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Erschienen in: BMC Infectious Diseases 1/2022

Open Access 01.12.2022 | Research

Efficacy and safety of caspofungin for patients with hepatic insufficiency

verfasst von: Xiaoyun Ran, Pengfei Wang, An Zhang, Binfei Tang

Erschienen in: BMC Infectious Diseases | Ausgabe 1/2022

Abstract

Background

To observe the changes of hepatic function and efficacy of conventional dosage of caspofungin in the treatment of patients with different Child–Pugh scores.

Methods

In total, 200 patients (Child–Pugh A group: 66 patients, Child–Pugh B group: 83 patients, Child–Pugh C group: 51 patients) treated with caspofungin from May 2018 to March 2021 in the Second Affiliated Hospital of Chongqing Medical University were enrolled. Main investigation items were as follows: sex, age, weight, duration of treatment, dosage, department, underlying diseases, risk factors for fungal infection, albumin, liver enzyme, total bilirubin, serum creatinine, estimated glomerular filtration rate. To investigate the changes of liver, kidney function tests and efficacy during the treatments of caspofungin. Patients were divided into three groups according to the duration of treatment of caspofungin:1-week group, 2-week group and 3-week group, respectively.

Results

In the three groups, albumin, liver enzyme levels, total bilirubin and serum creatinine, estimated glomerular filtration rate had no significant difference (P > 0.05). The efficacy of different Child–Pugh scores and different duration of treatment was also significantly different (P > 0.05).

Conclusions

Caspofungin is well tolerated and highly effective. And it will not exacerbate the hepatic and renal function when administered with the not-reducing dose, which indicate the clinical application value of caspofungin. Besides, extending the treatment duration has little effect on improving the efficacy of caspofungin. The drug should be withdrawn timely according to the patients’ clinical condition in order to reduce the adverse reactions and economic burden.
Hinweise
Xiaoyun Ran and Pengfei Wang contributed equally to this work

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Background

Since the start of the new millennium, invasive fungal infection (IFI) has drastically increased. IFI related mortality rates is 27.6%, there are about 100, 000 in-patients with IFI every year, and the annual cost of treating IFI in the United States is more than $7 billion [1]. Therefore, the selection of appropriate and effective antifungal drugs is an important factor to alleviate morbidity and economic burden of patients.
Currently available antifungal agents for IFIs includes echinocandins, polyenes, flucytosine, triazoles. But, a series of adverse drug reactions (ADRs) were followed with the widespread use of antifungal drugs. The most common ADRs are hepatotoxicity, nephrotoxicity and hypokalemia [24].
Caspofungin, as the representative of echinocandins, is generally well tolerated and safety [5, 6]. The most common abnormal laboratory index about caspofungin is elevation of liver function values, manifested by increased serum alkaline phosphatase and transaminase concentrations, and the increase of serum creatinine and blood urea nitrogen [7, 8].
However, the research on the application of caspofungin in patients with hepatic insufficiency (HI) is insufficient. In order to guide the clinical diagnosis and treatment of antifungal drugs in patients with HI. This study collected relevant clinical cases, revealed the clinical effect of caspofungin in patients with HI, and analyzed the changes of laboratory indexes such as liver and kidney function in patients treated with caspofungin. The report is as follows.

