Literature DB >> 32482141

Rapid and precise diagnosis of T. marneffei pulmonary infection in a HIV-negative patient with autosomal-dominant STAT3 mutation: a case report.

Wei Zhang1, Jian Ye2, Chenhui Qiu1, Limin Wang1, Weizhong Jin1, Chunming Jiang3, Lihui Xu4, Jianping Xu5, Yue Li1, Liusheng Wang1, Hualiang Jin1.   

Abstract

BACKGROUND: Talaromyces marneffei, also named Penicillium marneffei, is an opportunistic pathogen that can cause systemic or limited infection in human beings. This infection is especially common in human immunodeficiency virus (HIV)-infected hosts; however, it has also been recently reported in HIV-negative hosts. Here, we report a very rarely seen case of T. marneffei pulmonary infection in a non-HIV-infected patient with signal transducer and activator of transcription 3 (STAT3) mutation. CASE
PRESENTATION: A 34-year-old woman was admitted to our hospital for uncontrollable nonproductive cough and dyspnea with exercise. She had been immunocompromised since infancy. Computerized tomography scan showed multiple ground glass opacities with multiple bullae in both lungs. Next generation sequencing (NGS) of the bronchoalveolar lavage fluid identified T. marneffei nucleotide sequences. Culture of bronchoscopy specimens further verified the results. The patient was HIV negative, and blood gene detection indicated STAT3 mutation. To date, following the application of itraconazole, the patient has recovered satisfactorily.
CONCLUSION: In clinical practice, T. marneffei infection among HIV-negative individuals is relatively rare, and we found that patients who are congenitally immunocompromised due to STAT3 mutation may be potential hosts. Early diagnosis and timely treatment are expected to improve the prognosis of T. marneffei infection. NGS is a powerful technique that may play an important role in this progress. The reviews of this paper are available via the supplemental material section.

Entities:  

Keywords:  Talaromyces marneffei; human immunodeficiency virus (HIV)-negative; next generation sequencing; signal transducer and activator of transcription 3 mutation

Mesh:

Substances:

Year:  2020        PMID: 32482141      PMCID: PMC7268139          DOI: 10.1177/1753466620929225

Source DB:  PubMed          Journal:  Ther Adv Respir Dis        ISSN: 1753-4658            Impact factor:   4.031


Background

Talaromyces marneffei, formerly called Penicillium marneffei, causes mostly opportunistic infections in immunodeficiency individuals, who are particularly susceptible to T. marneffei, especially human immunodeficiency virus (HIV)-positive patients in certain endemic regions such as Southeast Asia.[1] In 1973, the first case of T. marneffei infection was reported in an American minister in Southeast Asia.[2] The incidence rate of T. marneffei infection increased noticeably after the acquired immune deficiency syndrome (AIDS) pandemic in the 1980s.[1] Infection by T. marneffei is rarely reported in non-HIV-infected hosts,[3] but in recent years the incidence rate of T. marneffei infection in HIV-negative individuals is increasing year by year. Many of the HIV-negative non-endemic patients had potentially immunocompromising conditions, such as autosomal dominant hyper-IgE syndrome (AD-HIES), hyper-IgM syndrome, immunosuppressive therapies, and being positive for anti-interferon-gamma autoantibody. Therefore, it is important to increase the diagnostic efficiency of this disease, especially in HIV-negative hosts, with a effective technique. Here, we report a rare case of a HIV-negative patient with lung T. marneffei infection with a STAT3 (signal transducer and activator of transcription 3) mutation.

Case presentation

A 34-year-old young woman was admitted to our department for “recurrent cough for 6 months, acute exacerbation with dyspnea for 1 month” on 7 January 2019. The female presented with a 6-month history of slight nonproductive cough, shortness of breath after exercise, and complained of mild fever and night sweating with yellow-brown sputum for several days but denied chest pain. After the application of antibiotics (the detail was not clear) in a local hospital, temperature declined to normal, but she still had cough and dyspnea with exercise. A chest computed tomography (CT) scan (1 January 2019, Figure 1A) showed multiple ground glass opacities with multiple bullae in both lungs. The patient had been slightly immunocompromised (the detail was not clear) since infancy, and had undergone several surgical treatments for suspected pleurisy and skin infection around the left ear. She had a history of viral hepatitis B, but was not on regular treatment, and no smoking or alcohol history. She was born in Gansu province, northwest of China, and moved to Hangzhou 10 years ago.
Figure 1.

(A) Past chest CT scan (1 January 2019) showing multiple disseminated ground glass opacities with multiple bullae. (B, C) Chest CT scan during follow up (26 January 2019 and 27 April 2019, respectively) showing distinct resolution of both lungs.

CT, computed tomography.

