- *Corresponding Author:
- Yi Luo
Department of Blood Transfusion,
Three Gorges Hospital,
|This article was originally published in a special issue, “Diagnostic and Therapeutic Advances in Biomedical Research and Pharmaceutical Sciences”|
|Indian J Pharm Sci 2021:83(5) spl issue “94-100”|
To explore the predictive value of serum high-sensitivity C-reactive protein and leukotriene B4 in perioperative blood transfusion patients with colon cancer in patients with adverse blood transfusion reactions. 168 patients undergoing colon cancer surgery in a hospital from March 2018 to March 2020 were selected as the research objects and checked the levels of high-sensitivity C-reactive protein and leukotriene B4 in the venous blood of all patients. There were 73 cases in the adverse blood transfusion group (experimental group) and 95 cases in the non-transfusion reaction group (control group). The serum levels of high-sensitivity C-reactive protein and leukotriene B4 in the two groups were compared. Based on the analysis of the basic data of the two groups of patients, serum high-sensitivity C-reactive protein and leukotriene B4 are independent risk factors for perioperative adverse reactions in colon cancer patients. The levels of serum high-sensitivity C-reactive protein and leukotriene B4 in the experimental group are higher than those in the normal group and there are differences, both were statistically significant (p<0.05); receiver operating characteristic curve results showed that the area under the curve of high-sensitivity C-reactive protein and leukotriene B4 alone and in combination to predict adverse transfusion reactions were 0.733, 0.819 and 0.877, respectively. The area under the curve of combined factor diagnosis was greater than single diagnosis; serum high-sensitivity C-reactive protein≥14.64 mg/l and leukotriene B4≥18.86 pg/l are risk factors for adverse reactions in patients with colon cancer perioperative blood transfusion. Elevated serum high-sensitivity C-reactive protein and leukotriene B4 in patients with colon cancer during perioperative blood transfusion are risk factors for adverse blood transfusion reactions. High-sensitivity C-reactive protein≥14.64 mg/l and leukotriene B4≥18.86 pg/l suggest that adverse blood transfusion reactions may occur. The combination of the two can increase the incidence of adverse blood transfusion reactions.
Leukotriene B4, high-sensitivity C-reactive protein, colon cancer, adverse blood transfusion reactions
Blood transfusion is a treatment method that saves the lives of patients and it has been widely developed clinically . However, there may be related adverse blood transfusion reactions in patients during the blood transfusion process. Adverse blood transfusion reactions refer to the symptoms and signs related to blood transfusion, occurred during the blood transfusion or after the blood transfusion or the abnormal symptoms and symptoms that cannot be explained by the original disease [2-4]. Physical signs, adverse blood transfusion reactions are one of the life-threatening complications of blood transfusion, the most common of which are allergic reactions, fever reactions and hemolytic reactions. Studies have pointed out that blood type incompatibility is the main cause of hemolytic reactions in patients. In addition, even with mild allergic reactions, the risk of death in blood transfusion patients will greatly increase [5,6]. According to the time of symptom onset, adverse blood transfusion reactions can be divided into immediate transfusion reactions and delayed transfusion type blood transfusion reaction . Therefore, the adverse blood transfusion reaction can be diagnosed as soon as possible and accurately, so that preventive measures can be obtained faster and the outcome of the patient’s adverse blood transfusion reaction can be improved in time [8,9]. High-sensitivity C-Reactive Protein (hs- CRP) and leukotriene B4 (LTB4) are factors related to inflammation and immunity [10,11]. Studies have shown that the combined detection of eotaxin and LTB4 in serum is related to the occurrence of adverse blood transfusion reactions  and its serum markers. There are few studies that predict the occurrence of related blood transfusion reactions [13,14]. Studies have shown that the type of blood transfusion, the time of blood transfusion, the history of blood transfusion and the history of blood diseases, etc., will increase the incidence of adverse blood transfusion reactions. Colon cancer perioperative or intraoperative blood transfusion is large and the possibility of adverse blood transfusion reactions is high . This study is based on colon cancer patients. By detecting the levels of hs-CRP and LTB4 in the serum of colon cancer patients and analyzing its relationship with the occurrence of blood transfusion reactions, this study hopes to find serum markers for early prediction of adverse blood transfusion reactions in colon cancer patients undergoing blood transfusion.
Materials and Methods
Selected patients, who were diagnosed with colon cancer in our hospital from March 2018 to March 2020 and all required radical resection of surgery, all required blood transfusion during the perioperative period. Among all colon cancer perioperative blood transfusion patients, 73 patients with blood transfusion reactions were selected into the experimental group and 95 patients without blood transfusion reactions during the same period were selected into the control group. The general data of the two groups of patients are comparable (Table 1). The research protocol has been approved by the hospital ethics committee, all patients included in the experimental group or the control group communicated with their family members.