Materials and methods

Inclusion criteria and study design

This study was a retrospective single-center analysis, designed to estimate the changes of hepatic function and efficacy of caspofungin (Cancidas®, Merck & Co. Inc., Kajing®, Jiangsu Hengrui Medicine Co. Ltd) used for the confirmed, clinically diagnosed and suspected of IFI in the Second Affiliated Hospital of Chongqing Medical University during May 2018 to March 2021. Clinical profiles and laboratory parameters of the patients, were evaluated. All patients aged > 18 years, treatment duration ≥ 7 days, matched with The Chinese guidelines for the diagnosis and treatment of invasive fungal disease in patients with hematological disorders and cancers (the 6th revision), Guidelines for the diagnosis and treatment of Invasive fungal infection in critical ill patients (2007) were included in the study.
The Child–Pugh score was graded as 5–6 points for Child–Pugh A, 7–9 points for Child–Pugh B, and 10–15 points for Child–Pugh C. Patients were be divided into mild, moderate, or severe by the corresponding Child–Pugh score A, B and C.
The standard dose of caspofungin to treat IFI was a 70-mg loading dose followed by a once-daily maintenance dose of 50 mg infused over 1 h. All patients were administered with caspofungin. Efficacy was assessed in all patients at the end of caspofungin therapy and the hepatic and renal functions were recorded before administration (D0), the first day (D1), the 7th day (D7), the 14th day (D14), the 21th day (D21) and the 28th day (D28) of the administration, which included the albumin, alamine aminotransferase (ALT), aspartate aminotransferase (AST), alkaline phosphatase (ALP), γ-glutamyl transpeptidase (GGT), total bilirubin (TBIL) and serum creatinine (Scr), estimated glomerular filtration rate (eGFR).
Criterias for efficacy was referred to the Mycoses Study Group and European Organization for Research and Treatment of Cancer Consensus Criteria (2008) [9], and the efficacy was defined as complete response, partial response, stable response, progression of fungal disease, death.

Statistical analysis

Statistical analysis was performed through IBM SPSS Statistics 21. The enumeration data were expressed as percentage (%), and the measurement data as median (quartile) (M, P25-P75), Friedman test was used to compare the changes of various parameters in different times during medication, and Wilcoxon signed-rank test was used to compare the differences between the two groups. In order to avoid Type I error caused by pairwise comparison of multiple samples, Bonferroni's correction was needed, P values < 0.05 were regarded as statistically significant. Chi-square test was used to compare the efficacy, P values < 0.05 indicated that the difference was statistically significant.

Results

Patient characteristics

Characteristics of the 200 patients evaluated in the study were shown in Table 1. Fifty-four (27%) patients had suffered from hematologic malignancies, fifty-one (25.5%) patients had liver cirrhosis, followed by severe pulmonary diseases (18.5%) and malignancies (10%). Pulmonary invasive fungal infection is the most common, with a total of 69.5%, followed by digestive tract (24%), blood (3.5%), urinary tract (1%).Six (3%) patients with confirmed IFI were administered caspofungin as primary therapy. One hundred and fourteen (57%) with clinical diagnosis, seventy-four (37%) with suspected diagnosis patients were administered caspofungin empirically.
Table 1
General characteristics of patients
Characteristic
 
Child–Pugh classification
Total
(N = 200, %)
P
Statistic (X2/F)
  
A (n = 66)
B (n = 83)
C (n = 51)
   
Sex
Female
36
48
36
120 (60)
0.186
3.363
Age
M (P25-P75)
58 (42–72)
59 (48–68)
49 (43–61)
0.015
4.319
Weight
M (P25-P75)
56.6 (50–66)
58.6 (50–65)
58.6 (54–65)
0.376
0.984
Period of treatment
1 week
26
36
17
79 (39.5)
0.514
1.333
 
2 weeks
22
28
22
72 (36)
0.469
1.516
 
3 weeks
18
19
12
49 (24.5)
0.812
0.416
Department
Infectious Diseases
6
24
44
74 (37)
0.000
77.503
 
Hematology
36
20
1
57 (28.5)
0.000
40.389
 
ICU
2
13
1
16 (8)
0.003
11.364
 
Respiratory
4
12
4
20 (10)
0.198
3.234
 
Nephrology
3
2
0
5 (2.5)
0.375
2.091
 
Rheumatology and Immunology
2
2
0
4 (2)
0.683
1.310
 
Others
13
10
1
24 (12)
0.014
8.570
Underlying disease
Cirrhosis of the liver
0
10
41
51 (25.5)
0.000
111.386
 
Haematological malignancy
34
19
1
54 (27)
0.000
37.058
 
Severe pulmonary disease
11
24
2
37 (18.5)
0.001
13.308
 
Cancer
6
14
0
20 (10)
0.008
10.077
 
Sepsis
1
0
5
6 (3)
0.003
8.708
 
Acute pancreatitis
1
3
1
5 (2.5)
0.853
0.719
 
Solid organ transplantation
4
0
0
4 (2)
0.015
5.941
 
Autoimmune disease
3
2
0
5 (2.5)
0.375
2.091
 
Chronic kidney disease
2
1
0
3 (1.5)
0.616
1.509
 
Atherosclerotic vascular disease
2
1
0
3 (1.5)
0.616
1.509
 
Others
2
9
1
12 (6)
0.077
5.103
Risk-factor for fungal infection
Broad-spectrum antibiotic
64
81
51
196 (98)
0.683
1.310
 
