Literature DB >> 34188547

Perioperative Transfusion is Related to the Length of Hospital Stays in Primary Liver Cancer Patients.

Qi Qi1, Xuemeng Qian1, Xinfang Zhu1, Jiajing Cai1, Rong Xia1, Qi Zhang1.   

Abstract

PURPOSE: Blood loss may be corrected with red blood cell transfusion, but may ultimately contribute to negative impacts. This study was a retrospective analysis to assess the impact of perioperative blood transfusion on hospital stay days in liver cancer patients.
METHODS: We retrospectively examined data from patients with primary liver cancer who underwent curative resection. Patients were divided into perioperative blood transfusion (PBT) and non-PBT groups. Data were given as means and SDs for continuous variables and as counts and percentage for categorical variables. The correlation between blood transfusion and hospital stay days was analyzed by Fisher's exact test. Multivariable logistic regression analyses were used to identify independent predictors of length of hospital stays.
RESULTS: Totally 206/1031 patients (20.3%) were given perioperative transfusion. The mean length of hospital stay was 17.8 days in PBT and 13.9 days in non-PBT groups. Our multivariable logistic regression showed transfusion, total bilirubin, indirect bilirubin, and the ratio of albumin to bilirubin were all indicators of the length of hospital stay days. Perioperative transfusion was also associated with prolonged length of hospital stays (95% CI: 0.395-0.811, p = 0.002). Transfusion also affected intrinsic coagulation factors (activated partial thromboplastin time, fibrinogen, platelet), inflammatory index (neutrocyte to lymphocyte ratio, monocyte), albumin and bilirubin levels.
CONCLUSION: Perioperative transfusion of blood was associated with a significantly increased length of hospital stays probably via changing intrinsic coagulation and inflammatory factors and bilirubin levels in plasma.
© 2021 Qi et al.

Entities:  

Keywords:  bilirubin; coagulation factor; inflammatory factor; length of hospital stays; primary liver cancer; transfusion

Year:  2021        PMID: 34188547      PMCID: PMC8233480          DOI: 10.2147/CMAR.S296022

Source DB:  PubMed          Journal:  Cancer Manag Res        ISSN: 1179-1322            Impact factor:   3.989


Introduction

It has been reported that millions of units of blood products are transfused annually.1 Complications are more likely to take place after transfusion of blood products2 and transfusion can significantly increase the risk of morbidity and death in critically ill patients.3 Previous studies suggested that the storage time of red blood cells (RBCs) may lead to immunosuppression.4,5 RBCs undergo morphologic and functional changes during the duration for storage6 (what is called “storage lesions”), including imbalance of the cell membrane expression of CD47 and phosphatidylserine, which can contribute to activate the immune system.7 Moreover, during storage, cytokines and other immunomodulatory substances accumulate in the supernatant and trigger the activation of immune cells. Studies suggested that transfusions of storage-damaged red cells were likely to cause increased morbidity and mortality.2,8 Otherwise, researchers pointed that mortality increased linearly associated with the amount of blood transfused.9,10 Most studies focused on the index of patients’ mortality to assess the clinical effect of blood utilization.11,12 The secondary outcomes included complications of pneumonia, adverse reactions and sequentially hospital duration. It can be understandable that in-hospital day’s prolongation may make a potential and negative difference on the long-term maintenance of patients. Primary liver cancer (PLC) is one of the most common malignant tumors worldwide, for which resection surgically and transplantation are the primary choices for the treatment. Due to the rich blood supply and the fragility of the texture, intraoperative bleeding is unavoidable in resection of liver cancer, and clinical transfusion is usually required to correct anemia and maintain the stability of vital signs. Whether perioperative transfusion of red blood cell has a negative effect on patients with PLC by extending in-hospital days remains controversial.13–17 Based on this, the aim of our study is to evaluate the impact of transfusion on length of hospital stay (LOHS) in PLC patients who have received perioperative transfusion.

Patients and Methods

Patients

The retrospective study included PLC patients who underwent complete liver resection in Hua Shan Hospital of Fudan University of Shanghai, China from December 2015 to December 2018. All of the patients were made a definite diagnosis of PLC by the combination of epidemiologic history, clinical situation, laboratory tests, and imaging examination according to the Asian Pacific Association for the Study of the Liver guideline. We included neither patients who died during the hospitalization or had incomplete documentation within the medical records nor patients less than 18 years old. The study was conducted in accordance with the principles of the Declaration of Helsinki, and the study protocol was approved by the ethics committee of the Clinical Research Ethics Committee of the Huashan Hospital of Fudan University of Shanghai, China.18 Because of the retrospective nature of the study, patient consent for inclusion was waived. But patient’s personal information was appropriately anonymized and de-identified prior to analysis.