Inclusion criteria: Diagnosis according to “Blood transfusion therapy”; Allergic reactions: Local or systemic skin itching, dyspnea, abdominal pain and diarrhea and other unexplainable symptoms; Nonhemolytic febrile reaction: Blood transfusion fever occurs within 1 to 2 h after transfusion and the body temperature can reach 39-40° and the duration is within 2 h; Hemolytic reaction: Early headache, chest pain, chills, high fever, shortness of breath, etc., severe shock, hemoglobinuria, acute renal failure and other symptoms.
Exclusion criteria: No other malignant tumors in the whole body except colon cancer; complicated with serious heart, lung and other medical diseases; pregnant women and psychiatric patients; patients who cannot actively cooperate, patients who use drugs that affect serum hs-CRP and LTB4 within the past week.
Standards for blood transfusion: According to the relevant regulations of the blood transfusion department of our hospital on the indications for blood transfusion, the indications for leukocyte suspension red blood cell transfusion: The patient’s hemoglobin, platelets and coagulation function before surgery are normal and the patient’s intraoperative blood loss exceeds 600 ml; after the patient, hemoglobin (Hb)<80 g/l was rechecked after operation, bloody fluid was continuously drawn from the abdominal drainage tube and hemoglobin was continuously decreased during dynamic recheck. Indications for frozen plasma infusion: Continuous bleeding from the wound during operation, drainage after operation, continuous bleeding in the tube (reexamination of coagulation function abnormality, the Prothrombin Time (PT) delay>3 s, Activated Partial Thromboplastin Time (APTT)>1.5 times, the International Normalized Ratio (INR) prolongation is greater than 2 times) and Disseminated Intravascular Coagulation (DIC), etc.; abnormal liver function associated with wound hemorrhage and other related basic diseases, etc., plasma infusion can be used as note for prevention.
Sample collection and measurement: In the early morning on an empty stomach, all subjects were subjected to 3 ml elbow venous blood in an anticoagulation tube. After adding the anticoagulant, the supernatant was centrifuged at 3000 r/min for 10 min and the supernatant was retained and stored at -80° for testing. Subsequently, an Enzyme-Linked Immunosorbent Assay (ELISA) kit (provided by Diagnostica Stago) was used to detect the levels of hs-CRP and LTB4 in the serum of all patients. The ELISA kit in the experiment was purchased from R&D Systems in the United States. All tests are completed by professional laboratory personnel in accordance with the instructions and instrument operating specifications.
Observation indicators: Detect the hs-CRP and LTB4 expression levels in the serum of the two groups of patients by univariate analysis, multivariate logistic regression to confirm the risk factors of blood transfusion reaction and use Receiver Operating Characteristic (ROC) curve to evaluate whether hs-CRP and LTB4 alone and in combination, predict the value of adverse blood transfusion reactions.
The data was analyzed by Statistical Package For The Social Sciences (SPSS) 25.0 software. Qualitative data is expressed as mean±standard deviation (x±s) and quantitative data is expressed as frequency (percent) [n (%)]. The independent sample t test was used to compare the measurement data between the two groups and the χ2 test was used to count the data. The ROC curve was used to evaluate the predictive value of hs- CRP and LTB4 alone and in combination on the adverse effects of perioperative blood transfusion. Then pass and calculate the cut-off value and use logistic regression model to analyze the correlation between hs-CRP, LTB4 and adverse blood transfusion reactions, p<0.05 indicates that the difference is statistically significant.
Results and Discussion
Compare the two groups of patients with baseline data such as age, gender, Body Mass Index (BMI), previous blood transfusion history, previous blood transfusion allergy history, drug allergy history, blood transfusion components, blood transfusion volume and underlying diseases. The difference was not significant and not statistically significant (p>0.05). The two groups had significant differences in the history of blood transfusion allergy, history of drug allergy, blood transfusion components and underlying diseases, with statistical significance (p<0.05) (Table 1).
