to prevent clinically relevant POPF (CR-POPF)
is not recommended due to the lack of evidence. Urinary
catheter should be removed on POD1. The patients followed
an early oral feeding program according to tolerance.
Chewing gums and pharmacological agents (alvimopan and
mosapride) may accelerate bowel recovery. Early mobilization is started from day 0. The strength of ERAS program,
when compared to other enhanced recovery programs (ERP),
is a proper and structured audit system including a prospective database, regular internal and external audits to provide
feedback and to report the compliance. Indeed, simply developing evidence-based protocols is not enough to change
practice and reporting of adherence to protocol should be a
standard practice [11].
29.2 Impact ofERAS onPostoperative
Outcomes
During the last few decades, several studies reported the feasibility and the safety of ERAS program in patients undergoing PD [12–23] (Table 29.1). Systematic review and
meta-analysis reported improved postoperative outcomes in
ERAS group, when compared to traditional care, with shorter
LOS, lower incidence of DGE and overall complications
without increasing readmission rates or mortality [24, 25].
However, evidence was only based on retrospective casecontrol studies with limited sample size. More recently, four
single-center, prospective randomized controlled trials
(RCT) conrmed the benets of ERAS program to enhance
postoperative recovery [26–29] (Table29.1). While two RCT
assessed the effects of ERAS program based on ERAS
guidelines [26, 27], one American RCT evaluated an ERP
specic to the center [28] and the Korean RCT was a noninferiority trial on a modied ERAS program [29]. Besides,
in three studies, patients were selected, excluding patients
over 80years, with major comorbidities and advanced malignancy. Only open and curative PD were included, without
vascular resection or reconstruction [27–29]. Finally, in
ERAS group, two studies reported earlier recovery of oral
feeding, transit return and mobilization [26, 27], three studies reported shorter LOS [26–28] and only one study reported
lower morbidity [27]. In all the RCT, there were no signi-
Table 29.1 Characteristics of the studies assessing the implementation of ERAS program in pancreatic surgery
Study Year Country Study design ERAS group
Abu Hilal etal. 2013 Britain Case-control study 20 24 14/24
Kobayashi etal. 2014 Japan Case-control study 100 90 13/24
Braga etal. 2014 Italy Case-control study 115 115 18/24
Coolsen etal. 2014 Netherlands Case-control study 86 97 15/24
Shao etal. 2015 China Case-control study 325 310 14/24
Williamsson etal. 2015 Sweden Case-control study 50 50 16/24
Joliat etal. 2015 Switzerland Case-control study 74 87 15/24
Partelli etal. 2015 Italy Case-control study 22 66 13/24
Bai etal. 2016 China Case-control study 124 63 15/24
Zouros etal. 2016 Greece Case-control study 75 50 16/24
Deng etal. 2017 China RCT 76 83
Takagi etal. 2019 Japan RCT 37 37
Perinel etal. 2019 France Case-control study 47 30 19/24
Lavu etal. 2019 United States RCT 37 39
Hwang etal. 2019 Korea RCT 123 124
RCT randomized controlled trial, MINORS methodological index for nonrandomized studies
a
Sample size
b
Unconformity to MINORS score criteria
a
Control group
a
MINORS score
b
b
b
b

29 ERAS inPancreatic Surgery
237
cant difference in term of POPF, mortality and readmission,
which conrmed the safety of ERP [26–29]. In 2020, two
systematic review and meta-analysis were published including the four RCT. Both reported in ERAS group shorter
LOS, lower rate of overall and minor complications, lower
incidence of DGE, without increasing POPF rate, 30-day
readmission and mortality [30, 31]. However, considering
the heterogeneity between the studies, more large-scale RCT
are still needed.
ERAS program is also safe for elderly patients. Coolsen
et al. reported comparative postoperative outcomes in 55
patients ≥70 years when compared to other 55 younger
patients with a good compliance (51–95%) [32]. Partelli
etal. reported the feasibility of ERAS program in a cohort of
88 patients ≥75years [19]. Two RCT evaluated specically
the impact of ERAS program in patients undergoing PD for
cancer [26, 29]. In one study, ERAS program was noninferior to traditional care [29]; in the second one, ERAS
program was associated with shorten LOS without increasing morbidity and mortality [26]. In the RCT of Lavu etal.,
80% of the patients had cancer and the median time to the
initiation of adjuvant therapy was shorter in ERP group [28].
Achieving complete cycles of adjuvant chemotherapy is one
of the most important predictor for long-term survival in
periampullary cancer. Even if the chemotherapy is delayed
after 12weeks, there is still a benet on long-term survival
[33]. Hence, there is a real benet to implement ERAS in
periampullary cancer. If ERAS favored earlier recovery with
shorten LOS, an increasing proportion of patients will be
able to achieve chemotherapy. However, further studies are
needed to conrm this hypothesis.
29.3 Impact ofERAS onHospital Costs
Implementation of ERAS program represented also a nancial issue. Initially, Kehlet etal. developed ERP to accelerate
postoperative recovery but also to reduce overall costs [1]. In
pancreatic surgery, most of the studies reported signicant
cost savings after ERP implementation [16, 17, 22, 34, 35].