Data Collection and Outcomes

All of the patients were divided into two groups including perioperative blood transfusion (PBT) and non-PBT groups (Figure 1). All RBCs are prepared in accordance with international standards and supplied by the hospital blood bank according to applicable local regulations. Perioperative blood transfusion was defined as at least 1 unit of allogeneic red blood cell transfusion either during operation or within 24 hours after operation. Blood transfusion during operation was decided according to the institution’s clinical protocol19 (hemoglobin <70 g/L). Patients’ clinical data were obtained by medical record review within 48 hours after transfusion. Variables included prothrombin time (PT), activated partial thromboplastin time (APTT), fibrinogen, white blood cell (WBC), hemoglobin, hematocrit (hct), neutrocyte, lymphocyte, neutrocyte to lymphocyte ratio (NLR), monocyte, platelet, total bilirubin (tbil), direct bilirubin (dbil), indirect bilirubin (ibil), albumin, globulin, albumin to globulin ratio (AG), albumin/total bilirubin (alb/tbil), albumin/direct bilirubin (alb/dbil), albumin/indirect bilirubin (alb/ibil). The main study outcomes were the length of hospital stay of patients.
Figure 1

The flow chart of grouping in the study.

The flow chart of grouping in the study.

Statistical Analysis

Data were given as means and SDs for continuous variables and as counts and percentage for categorical variables. The odds ratios (ORs) and corresponding 95% confidence intervals (CIs) of death in the patients were calculated, respectively, using univariate and multivariate logistic regression analyses. The differences in several groups were compared by independent t test and chi-square test. The data analysis software was SAS for windows version 9.4 (SAS Institute, Cary, NC, USA), IBM SPSS Statistic for windows version 25.0 (SPSS Inc., Armonk, NY, USA) and R for windows (Version 3.4.4). P values <0.05 was considered as statistically significant.

Results

The Pathological Baseline of Patients with PLC

The patient demographics and baseline clinical variables according to transfusion are shown in Table 1. The mean hospital stay was 14.7 ± 6.5 days, including 13.9 ± 5.5 days for no transfusion group and 17.8 ± 8.8 days for transfusion group. Patients receiving perioperative red cell transfusion had increased hospital stay days.
Table 1

Patients’ Clinicopathological Characteristics

TotalPBT GroupNone-PBT GroupP value
N1031 (100.0)206 (20.0)825 (80.0)
Age0.052
 ≦50339 (32.9)56 (5.4)283 (27.4)
 >50692 (67.1)150 (14.5)542 (52.6)
Gender0.136
 Male777 (75.4)147 (14.3)630 (61.1)
 Female254 (24.6)59 (5.7)195 (18.9)
BMI23.3 (3.1)22.9 (3.3)23.4 (3.0)0.091
Co-illnesses132 (12.8)38 (3.7)94 (9.1)0.007
ASA scores<0.001
 ≦2992 (96.2)187 (18.1)805 (78.1)
 >239 (3.8)19 (1.8)20 (1.9)
HBsAg (+)700 (68.0)121 (11.7)579 (56.2)0.002
Anti-HCV (+)18 (1.7)8 (0.8)10 (1.0)0.009
Cirrhosis (+)661 (64.1)132 (12.8)529 (51.3)0.991
ECOG performance status0.059
 0953 (92.4)184 (17.8)769 (74.6)
 1–278 (7.6)22 (2.1)56 (5.4)
Repeat hepatectomy186 (18.0)37 (3.6)149 (14.5)0.974
Child-Pugh grade0.112
 A1021 (99.0)202 (19.6)819 (79.4)
 B10 (1.0)4 (0.4)6 (0.6)
TNM stage<0.001
 I370 (35.9)47 (4.6)323 (31.3)
 II384 (37.2)86 (8.3)298 (28.9)
 III243 (23.6)60 (5.8)183 (17.7)
 IV34 (3.3)13 (1.3)21 (2.0)
Tumor differentiation0.272
 I18 (1.7)2 (0.2)16 (1.6)
 II691 (67.0129 (12.5)562 (54.5)
 III312 (30.3)73 (7.1)239 (23.2)
 IV10 (1.0)2 (0.2)8 (0.8)
Tumor size<0.001
 ≦5689 (66.8)105 (10.2)584 (56.6)
 >5342 (33.20101 (9.8)241 (23.4)
Tumor number0.994
 Solitary836 (81.1)167 (16.2)669 (64.9)
 Multiple195 (18.9)39 (3.8)156 (15.1)
 Satellites179 (17.4)57 (5.5)122 (11.8)<0.001
Extent of hepatectomy<0.001
 Minor764 (74.1)120 (11.6)644 (52.5)
 Major267 (25.9)86 (8.3)181 (17.6)
Pringle maneuver423 (41.0)76 (7.4)347 (33.7)0.177
Vascular invasion120 (11.6)34 (3.3)86 (8.3)0.015
Portal hypertension (+)101 (9.8)35 (3.4)66 (6.4)<0.001
Hospital-stay days14.7 (6.5)17.8 (8.8)13.9 (5.5)<0.001
Intraoperative blood loss, mL389.7 (421.1)820.2 (693.0)282.2 (209.7)<0.001