|Project||Experimental group (73 cases)||Control group (95 cases)||t/χ2 value||p value|
|Past blood transfusion history||0.745||0.662|
|Yes||35 (47.95 %)||44 (47.95 %)|
|No||38 (52.05 %)||51 (47.95 %)|
|Past blood transfusion allergy history||4.671||0.015|
|Yes||14 (19.18 %)||6 (6.32 %)|
|No||21 (28.77 %)||38 (40.0 %)|
|History of drug allergy||2.315||0.042|
|Yes||10 (13.70 %)||6 (6.32 %)|
|No||63 (86.30 %)||89 (93.68 %)|
|Blood transfusion components||4.671||0.008|
|Platelets||10 (13.70 %)||3 (3.16 %)|
|Cryoprecipitate||19(26.03 %)||2 (2.11 %)|
|Frozen plasma||52 (71.23 %)||86 (90.53 %)|
|Suspended red blood cells||46 (63.01 %)||59 (62.11 %)|
|Wash red blood cells||5 (6.85 %)||0 (0.00 %)|
|Other||9 (12.33 %)||11 (11.58 %)|
|Immune disease||5 (6.85 %)||1 (1.05 %)|
|Blood disease||24 (32.88 %)||6 (6.32 %)|
|Other underlying diseases||21 (28.77 %)||19 (20.00 %)|
Table 1: Comparison of Baseline Data of Two Groups of Pregnant Women
Comparison of serum hs-CRP and LTB4 levels between the two groups of patients before and after blood transfusion was observed. Before blood transfusion, there was no significant difference in serum hs-CRP and LTB4 levels between the two groups of patients (p>0.05), after blood transfusion the hs-CRP and LTB4 in the experimental group were significantly higher than before blood transfusion with statistical significance (p<0.05). The serum hs-CRP and LTB4 levels of the control group did not change much before and after blood transfusion, which was not statistically significant (p>0.05). The results are shown in Table 2.
|Group||hs-CRP (mg/l)||LTB4 (pg/l)|
|Before blood transfusion||After blood transfusion||Before blood transfusion||After blood transfusion|
|Experimental group (73 cases)||8.34±3.49||20.57±6.57*||13.58±8.96||27.89±11.04*|
|Control group (95 cases)||7.96±3.05||9.05±3.36*||14.05±9.15||16.86±9.68*|
Table 2: Comparison of Serum Hs-Crp And Ltb4 Levels Between the Two Groups of Patients (x±s)
Multivariate logistic regression of adverse blood transfusion reactions were explained below. Taking the occurrence of adverse blood transfusion reactions as the dependent variable, the independent variables include serum hs-CRP (experimental group=1, control group=0) and serum LTB4 (experimental group=1, control group=0), which are significant. Differences in previous history of blood transfusion allergy (yes=1, no=0), history of drug allergy (yes=1, no=0), underlying diseases (yes=1, no=0) and blood transfusion components (>2 two types=1, ≤2 types=0), a stepwise logistic regression analysis was performed and the results showed that serum hs-CRP and LTB4 were independent risk factors for perioperative blood transfusion in patients with colon cancer (Table 3).
|Factor||ß||Wald χ2||p value||Odds ratio (OR) value||95 % CI|
|Past blood transfusion allergy history||0.531||0.904||0.062||1.812||0.535~2.251|
|History of drug allergy||0.068||0.834||0.115||1.464||0.792~3.046|
|Blood transfusion components||0.082||0.624||0.082||1.201||0.601~2.308|
Table 3: Multivariate Logistic Regression Analysis Results of Adverse Blood Transfusion Reactions
In order to further explore the predictive value of serum hs-CRP and LTB4, the occurrence of adverse blood transfusion reactions was used as the outcome variable, with a value of 1, if it occurred and a value of 0, if it did not occur and the single indicators of serum hs-CRP and LTB4, and the ROC curve of the combined response to blood transfusion. Serum hs-CRP and LTB4 are respectively 14.64 mg/l and 18.86 pg/l as the threshold value for prediction. ROC analysis results show that hs-CRP and LTB4 alone and in combination predict blood transfusion. The Area Under the Curve (AUC) of adverse reactions was 0.733, 0.819 and 0.877. The combined factor diagnosis has the highest AUC, with a sensitivity of 0.782, a specificity of 0.896 and a 95 % Confidence Interval (CI) of 0.803 and 0.924. The specific results are shown in Table 4 and fig.1.
|Variable||AUC||95 % CI||Cutoff value||Sensitivity||Specificity|
|hs-CRP||0.733||0.613~0.833||0.49||74.79 %||82.53 %|
|LTB4||0.819||0.675~0.876||0.51||76.69 %||84.14 %|
|hs-CRP+LTB4||0.877||0.803~0.924||0.58||78.24 %||89.61 %|
Table 4: Roc Curve Analysis of hs-CRP, Ltb4 and Their Combination in The Prediction of Adverse Blood Transfusion
Colon cancer is a common cancer in the digestive system. Due to the anatomical characteristics of the colon, tumors tend to invade blood vessels, increasing colon cancer’s aggressiveness, high metastasis and recurrence. Therefore, most of these diseases are diagnosed as advanced, with poor prognosis and high recurrence rate [16,17]. At present, the treatment of colon cancer mainly relies on surgical treatment. There are abundant blood vessels in the colon, so there is a higher risk of bleeding during the operation. Frequent blood transfusions are required during the perioperative period . Studies have also shown that in 68 % of patients with advanced colon cancer, the patient needs blood transfusion, which may cause changes in the patient’s immune system, produce immunosuppression and increase the perioperative infection rate of blood transfusion patients . Most scholars have shown that immune rejection is the main cause of adverse blood transfusion reactions and allergy and fever are the most common clinical manifestations of adverse reactions . Studies have shown that patients with platelet transfusion have the highest incidence of adverse blood transfusion reactions and cryoprecipitate has the lowest incidence of adverse blood transfusion reactions [1,21]. Despite the current strict grasp of blood transfusion indications and operating specifications, adverse blood transfusion reactions still occur. Therefore, exploring certain serum markers to predict the occurrence of adverse blood transfusion reactions is extremely important and has far-reaching significance in avoiding the prognosis of blood transfusion reactions.