Corticosteroid
39
42
2
83 (41.5)
0.000
40.910
 
Immunosuppression
25
19
2
46 (23)
0.000
18.733
 
Central venous line
31
42
33
106 (53)
0.142
3.960
 
Recent surgery
5
12
1
18 (9)
0.041
6.268
 
Tracheal intubation
8
31
6
45 (22.5)
0.000
17.943
 
Malignancy
6
14
2
22 (11)
0.055
5.775
 
Diabete
12
12
4
28 (14)
0.285
2.579
 
Transplant recipient
4
0
0
4 (4)
0.015
5.941
 
HIV
0
2
1
3 (1.5)
0.481
1.560
Hepatoprotective drugs
Yes
35
60
48
143 (71.5)
0.000
18.074
Diagnostic grades of IFI
Infection site
Confirmed
2
8
2
12 (6)
0.023
3.319
 
Clinical diagnosis
31
47
36
114 (57)
0.038
6.556
 
Suspected diagnosis
33
28
13
74 (37)
0.018
8.063
 
Pulmonary
54
58
27
139 (69.5)
0.003
12.327
 
Digestive tract
10
16
22
48 (24)
0.001
14.088
 
Blood
1
5
1
7 (3.5)
0.260
2.693
 
Urinary tract
0
1
1
2 (1)
0.725
1.408
 
Others
1
3
0
4 (2)
0.462
1.681

Dose and duration of treatment

The mean duration of caspofungin treatment was 16.8 days (range 7–62 days). Caspofungin therapy was started at a dose of 70 mg followed by 50 mg/day in 166 (83%) patients. Twenty-six (13%) patients received a 50 mg maintenance dose of caspofungin daily. Eight (4%) received caspofungin 50 mg/day, following a loading dose of 100 mg on day 1.