Notes: Co-illnesses: comorbid illnesses include hypertension, diabetes, cardiovascular disease, appendicitis, cholecystitis and renal dysfunction.

Abbreviations: BMI, body mass index; ECOG, Eastern Cooperative Oncology Group; HBsAg, hepatitis B surface antigen; HCV, hepatitis C virus;.

Patients’ Clinicopathological Characteristics Notes: Co-illnesses: comorbid illnesses include hypertension, diabetes, cardiovascular disease, appendicitis, cholecystitis and renal dysfunction. Abbreviations: BMI, body mass index; ECOG, Eastern Cooperative Oncology Group; HBsAg, hepatitis B surface antigen; HCV, hepatitis C virus;.

Red Cell Transfusion Prolonged Hospital Stay Days of PLC Patients

To identify the relationship between transfusion and LOHS, subjects were separated into two groups (Figure 1). Fisher’s exact tests revealed that red cell transfusion was associated with the short-term outcomes (p<0.05). In the group less than 15 days, 14.1% of the patients were with RBCs transfusion, compared with 29.1% of the group over 15 days, which indicated that the proportion of blood transfusion was increased by one time in accordance with the duration in hospital (Table 2).
Table 2

The Relationship Between Transfusion and Hospital Duration

LOHS < 15 DaysLOHS ≥ 15 DaysP value
NumberPercentage Within LOHS GroupNumberPercentage Within LOHS Group
Transfusion8814.1%11829.1%<0.05
Non-transfusion53885.9%28770.9%< 0.05
Total626100.0%405100.0%< 0.05
The Relationship Between Transfusion and Hospital Duration

Relevant Clinical Indicators of the LOHS

To seek the reason why the transfusion patients’ hospital stay days were different from that of the non-transfusion patients’, we observed the postoperative indicators related to inflammation and coagulation between different hospital stay groups. The level of postoperative monocytes was the only inflammatory index of statistical difference (7.5±3.6 vs 7.3±3.7, p=0.038). These coagulation indicators’ significant differences in patients was also detected, including fibrinogen (2.4±0.9 vs 2.6±1.4, p<0.001), and platelet (148.3±67.6 vs 159.3±85.9, p<0.001). Besides, we discovered that post contents of several kinds of bilirubin and albumin (alb) were significantly different between the two groups (Table 3).
Table 3

Comparisons of Patients’ Postoperative Parameters Between the Different Hospital Stays Groups