(A) Past chest CT scan (1 January 2019) showing multiple disseminated ground glass opacities with multiple bullae. (B, C) Chest CT scan during follow up (26 January 2019 and 27 April 2019, respectively) showing distinct resolution of both lungs. CT, computed tomography. On physical examination, vital signs appeared normal, moist rales could be heard in both lungs, and there was no obvious cyanosis. Her HIV test was negative. The serum CA125 and NSE levels were 65.3 (reference 0–33 kU/l), 21.9 (reference 0–16.6 μg/l), respectively. The total T-lymphocyte count and CD4+ were 900 and 380 cells/µl, respectively. Hemoglobin was only 91 g/l. Blood gas analysis was normal. Serum immunoglobulin (Ig)E, IgG, IgA, and IgM were all normal. The plasma galactomannan antigen test and serum cryptococcal antigen agglutination test were normal. The sputum and blood cultures for both fungus and bacteria and sputum acid-fast bacillus test were negative. Other routine laboratory examinations were normal, such as the white blood count, C-reactive protein, glucose, aminotransferases, creatinine, vasculitis antibodies, and autoantibodies. The CT scan showed multiple disseminated ground glass opacities with multiple bullae in both lungs (Figure 1A), no pleural effusion and pleural thickening, and no swollen superficial lymph nodes throughout the body, and no abnormal echocardiography, abdominal B-ultrasonic, and brain CT were observed. Bronchoscopic examinations revealed uneven local membrane surface (Figure 2A), hypoechoic areas in group 7, 4R, and 11Rs mediastinal lymph nodes through convex-probe endobronchial ultrasound (Figure 2B), and hypoechoic shadow in the dorsal segment of the right lower lobe (RLL) through radial-probe endobronchial ultrasound (Figure 2C). Cultures of the bronchoalveolar lavage fluid (BALF) for bacteria and acid-fast bacilli were all negative. The galactomannan test and cryptococcal antigen agglutination test of BALF were also negative. Upon histological examination, chronic granulomatous inflammation was found in the dorsal segment of RLL and the group 7 lymph node. Next generation sequencing (NGS) of the BALF confirmed lung infection with T. marneffei 2 days later (Table 1). About 1 week later, culture of BALF and the biopsied tissue mass also showed the existence of T. marneffei. Based on the pathogen’s temperature-dependent dimorphic growth characteristic and the production of soluble red pigment and PAS-negative cell content, the isolate was identified definitively as T. marneffei (Figure 3A–B).
Figure 2.

Bronchoscopy showed local uneven membrane surface (A), hypoechoic areas in group 7, 4R, and 11Rs mediastinal lymph nodes through CP-EBUS (B), and hypoechoic shadow in the dorsal segment of the right lower lobe through RP-EBUS (C).

CP-EBUS, convex-probe endobronchial ultrasound; RP-EBUS, radial-probe endobronchial ultrasound.

Table 1.

NGS of BALF identified 566 T. marneffei nucleotide sequences.

TypeCategorySpeciesLatin nameTotal_reads_percentTotal reads
FPenicillium Talaromyces mameffei Penicillium marneffei 566

BALF, bronchoalveolar lavage fluid; NGS, next generation sequencing.

Figure 3.

Culture of BALF revealed Talaromyces marneffei, which shows temperature-dependent dimorphic character, growing as yeast-like cells at 37°C (A) and as a mycelium at temperatures between 25°C and 30°C (B); the cells produced red pigment at 25°C (C).

BALF, bronchoalveolar lavage fluid.

NGS of BALF identified 566 T. marneffei nucleotide sequences. BALF, bronchoalveolar lavage fluid; NGS, next generation sequencing. Bronchoscopy showed local uneven membrane surface (A), hypoechoic areas in group 7, 4R, and 11Rs mediastinal lymph nodes through CP-EBUS (B), and hypoechoic shadow in the dorsal segment of the right lower lobe through RP-EBUS (C). CP-EBUS, convex-probe endobronchial ultrasound; RP-EBUS, radial-probe endobronchial ultrasound. Culture of BALF revealed Talaromyces marneffei, which shows temperature-dependent dimorphic character, growing as yeast-like cells at 37°C (A) and as a mycelium at temperatures between 25°C and 30°C (B); the cells produced red pigment at 25°C (C). BALF, bronchoalveolar lavage fluid. On the other hand, considering that the patient’s HIV test was negative but the total counts of lymphocytes and CD4+ were slightly decreased, together with her history since infancy, we could not rule out congenital immunodeficiency. A blood gene detection test was taken, which indicated a loss-of-function mutation in the gene STAT3; however, there were no similar mutations in her parents (Table 2, Figure 4A).
Table 2.

Heterozygous missense mutation in exome regions of gene STAT3 was identified by Sanger sequencing (c.92G>A, p.R31Q).