Changes of liver and kidney function

During the treatment, the doctor would withdraw caspofungin according to the general condition, laboratory examination parameters, imaging examinations or economic reasons of the patients. Therefore, based on the treatment duration, patients were divided into 1-week group, 2-week group and 3-week group (Table 1).
The Changes of liver and kidney function of 1-week group were shown in Table 2. ALP, GGT and Scr in Child–Pugh A patients and GGT in Child–Pugh C patients changed significantly during the treatment. But when making a pairwise comparison of different time points, we found that only GGT in Child–Pugh A patients on D0 significantly larger than D1 and D7 (P < 0.05), GGT in Child–Pugh A patients on D1 significantly larger than D7 (P < 0.05). The results showed that the liver and kidney function in Child–Pugh A, B and C patients did not changed significantly with time (P > 0.05).
Table 2
Comparison of the changes of liver and kidney function in patients with different Child–Pugh scores in the 1 week group (M (P25–P75))
Group
Time
albumin
g/L
ALT
U/L
AST
U/L
ALP
U/L
GGT
U/L
TBIL
U/L
Scr
mmol/L
eGFR
ml/min
A
D0
D1
D7
X2
P
33.7 (29–37)
33.3 (30–35)
31.4 (29–33)
5.79
0.06
28.0 (13–60)
24.5 (12–71)
21.5 (12–41)
2.80
0.25
20.0 (16–40)
20.5 (13–38)
22.5 (13–40.)
3.98
0.14
85.0 (72–133)
85.5 (60–124)
80.0 (63–108)
9.41
0.01
68.0 (31–191)
67.0 (29–172)*
52.0 (22–100)*#
14.00
0.01
9.0 (5–13)
8.8 (5–12)
7.9 (6–11)
1.17
0.56
62.9 (53–85)
60.9 (48–86)
61.0 (45–71)
6.39
0.04
78.8 (52–96)
87.7 (60–107)
94.9 (63–120)
5.43
0.06
B
D0
D1
D7
X2
P
30.0 (28–32)
29.3 (26–32)
29.9 (28–32)
1.69
0.43
37.5 (16–80)
36.0 (12–71)
27.5 (14–59)
1.922
0.382
48.5 (27–84)
45.5 (23–99)
60.1 (25–86)
0.75
0.69
115.5 (68–147)
114.5 (70–154)
112.0 (90–209)
0.14
0.93
83.0 (29–165)
88.0 (34–153)
92.5 (37–143)
2.02
0.37
21.1 (10–42)
13.8 (8–40)
18.2 (8–36)
3.32
0.21
68.7 (56–100)
77.0 (50–106)
81.8 (58–112)
0.39
0.82
81.6 (46–106)
79.4 (45`104)
77.4 (37–98)
0.2
0.91
C
D0
D1
D7
X2
P
30.6 (25–34)
30.0 (27–35)
31.0 (27–34)
0.22
0.89
21.0 (16–32)
22.0 (14–32)
17.0 (10–41)
0.456
0.796
48.0 (28–85)
44.0 (30–65)
55.0 (33–117)
2.63
0.27
88.0 (71–171)
77.0 (67–157)
86.0 (68–153)
5.52
0.06
37.0 (25–85)
37.0 (24–60)
46.0 (23–66)
7.18
0.03
163.0 (51–324)
156.0 (67–276)
162.0 (62–308)
0.65
0.72
89.0 (54–146)
83.4 (62–168)
79.9 (64–142)
0.78
0.68
69.6 (30–91)
69.7 (32–97)
65.0 (36–86)
1.00
0.61
*Bonferroni's correction, compared with D0, the difference was statistically significant
#Bonferroni's correction, compared with D1, the difference was statistically significant
