Review
Copyright ©The Author(s) 2020.
World J Hepatol. Oct 27, 2020; 12(10): 693-708
Published online Oct 27, 2020. doi: 10.4254/wjh.v12.i10.693
Table 1 Rationale for the use of neoadjuvant therapy in intrahepatic cholangiocarcinoma
Rationale for the use of neoadjuvant therapy in ICC
1Downstaging of locally advanced tumors
2Improve margin-negative resection rate
3Increase receipt of systemic therapy given challenges in delivering postoperative chemotherapy
4Prioritize the early systemic treatment of potential micrometastatic disease
5Enhance patient selection for major surgery
6Facilitate an in vivo test of chemotherapy’s effectiveness
Table 2 Select studies on neoadjuvant systemic chemotherapy for intrahepatic cholangiocarcinoma
Ref.Study typeInterventionSample sizeConversion to resectionTumor response
Kato et al[46], 2013RetrospectiveGemcitabine228 (37%)3 PR, 11 SD, 8 PD
Kato et al[47], 2015RetrospectiveGemcitabine plus cisplatin3910 (26%)9PR, 21 SD, 9 PD
Rayar et al[71], 2017RetrospectiveGemcitabine and/or platinums; Y-90 TARE4510 (22%)NR
Konstantinidis et al[79], 2017RetrospectiveBevacizumab + FUDR HAI1048 (8%)NR
Omichi et al[110], 2017RetrospectiveGemcitabine based therapy4343 (100%)NR
Le Roy et al[48], 2018RetrospectiveGemcitabine plus oxaliplatin7439 (53%)18 PR, 33 SD, 23 PD
Sumiyoshi et al[112], 2018RetrospectiveS-1 + IMRT75 (71%)4 PR, 1 SD, 2 PD
Table 3 Select studies on neoadjuvant transarterial chemoembolization for intrahepatic cholangiocarcinoma
Ref.Study typeInterventionSample sizeConversion to resectionTumor response
Burger et al[58], 2005RetrospectiveCisplatin, doxorubicin, and mitomycin-C172 (12%)NR
Herber et al[59],2007RetrospectiveMitomycin-C15BR1 PR, 9 SD, 4PD
Gusani et al[60], 2008RetrospectiveGemcitabine-based42NR20 SD, 15 PD
Hyder et al[61], 2013Retrospective – multi-institutionalcTACE (64.7%), DEB-TACE (5.6%), bland embolization (6.6%), or Y-90 (23.2%)198NR56 PR, 77 SD, 29 PD
Vogl et al[62], 2012RetrospectiveMit-C (20.9%), Gem. (7%), Mit-C +Gem (47%), Gem+ Mit-C and Cisplatin (25.1%)115NR10 PR, 66 SD, 39 PD
Alibertti et al[64], 2017RetrospectiveDEB-TACE and PEG-TACE1274 (4%)19 PR, 101 SD, 7 PD
Schiffman et al[65], 2011RetrospectiveEBIRI or DEB-DOX therapy243 (13%)1CR, 1PR, 13 SD, 3 PD
Kuhlmann et al[66], 2012ProspectiveIrinotecan (iDEB-TACE), mitomycin-C (cTACE)411 (4%)2 PR, 12 SD, 19 PD
Poggi et al[67], 2009RetrospectiveDEB-TACE93 (33%)4 PR, 5 SD
Table 4 Select studies on neoadjuvant transarterial radioembolization/selective internal radiation therapy for intrahepatic cholangiocarcinoma
Ref.Study typeInterventionSample sizeConversion to resectionTumor response
Ibrahim et al[68], 2008ProspectiveY-90241 (4%)6PR, 15 SD, 1PD
Mouli et al[69], 2013RetrospectiveY-90465 (11%)11 PR, 33 SD, 1 PD
Rayar et al[71], 2015RetrospectiveGemcitabine followed by Y-90108 (80%)NR
Saxena et al[72], 2010RetrospectiveY-90251 (4%)6 PR, 11 SD, 5 PD
Rafi et al[73], 2012ProspectiveY-9019NR2 PR, 13 SD, 4 PD
Hoffman et al[74], 2012ProspectiveY-9033NR12 PR, 17 SD, 5 PD
Riby et al[75], 2020RetrospectiveY-901919 (100%)NR
Edeline et al[76], 2019Phase II TrialGemCis + Y-90269 (22%)NR
Table 5 Select studies on neoadjuvant hepatic artery infusion for intrahepatic cholangiocarcinoma
Ref.Study typeInterventionSample sizeConversion to resectionTumor response
Jarnagin et al[77], 2009Phase II trialHAI261 (4%)14 PR, 11 SD, 1PD
Kemeny et al[78], 2011Phase II trailHAI + bevacizumab183 (17%)7 PR, 11 SD
Konstantinidis et al[79], 2015RetrospectiveHAI + chemotherapy938 (4%)NR
Massani et al[80], 2015RetrospectiveHAI113 (27%)5 PR, 2 SD,
Tanaka et al[113], 2002RetrospectiveHAI111 (9%)7 PR, 2 SD, 2 PD
Shitara et al[114], 2008RetrospectiveHAI20NR1CR, 9PR, 8 SD, 2PD
Ghiringhelli et al[115], 2013RetrospectiveHAI122 (17%)8 PR, 3 SD, 1 PD