Two meta-analysis and systematic review reported data on
cost analysis [24, 36]. Xiong et al. reported a signicant
reduction in in-hospital costs based on the results of four
studies [24]. Joliat et al. found a mean difference of USD
7020 (95% CI: 11,600–2430, p = 0.003) in favor of ERP
including ve studies [36]. In the recent American RCT, the
total cost was reduced from USD 31,845 to USD 26,563
(p = 0.011) in ERP group [28]. Cost reduction was interpreted as the results of bed day savings due to shorten LOS,
and also as the consequence of the standardization that
avoids unnecessary laboratory tests, radiological imaging
and medication [35, 36]. However, as mentioned by Joliat
etal., the methodology of cost assessment differed between
the studies and costs are mostly assessed as a secondary outcome [36]. Specic studies on the subject are needed such as
standardization of cost analysis.
29.4 ERAS andCompliance
Measuring the compliance is essential to analyze the success of the implementation of ERAS program into daily
practice. In pancreatic surgery, only few studies reported the
compliance to ERAS program. While compliance with preand intraoperative ERAS items was high (70–100%), the
postoperative ERAS items were more difcult to implement
with success (30–88%) [14, 20, 21, 27, 37, 38]. In addition,
the level of compliance was signicantly correlated with
postoperative outcomes [14, 21, 37, 38]. In the study of
Braga etal., the subgroup analysis showed a higher compliance in uneventful patients, while a lower compliance was
found in patients with major complications [14]. In two
single-center studies, patients with high compliance had
fewer postoperative complications and shorten LOS [21,
37]. Williamson etal. showed that patients with compliance
of ≥90% had a median discharge on POD 8 [7–9] and no
patient with Clavien–Dindo ≥3a [37]. More recently, in a
multicenter study including 404 patients, a level of compliance >70% was associated with a signicant shorter LOS
and signicantly less overall and major complications [38].
Roulin et al. was the rst study to assess specically the
impact of each individual ERAS items on postoperative outcomes. Only postoperative items were independent predictors of complications. Avoidance of postoperative
nasogastric tube, mobilization on POD0 and more than 6H
on the POD2 were signicantly associated with decreased
overall complications. Early mobilization was the only
ERAS item associated with reduced major complications
(Clavien Dindo IIIa to IVb) [38]. These results suggest the
importance of improving compliance to favor successful
postoperative outcomes. In colorectal surgery, a multicenter
study has shown that the strongest predictor of optimal
recovery was compliance with the postoperative items [39].
Nevertheless, reaching a high level of compliance in the
postoperative period is more complex because it is related to
the commitment of patients and the occurrence of complications. It is more difcult to mobilize the patient or to start
oral feeding in case of surgical complications. Zhang etal.
identied in a cohort of 176 patients undergoing PD, that
ASA score and nutritional status were independent predictive factors of ERAS success. Besides, postoperative complications including CR-POPF, DGE and SSI were the main
reasons for ERAS failure. Among ERAS items, early
removal of NGT and intake of oral liquids were closely
related to postoperative outcomes and could be early predictors of postoperative complications [10].

238
J. Perinel and M. Adham
29.5 Implementation Strategy andKeys
ofSuccess
Implementation of ERAS program is a gradual process that
required the commitment of a multidisciplinary team associated to a structured implementation strategy. Regular audits
are necessary to identify the facilitators and the barriers to
the implementation. In a qualitative study, Lyon et al.
reported four key points associated with an effective implementation and a high level of compliance [40]:
• The patient-related factors with patient selection (demo-
graphics, comorbidities) and patient expectation;
• The staff-related factors (staff education, change of atti-
tude, and behaviors);
• The practice-related issues (communication, standardized
protocol);
• The health system resources (in-hospital and discharge
resources).
Successful implementation of ERAS program is also correlated to:
• The medical staff education through regular staff meet-
ing [41];
• The patient education, it is easier to reach a high compli-
ance if the patient has realistic expectations of the care
protocol [40];
• The attendance of a dedicated ERAS coordinator who
facilitates the communication between the different actors
and ensures regular follow up of the patients [41, 42].
Finally, the challenge remained to maintain the sustainability
of the ERAS program over years. Only one study reported
long-term follow up after ERAS implementation in a cohort
of 210 patients undergoing PD [37]. Three years after ERAS
implementation, overall compliance increased over time
from 65% to 72% without signicant change in term of morbidity, LOS, mortality and readmission rate. Continuous
change in the process and repeated education were key points
to maintain optimal compliance.
29.6 Conclusion
Implementation of ERAS program in pancreatic surgery is a
real challenge considering the complexity of the surgical
procedures and the high morbidity. Nevertheless, according
to the published data, implementation of ERAS is safe and
efcient with shorten LOS, lower rate of overall complications and DGE, without increasing POPF rate, 30-day readmission and mortality. It is also feasible with a mean overall
compliance of 70%. Lastly, ERAS program induced cost
savings, which is also a crucial factor for health care system
in the current economic context. However, several potential
limitations should be mentioned. First, the majority of the
studies are retrospective case-control studies with small sample size, which may lead to limited evidence. Secondly, there
is still a substantial heterogeneity between the studies in the
number and denition of outcomes and items included in the
ERP.Therefore, it is difcult to compare the studies in term
of postoperative outcomes and compliance. Finally, compliance level is the key point to improve postoperative outcomes
and should be routinely reported in the study. Future RCTs
are required with standardized ERAS program to assess the
contributions of each ERAS items and to report patients’ survival in pancreatic cancer.
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