TotalHospital Stays < 15 DaysHospital Stays ≥ 15 DaysP value
PT, s13.8 (9.1)13.6 (9.1)14.2 (9.2)0. 806
APTT, s31.8 (13.0)31.2 (11.8)32.7 (14.7)0.048
Fibrinogen, g/L2.5 (1.1)2.4 (0.9)2.6 (1.4)<0.001
WBC16.5 (74.8)14.9 (42.2)18.8 (107.0)0.210
Hemoglobin, g/L121.7 (20.7)123.3 (20.1)119.2 (21.3)0.132
Hct38.3 (21.3)38.3 (20.1)38.4 (23.0)0.330
Neutrocyte85.9 (26.2)86.3 (33.3)85.4 (7.2)0.522
Lymphocyte7.4 (5.0)7.5 (4.4)7.1 (5.7)0.178
NLR16.4 (12.7)16.1 (13.4)16.8 (11.6)0.732
Monocyte7.4 (3.6)7.5 (3.5)7.3 (3.7)0.038
Platelet count, × 109/L152.7 (75.5)148.3 (67.6)159.3 (85.9)<0.001
Tbil27.6 (37.8)23.5 (23.7)33.9 (52.0)<0.001
Dbil14.6 (29.3)11.3 (18.7)19.6 (40.0)<0.001
Ibil12.9 (11.7)12.1 (8.8)14.1 (15.0)<0.001
Albumin, g/L36.6 (4.4)37.1 (4.3)35.8 (4.6)0.02
Globulin, g/L †23.6 (8.3)24.0 (9.8)22.8 (5.3)0.458
AG1.6 (0.4)1.6 (0.4)1.6 (0.4)0.105
Alb/Tbil2.0 (1.0)2.1 (1.0)1.8 (0.9)0.934
Alb/Dbil4.4 (2.6)4.7 (2.6)4.0 (2.7)0.831
Alb/Ibil3.4 (11.4)3.3 (14.5)3.6 (1.9)0.525
Comparisons of Patients’ Postoperative Parameters Between the Different Hospital Stays Groups To further confirm the independent factor for LOHS, we used univariate and multivariate regression analysis as follows (Table 4). The data suggested that perioperative RBCs transfusion did impact the patients’ hospital stay days. Meanwhile, the results showed that the indicators of total bilirubin (tbil), indirect bilirubin (ibil), and the ratio of albumin to total bilirubin (alb/tbil) and albumin to indirect bilirubin (alb/ibil) could be used to estimate the LOHS of PLC patients.
Table 4

Univiarate and Multivariate Analysis of LOHS

VariablesUnivariate AnalysisMultivariate Analysis
Hazard Ratio (95% CI)HR P valueHazard Ratio (95% CI)HR P value
PT, s1.007 (0.993–1.021)0.3351.005 (0.991–1.020)0.493
APTT, s1.010 (0.997–1.024)0.1391.004 (0.994–1.014)0.458
Fibrinogen, g/L1.131 (1.001–1.278)0.0491.136 (0.982–1.315)0.087
WBC1.001 (0.999–1.003)0.4511.001 (0.999–1.003)0.338
Hemoglobin, g/L0.990 (0.984–0.996)0.0020.997 (0.990–1.005)0.494
Hct1.000 (0.994–1.006)0.9611.001 (0.995–1.008)0.719
Neutrocyte0.998 (0.992–1.005)0.6160.993 (0.968–1.019)0.599
Lymphocyte0.983 (0.955–1.011)0.2230.990 (0.954–1.028)0.604
NLR1.005 (0.995–1.015)0.3761.002 (0.985–1.020)0.824
Monocyte0.986 (0.949–1.024)0.4680.988 (0.949–1.028)0.550
Platelet count,×109/L1.002 (1.000–1.004)0.0261.002 (1.000–1.004)0.048
Tbil1.010 (1.005–1.006)<0.0011.013 (1.005–1.021)0.002
Dbil1.013 (1.006–1.021)<0.0010.990 (0.970–1.010)0.307
Ibil1.017 (1.003–1.030)0.0131.013 (1.005–1.021)0.001
Albumin, g/L0.934 (0.906–0.963)<0.0010.978 (0.934–1.024)0.335
Globulin, g/L0.968 (0.946–0.992)0.0080.955 (0.909–1.002)0.062
AG1.034 (0.735–1.454)0.8490.828 (0.383–1.791)0.631
Alb/Tbil0.701 (0.608–0.809)<0.0010.483 (0.265–0.880)0.017
Alb/Dbil0.881 (0.835–0.931)<0.0011.069 (0.934–1.223)0.331
Alb/Ibil1.003 (0.989–1.017)0.6671.235 (1.021–1.492)0.029
Transfusion0.400 (0.292–0.547)<0.0010.566 (0.395–0.811)0.002
Univiarate and Multivariate Analysis of LOHS

Transfusion Has an Effect on Hospital Stay Days Probably Through Affecting Functional Indexes

To explain the cause of why transfusion led to prolong patients’ hospital duration, we evaluated clinical laboratory test results between the transfusion and non-transfusion groups (Table 5). Significant differences existed among the postoperative factors of APTT, fibrinogen, hct, neutrocyte to lymphocyte ratio (NLR), monocyte, platelet, tbil, dbil, ibil, alb, the albumin and globulin ratio (AG), the albumin and direct bilirubin ratio (alb/dbil) between the two groups (all p < 0.05). This suggests that the intrinsic coagulation pathway and inflammatory index were changed in patients receiving a transfusion. Transfusion also affect bilirubin levels, which are independent factors for LOHS.
Table 5