In the 2-week group (Table 3), the albumin, ALT, AST and Scr, eGFR in Child–Pugh B patients and ALT in Child–Pugh C patients changed significantly with the time. But when making a pairwise comparison of different time points, we found that the albumin levels in Child–Pugh B patients on D1 were significantly less than D14 (P < 0.05),Scr in Child–Pugh B patients on D0 and D1 significantly larger than D7 and D14, eGFR in Child–Pugh B patients on D0 and D1 significantly less than D7 and D14, respectively (P < 0.05). The results showed that the liver and kidney function in Child–Pugh A, B and C patients had not changed significantly with time (P > 0.05).
Table 3
Comparison of the changes of liver and kidney function in patients with different Child–Pugh scores in the 2-week group (M (P25–P75))
Group
Time
Albumin
g/L
ALT
U/L
AST
U/L
ALP
U/L
GGT
U/L
TBIL
U/L
Scr
mmol/L
eGFR
mL/min
A
D0
D1
D7
D14
X2
P
31.8 (29–35)
32.4 (29–34)
30.1 (26–33)
31.6 (29–37)
6.39
0.09
17.5 (8–35)
16.0 (9–31)
25.5 (14–48)
19.5 (12–36)
3.38
0.29
19.5 (16–28)
16.5 (13–26)
20.0 (15–26)
22.0 (12–35)
4.91
0.18
89.0 (59–113)
86.0 (74–118)
94.7 (81–103)
96.0 (64–128)
1.41
0.70
38.0 (19–92)
42.0 (27–84)
38.5 (26–61)
36.0 (22–82)
2.08
0.56
8.6 (6–15)
8.8 (5.5–14)
10.7 (6–15)
11.1 (9–19)
2.35
0.50
56.4 (47–131)
57.4 (45–108)
69.0 (44–115)
65.5 (42–126)
0.60
0.89
86.8 (38–130)
88.6 (38–139)
88.4 (41–131)
85.9 (31–145)
0.96
0.81
B
D0
D1
D7
D14
X2
P
28.1 (26–31)
27.6 (25–29)
29.5 (27–31)
30.1 (27–34)#
13.03
0.005
26.0 (14–68)
27.0 (12–50)
28.0 (10–41)
20.5 (11–37)
9.24
0.03
42.5 (23–56)
44.5 (24–59)
38.0 (25–61)
32.0 (20–52)
9.92
0.03
110.0 (71–174)
116.0 (72–175)
115.5 (74–182)
134.0 (69–186)
1.14
0.77
79.5 (46–129)
82.5 (49–134)
79.0 (49–123)
63.5 (41–86)
5.04
0.17
20.5 (10–52)
17.4 (13–67)
25.1 (10–55)
18.6 (9–48)
4.99
0.17
77.7 (48–112)
65.7 (48–98)
49.5 (37–80)*#
58.3 (39–80)*#
28.05
0.00
85.1 (42–105)
81.4 (48–100)
103.9 (65–134) *#
105.4 (59–138) *#
22.6
0.00
C
D0
D1
D7
D14
X2
P
29.1 (26–32)
30.1 (27–33)
30.7 (28–33)
31.8 (27–34)
2.29
0.51
49.5 (35–91)
50.0 (26–110)
45.0 (22–73)
37.0 (21–73)
9.65
0.02
76.0 (56–123)
73.0 (53–113)
81.5 (49–117)
71.0 (42–98)
2.18
0.54
135.0 (100–164)
132.0 (110–171)
117.0 (73–150)
115.0 (93–150)
6.08
0.11
51.0 (30–81)
51.0 (28–91)
56.0 (34–80)
46.0 (30–74)
0.19
0.76
240.9 (110–371)
263.1 (88–388)
227.3 (109–335)
196.0 (64–332)
3.61
0.31
71.3 (52–101)
65.5 (43–80)
61.4 (41–77)
68.9 (54–91)
1.33
0.72
102.9 (59–136)
106.9 (71–144)
110.5 (59–139)
104.8 (60–130)
0.88
0.83
*Bonferroni's correction, compared with D0, the difference was statistically significant
#Bonferroni's correction, compared with D1, the difference was statistically significant