hs-CRP is an inflammation marker, which is an acute inflammatory protein. The serum hs-CRP level can reflect the systemic inflammatory response. If the patient’s inflammatory response persists, then the hs- CRP level will continue to rise . Studies have shown that hs-CRP is a non-traditional risk factor to assess cardiovascular disease risk indicators. It also shows that depression in men is related to high levels of hs-CRP . Studies have also found that the severity of diabetes is related to the hs-CRP in patient’s free plasma, the increase of reactive protein (hs-CRP) is related . Studies have shown that the long-term survival time of patients with esophageal cancer is negatively correlated with the level of hs-CRP in the patient’s plasma before surgery. The decrease of hs-CRP level in serum indicates that the inflammatory state has improved. hs- CRP is involved in the inflammatory reaction process of allergic reaction, respiratory system and cardiovascular system . Studies have shown that when a transfusion hemolysis reaction occurs, the level of LTB4 in the serum is abnormally increased . Relevant studies have proved that the increase of hs-CRP and LTB4 in serum is related to the occurrence of adverse blood transfusion reactions . It also shows that serum hs- CRP and LTB4 are closely related to the occurrence of respiratory diseases. The method for serum detection of hs-CRP and LTB4 is enzyme-linked immunoassay . This study included colon cancer patients. The study showed that after perioperative blood transfusion, there was no difference in serum hs-CRP and LTB4 values between the experimental group and the control group before blood transfusion (p>0.05). After blood transfusion, the serum hs-CRP and LTB4 values of the experimental group was significantly higher than that of the control group (p<0.05), while serum hs-CRP and LTB4 in the control group were not significantly different before and after blood transfusion (p>0.05), indicating that hs-CRP and LTB4 are associated with colon cancer perioperative blood transfusion adverse reactions, there is a certain correlation. When the body has an adverse blood transfusion reaction, the body will have an antigen-antibody reaction, the white blood cells will be lysed and the inflammatory factors will be fully released, which will cause the serum hs-CRP and LTB4 of patients with colon cancer to increase.
The study also found that, in addition to serum hs-CRP and LTB4, the two groups had significant differences in the history of blood transfusion allergy, drug allergy history, blood transfusion components and underlying diseases, with statistical significance (p<0.05). The patient with a history of allergy to blood transfusion may be because of that when the patient is transfused again, the white blood cells will be lysed and inflammatory factors and allergens will be fully released and adverse reactions related to blood transfusion such as allergy and fever will occur. Studies have shown that there are differences in the incidence of adverse blood transfusion reactions in patients with different underlying diseases. Patients with past blood diseases have the highest incidence, which can reach 3 %, followed by immune diseases and adverse blood transfusion reactions up to 1.32 %. Studies have also shown that different blood types have different probabilities of adverse transfusion reactions. Adverse reactions are the highest in transfusion of apheresis platelets and the lowest in transfusion of washed red blood cells [29,30].
In order to further confirm the value of serum hs-CRP and LTB4 in predicting adverse blood transfusion reactions, a stepwise logistic regression analysis was carried out and it was found that serum hs-CRP and LTB4 were independent risk factors for predicting adverse blood transfusion reactions. At the same time, single indicators of serum hs-CRP and LTB4 were drawn and the ROC curve of the combined response to blood transfusion. Serum hs-CRP and LTB4 are respectively 14.64 mg/l and 18.86 pg/l as the threshold value for prediction. ROC analysis results show that hs-CRP and LTB4 alone and in combination predict blood transfusion The AUC of adverse reactions was 0.733, 0.819 and 0.877. The combined factor diagnosis has the highest AUC, with a sensitivity of 0.782 and a specificity of 0.896.
In summary, serum hs-CRP and LTB4 can be used as serum markers to predict the occurrence of adverse transfusion reactions in patients with colon cancer perioperative blood transfusion. There are certain shortcomings in the single study. The sample size of the single center is still not enough. More samples are needed for prospective exploratory research and other serum indicators that affect transfusion reactions have not been fully included and further exploration is needed.
Conflicts of interest:
The authors declared no conflict of interest.
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