Comparisons of Patients’ Postoperative Parameters Between PBT and Non-PBT Groups

TotalPBT GroupNone-PBT GroupP value
PT, s13.8 (9.1)14.6 (8.6)13.7 (9.2)0. 678
APTT, s31.2 (6.1)35.2 (19.2)30.9 (10.7)0.002
Fibrinogen, g/L2.5 (1.1)2.5 (1.7)2.5 (0.9)<0.001
WBC16.5 (74.8)13.9 (5.9)17.1 (83.9)0.425
Hemoglobin, g/L121.7 (20.7)110.2 (19.5)124.6 (20.0)0.652
Hct38.3 (21.3)37.3 (31.2)38.6 (17.6)0.011
Neutrocyte85.9 (26.2)86.8 (6.1)85.7 (29.3)0.53
Lymphocyte7.4 (5.0)6.5 (6.7)7.6 (4.4)0.398
NLR16.4 (12.7)19.3 (12.5)15.6 (12.7)0.038
Monocyte7.4 (3.6)7.3 (5.0)7.5 (3.1)0.038
Platelet count, × 109/L152.7 (75.4)150.3 (92.2)153.3 (70.6)0.001
Tbil27.6 (37.8)41.8 (63.6)23.9 (26.6)<0.001
Dbil14.6 (29.3)24.5 (48.4)12.1 (21.1)<0.001
Ibil12.9 (11.7)17.0 (19.0)11.9 (8.6)<0.001
Albumin, g/L36.6 (4.4)34.4 (5.0)37.2 (4.1)<0.001
Globulin, g/L †23.6 (8.3)22.7 (6.6)23.8 (8.7)0.093
AG1.6 (0.4)1.6 (0.45)1.6 (0.34)<0.001
Alb/Tbil2.0 (1.0)1.4 (0.9)2.1 (1.0)0.061
Alb/Dbil4.4 (2.6)3.1 (2.3)4.8 (2.6)0.001
Alb/Ibil3.4 (11.4)3.1 (1.9)3.5 (12.7)0.587
Comparisons of Patients’ Postoperative Parameters Between PBT and Non-PBT Groups

Discussion

Primary liver cancer (PLC) is one of the most common tumors worldwide.20 In China, the annual incidence and mortality of PLC are estimated to continue to increase.21 Although surgical resection and transplantation are the main treatment options, it is still a challenge with a high risk of massive blood loss. And the long-term prognosis remains unsatisfactory because of recurrence and metastasis after curative resection.22 The outcome is reported to be influenced probably by many clinical factors, such as liver cirrhosis, tumor size, surgical margin, vascular invasion and perioperative blood transfusion.23,24 PBT has already been reported to negatively affects survival time of patients in many neoplasms.25–29 The current study showed a clear connection between PBT and in-hospital days in PLC, and found that transfusion prolonged in-hospital days. Multivariate regression analysis demonstrates the LOHS is related to serum tbil, ibil, alb/tbil, alb/ibil and transfusion. Researchers have pointed that elevated bilirubin could lead to irreversible damage to the brains and neurons, especially the increased indirect bilirubin with strong toxicity.30,31 And the bilirubin-albumin ratio level was related to the bilirubin encephalopathy, which could be a potential predictor in neonates’ patients. The imbalance of oxidation and antioxidation is associated with varieties of inflammatory conditions. ROS may promote the release of inflammatory cytokines, which may weaken antioxidant defenses and lead to oxidative stress. It was reported that Ibil exerted anti-ROS properties. Thus, we suppose that bilirubin as endogenous antioxidants which have been shown to inhibit the production of proinflammatory cytokine,32 and therefore had protective effects.33 Bilirubin may be over-consumed and destructed during the inflammatory process and due to prolong in-hospital days. To further explain why RBCs transfusion leads to prolonged in-hospital days, we estimated postoperative clinical laboratory parameters. When patients were given perioperative RBCs transfusion, the time of APTT increased, the levels of fibrinogen changed and the amount of platelet decreased respectively. This suggested that the transfused red blood cell had certain effects on coagulation function.34 The altered NLR and the quantity of monocyte showed that PLC patients inclined to get bacterial infection and the immune defense weakened,35 which probably caused longer hospital stays in the PBT group. Besides, other different post indicators including all kinds of bilirubin, albumin, albumin/globulin and albumin/bilirubin indicated the degree of liver function recovery and Impaired renal function after RBCs transfusion.36 As we all know, after the rupture of red blood cells transfused in spleens, heme is released to bind the globin in serum and thus transform into indirect bilirubin.37 The more red blood cells are destroyed, the more indirect bilirubin with toxicity. The decreased albumin showed impaired liver function and the less ability to detoxify. In our study, both the levels of bilirubin and bilirubin-albumin ratio changed a lot in different hospital duration or transfusion groups. This may provide a new perspective on that transfusion could impact the in-hospital days of PLC patients through changing bilirubin and albumin in plasma. However, the results may not be generalized to all of the liver cancers due to several potential limitations in our study. First, the retrospective nature determines it is not a randomized controlled trial and all of the data were come from a single medical center. Second, although 1031 patients underwent curative liver resection in this study, only 206 of them received red blood cell transfusion, and the small sample size limited us from drawing conclusions about the correlation between transfusion and in-hospital maintenance. Thus, a large-scale prospective study in multicenter is needed for further confirmation. In conclusion, the relationship between transfused RBCs transfusion and the length of hospital stays of PLC patients after curative resection was evaluated in this retrospective study. We found that transfusion prolonged in-hospital maintenance of patients with primary liver cancer via changing intrinsic coagulation and inflammatory factors and bilirubin levels in plasma.
  36 in total