In the 3-week group (Table 4), the albumin and Scr, eGFR levels in Child–Pugh B patients changed significantly with time. But when making a pairwise comparison of different time points, we found that albumin levels in Child–Pugh B patients on D1 were significantly less than D14 and D21 (P < 0.05), Scr levels in Child–Pugh B patients on D0 were significantly larger than D1 (P < 0.05), eGFR levels in Child–Pugh B patients on D0 and D1 significantly less than D14 and D21. The results showed that the liver and kidney function in Child–Pugh A, B and C patients had not changed significantly with time (P > 0.05).
Table 4
Comparison of the changes of liver and kidney function in patients with different Child–Pugh scores in the 3-week group (M (P25–P75))
Group
Time
Albumin
g/L
ALT
U/L
AST
U/L
ALP
U/L
GGT
U/L
TBIL
U/L
Scr
mmol/L
eGFR
mL/min
A
D0
D1
D7
D14
D21
X2
P
31.7 (28–35)
29.5 (27–32)
30.1 (28–32)
30.2 (29–32)
29.5 (29–35)
4.57
0.33
19.0 (8–28)
15.0 (10–43)
16.0 (9–26)
20.0 (9–31)
21.0 (9–38)
0.65
0.96
18.0 (11–25)
19.0 (11–28)
21.0 (13–28)
20.0 (12–28)
27.0 (13–34)
1.48
0.83
72.0 (55–109)
81.0 (58–122)
84.0 (59–114)
82.0 (61–124)
76.0 (67–123)
4.15
0.48
45.0 (23–119)
51.0 (18–129)
36.0 (19–101)
39.0 (26–81)
39.0 (25–56)
1.71
0.79
7.8 (5–18)
7.2 (5–17)
7.6 (5–15)
8.3 (6–13)
8.2 (6–12)
1.21
0.87
78.2 (55–105)
65.7 (54–100)
67.1 (57–108)
62.5 (51–90)
54.7 (45–86)
7.51
0.11
85.5 (31–152)
93.4 (41–142)
83.5 (27–125)
94.0 (37–145)
95.6 (36–146)
8.08
0.08
B
D0
D1
D7
D14
D21
X2
P
28.0 (26–32)
27.1 (26–28)
30.1 (29–32)
31.6 (29–34)#
31.1 (29–33)#
17.26
0.002
15.0 (11–55)
22.0 (8–57)
17.0 (11–48)
25.0 (9–56)
23.5 (13–47)
1.65
0.79
24.0 (14–50)
24.0 (13–76)
22.0 (12–48)
23.0 (10–52)
22.0 (16–32)
3.07
0.45
97.0 (63–140)
106.0 (67–137)
118.0 (71–176)
103.0 (72–201)
86.0 (70–208)
4.61
0.33
67.0 (32–181)
63.1 (26–166)
48.0 (20–178)
87.0 (19–133)
72.0 (23–169)
2.19
0.70
7.7 (6–11)
9.0 (4–12)
9.3 (6–11)
10.6 (8–16)
9.0 (6.1–14)
4.60
0.33
67.9 (51–118)
62.2 (48–118)*
58.9 (45–94)
52.7 (23–71)
53.5 (41–76)
12.54
0.01
70.5 (38–110)
81.4 (42–125)
90.9 (56–133)
99.6 (43–132) *#
106.1 (37–135) *#
11.1
0.02
C
D0
D1
D7
D14
D21
X2
P
29.4 (28–31)
29.6 (29–31)
30.5 (30–32)
31.0 (30–32)
33.0 (32–35)
9.08
0.06
44.0 (16–71)
26.0 (10–52)
18.0 (11–41)
22.0 (11–41)
20.0 (15–40)
1.93
0.75
56.0 (44–159)
56.0 (33–106)
55.0 (41–92)
47.0 (33–63)
55.0 (34–84)
2.94
0.57
145.0 (99–163)
130.0 (116–155)
122.0 (91–157)
121.0 (112–160)
123.0 (92–189)
3.34
0.50
54.0 (30–82)
51.0 (30–68)
41.0 (24–87)
47.0 (31–68)
42.0 (25–70)
1.72
0.79
310.6 (121–400)
276.5 (121–417)
284.5 (110–393)
184.0 (119–358)
171.4 (121–407)
5.49
0.24
60.5 (47–386)
60.5 (54–199)
68.1 (43–114)
53.5 (45–87)
60.1 (42–75)
3.36
0.49
77.8 (14–128)
69.8 (3–128)
96.8 (53–147)
87.4 (47–130)
93.8 (61–116)
3.58
0.46
*Bonferroni's correction, compared with D0, the difference was statistically significant
#Bonferroni's correction, compared with D1, the difference was statistically significant

The outcomes of treatment

At the end of treatment, efficacy with different Child–Pugh scores and different courses of treatment was 63%. There was no difference in the effective rate of patients classified as Child–Pugh A, B and C (P > 0.05). There was no difference in the effective rate of patients with 1 week, 2 weeks and 3 weeks of treatment (P > 0.05) (Tables 5, 6).
Table 5
Comparison of the efficacy in different Child–Pugh scores patients
Group
Complete response
Partial response
Stable response
Progression of disease
Death
Efficient (%)
A
B
C
X2
P
Total
2
3
5
2.939
0.245
10
46
48
22
8.333
0.016
116
8
9
11
3.307
0.212
28
7
9
6
0.043
1.000
22
3
14
7
5.479
0.067
24
72.7
61.4
52.9
7.438
0.114
63.0
Table 6
Comparison of the efficacy in different treatment duration
Group
Complete response
Partial response
Stable response
Progression of disease
Death
Efficient (%)
1 week
2 weeks
3 weeks
X2
P
4
5
1
1.269
0.652
46
40
30
6.998
0.030
12
10
5
1.985
0.369
9
8
6
0.700
0.715
8
9
8
0.690
0.711
63.3
62.5
63.3
1.416
0.084
Total
10
116
27
22
25
63.0

Discussion

The recent literature suggests that common adverse effects of caspofungin include elevated transaminases (ALT, AST), ALP, TBIL, Scr, fever, GI symptoms (nauseating, vomiting, abdominal pain, diarrhea), phlebitis, and allergy. In HI patients, the dose should be adjusted according to Child–Pugh score. In recent years, Gustot et al. [10] found that the dose of caspofungin should not be reduced regardless of the severity of hepatic failure. In the present study, 13% patients were not given loading doses for economic reasons, pre-existing use of other antifungal drugs, or irrational dosing, but all patients (including Child–Pugh C patients) were maintained at 50 mg/day regardless of hepatic function, and no exacerbation of hepatic or renal impairment occurred regardless of the duration. One one hand, it may be related to the aggressive treatments in primary diseases, which avoided mild hepatic impairment in some patients. On the other hand, some patients were treated with hepatoprotective drugs during hospitalization for avoiding the underlying hepatic impairment [8]. Besides, in this study there were differences in the basic liver conditions between the groups, for example, 80% of patients with liver cirrhosis in grade C group, but with the use of hepatoprotective drugs, the findings suggest that the use of standard doses of caspofungin is still safe and no adjustment of dose, while the percentage of cirrhosis in the grade B group was only 12 and the use of liver-protective drugs in this subgroup was 72%, suggesting that standard-dose caspofungin remains tolerable and safe through the use of liver-protective drugs in patients with non-cirrhosis leading to abnormal liver function and graded at grade B. Therefore, our study indicates that caspofungin is safe and reliable for using in IFI patients, with minimal effect on liver function. If patients with basic HI, we should pay attention to monitoring their liver function and adding hepatoprotective drugs in time while not discontinuation of the drug.
At present, many scholars at home and abroad have conducted studies on high loading doses or high maintenance doses of caspofungin in order to further explore the maximum tolerated dose and efficacy of caspofungin. Wang Huajie et al. [11] concluded that the high dose (a loading dose of 100 mg on day 1 and maintenance dose of 70 mg/day) caspofungin group had significantly higher clearance rate of different types of fungi compared with the standard dose group, and there were no significant changes in liver and kidney function before and after treatment in both groups. In this study, due to physician decisions and the patient's illness, 8 (4%) patients (all from the infection department, 7 with underlying liver failure and 1 with severe pulmonary infection) were administered with a loading dose of 100 mg on day 1 and a maintenance dose of 50 mg/day for 7–24 days, and 2 of these patients eventually died without further deterioration in liver function during treatment, which is consistent with the study carried by Wang, Huajie et al. It indicates that increasing the first dose of caspofungin does not aggravate patients’ hepatic impairment, However, because the sample size is small, the outcomes for these patients should be interpreted with caution. But tit can still provide a reference for future studies.
In terms of efficacy, the overall effective rate (63%) when treating with caspofungin in patients with different Child–Pugh classifications was almost consistent with the effective rate (65%) reported by Xiaohui Zhang et al. [12]. There was no difference in the efficacy of caspofungin in patients with different hepatic function grades, suggesting that even without dose reduction, grade B and C patients tolerated caspofungin not differently from grade A patients and had better treatment outcomes. The current consensus on the time frame of antifungal therapy [13] revealed that antifungal drugs should be maintained at least 2 weeks after the patient's signs and symptoms have alleviated, laboratory parameters have improved, and microbial detection has turned negative. However, this study showed that there was no difference in the efficiency of caspofungin in the 1-week, 2-week, and 3-week antifungal treatment, indicating that patients' symptoms and signs, laboratory indices, imaging, and pathogenesis should be followed up timely and antifungal treatment should be withdrawn according to their clinical conditions timely. Because blindly prolonging the duration of caspofungin treatment if the patients' above monitoring indices have improved significantly does not seem to improve the patients' outcomes significantly but increase their financial burden.

Conclusions

Based on these limited data, it is suggested that caspofungin is well tolerated and liver function classified as Child–Pugh C should not be considered as a contraindication for caspofungin using or a criterion for dose reduction, and caspofungin should be administered in adequate doses even in HI patients to achieve better therapeutic outcomes.

Acknowledgements

The authors would like to thank Professor Jian-Bin Chen, Xi Zhang and Yun-Xing Cao for kindly providing an insightful review of this manuscript.

Declarations

The study was conducted in accordance with the Declaration of Helsinki, and approved by the Ethical Committee of the Second Affiliated Hospital of Chongqing Medical University (23th, June,2020). Informed consent to participate in the study has been obtained from participants.
Not applicable.

Competing interests

The authors declare that they have no competing interests.
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Metadaten
Titel
Efficacy and safety of caspofungin for patients with hepatic insufficiency
verfasst von
Xiaoyun Ran
Pengfei Wang
An Zhang
Binfei Tang
Publikationsdatum
01.12.2022
Verlag
BioMed Central
Erschienen in
BMC Infectious Diseases / Ausgabe 1/2022
Elektronische ISSN: 1471-2334
DOI
https://doi.org/10.1186/s12879-022-07527-8

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