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2.  Impact of perioperative blood transfusion on survival of patients undergoing laparoscopic gastrectomy for gastric cancer.

Authors:  Rong Gui; Hao Tang; Meng Gao; Jing Liu; Rong Huang; Guosheng Zhao; Jinqi Ma; Mengqing Yi; Fengxia Liu; Yunfeng Fu
Journal:  J BUON       Date:  2017 Mar-Apr       Impact factor: 2.533

3.  Blood transfusion is an independent predictor of increased mortality in nonoperatively managed blunt hepatic and splenic injuries.

Authors:  William P Robinson; Jeongyoun Ahn; Arvilla Stiffler; Edmund J Rutherford; Harry Hurd; Ben L Zarzaur; Christopher C Baker; Anthony A Meyer; Preston B Rich
Journal:  J Trauma       Date:  2005-03

4.  Storage age of transfused red blood cells during liver transplantation and its intraoperative and postoperative effects.

Authors:  Jun Chen; Terry Singhapricha; Masood Memarzadeh; Alyssa Ziman; Shan Yuan; Ke-qin Hu; Randolph H Steadman; Ronald W Busuttil; Victor W Xia
Journal:  World J Surg       Date:  2012-10       Impact factor: 3.352

5.  Duration of red blood cell storage and outcomes following orthotopic liver transplantation.

Authors:  Lauren K Dunn; Robert H Thiele; Jennie Z Ma; Robert G Sawyer; Edward C Nemergut
Journal:  Liver Transpl       Date:  2012-04       Impact factor: 5.799

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Authors:  Jun Li; Lei Zhao; Zhong Wang; Xiuying Zhao; Jian Wu
Journal:  Neurodegener Dis       Date:  2020-02-18       Impact factor: 2.977

7.  Blood transfusion, independent of shock severity, is associated with worse outcome in trauma.

Authors:  Debra L Malone; James Dunne; J Kathleen Tracy; A Tyler Putnam; Thomas M Scalea; Lena M Napolitano
Journal:  J Trauma       Date:  2003-05

8.  Perioperative Red Blood Cell Transfusion Is Associated with Poor Long-term Survival in Pancreatic Adenocarcinoma.

Authors:  Tomoyuki Abe; Hironobu Amano; Keiji Hanada; Tomoyuki Minami; Shuji Yonehara; Minoru Hattori; Tsuyoshi Kobayashi; Toshikatsu Fukuda; Masahiro Nakahara; Hideki Ohdan; Toshio Noriyuki
Journal:  Anticancer Res       Date:  2017-10       Impact factor: 2.480

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10.  Lesson from 610 liver resections of hepatocellular carcinoma in a single center over 10 years.

Authors:  Dai Hoon Han; Gi Hong Choi; Jun Yong Park; Sang Hoon Ahn; Kyung Sik Kim; Jin Sub Choi; Kwang-Hyub Han
Journal:  World J Surg Oncol       Date:  2014-06-24       Impact factor: 2.754

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