Patient and the family genetic detection
GeneInherit modeMutation informationPatientFatherMother
STAT3 ADC.92G>A chr17-40500443 p.R31QHeterozygous mutationNo mutationNo mutation
The detail gene detection result
GeneTranscribed version exon numberMutation ratio reference/mutationHom/Het/HemgnomADACMG
STAT3 NM_139276.2 Exon249/45 (0.48)HetLikely pathogenic
Pathogenic Likely pathogenic VUS Likely benign Benign

STAT3, signal transducer and activator of transcription 3; AD, autosomal dominant; gnomAD, genome aggregation database; ACMG, American college of medical genetics and genomics.

Figure 4.

(A) Family map and Sanger sequencing. (B) Illustration of the functional structure of STAT3: p.R31Q in red and other known pathogenic, or likely pathogenic mutations, in black. (C) The labeling of p.R31Q on the structure of STAT3 modeled by the I-TASSER algorithm.

STAT3, signal transducer and activator of transcription 3.

Heterozygous missense mutation in exome regions of gene STAT3 was identified by Sanger sequencing (c.92G>A, p.R31Q). STAT3, signal transducer and activator of transcription 3; AD, autosomal dominant; gnomAD, genome aggregation database; ACMG, American college of medical genetics and genomics. (A) Family map and Sanger sequencing. (B) Illustration of the functional structure of STAT3: p.R31Q in red and other known pathogenic, or likely pathogenic mutations, in black. (C) The labeling of p.R31Q on the structure of STAT3 modeled by the I-TASSER algorithm. STAT3, signal transducer and activator of transcription 3. So far, the patient was diagnosed as having a STAT3 mutation and lung infection with T. marneffei. Considering her financial condition, she was prescribed oral itraconazole (200 mg, every 12 h) therapy on 13 January 2019 and later discharged. Two repeated chest CT, on 26 January 2019 (Figure 1B) and 27 April 2019 (Figure 1C), revealed distinct resolution of both lungs. The symptoms of shortness of breath and cough were also obviously alleviated, and the patient continues to receive treatment (itraconazole, 200 mg per day) and follow up at present.

Discussion and conclusion

This is a relatively rare case report of a T. marneffei pulmonary infection in a HIV-negative patient with STAT3 mutation. The application of NGS in BALF greatly assists the rapid diagnosis of T. marneffei infection. Patients with some immunodeficiencies, such as AIDS, AD-HIES, hyper-IgM syndrome, certain immunosuppressive therapies, and variety of transplants, are susceptible to T. marneffei as an opportunistic fungus.[4] Affected individuals often suffer quick progression to multiple organ failure and finally death. Infection by T. marneffei is rarely reported in non-HIV-infected hosts,[3] but in clinical practice, the incidence rate of T. marneffei infection in HIV-negative individuals is increasing year by year. In a report of five Chinese non-HIV-infected children and teenagers with T. marneffei infection, it was shown that four had had chronic mucocutaneous candidiasis since infancy, and one had AD-HIES.[5,6] Mutation in gene STAT3 was identified by Sanger sequencing in our patient (c.92G>A, p.R31Q); however, neither parent carried a similar mutation (Figure 4A–C). STAT3, as a signal transducer and transcription factor, activates downstream of various of cytokine signals, including interferon-α, interleukin (IL)-6, and IL-10, and others.[7] It is reported that STAT3 mutation is usually related to AD-HIES. AD-HIES is a very rare primary immunodeficiency, characterized by elevated serum IgE and eczema, recurrent skin infections, and sinopulmonary infections.[8] The classic triad of abscesses, pneumonia, and elevated IgE level was identified in 77% of all patients and 85% of those older than 8 years of age. At present, IgE is higher during childhood in some cases phenotypically, which may decrease, or even fall below normal, with age. The diagnostic criteria are not adequate for our patients. A consistent immunophenotype in AD-HIES patients is impaired development of Th17 lymphocytes, due mainly to the key role of cytokine signaling through STAT3 in their generation. In addition, a loss-of-function mutation in the STAT3 gene (STAT3-deficiency) is also frequently associated with susceptibility to fungal infections, including Talaromyces or aspergillosis, although its pathogenesis remains largely unknown. STAT3-deficient patients showed a defective adaptive immune response, with lower production of cytokines, including IFN-γ, IL-17, and IL-22,[9] which could be the reason for their susceptibility to fungal infection in HIV-negative patients. Regrettably, cytokines were not detected and IgE is negative in this patient. From a clinical perspective, the patient fails to meet the recent diagnostic criteria of HIES. To conclude, a loss-of-function mutation in STAT3 gene is a rare primary deficiency, and our study was limited in some aspects. We are not sure how big a role it plays in this case, but it indicates that STAT3-deficiency indeed increases susceptibility to microbial infections of lungs, which is the direction we are taking for our further research. T. marneffei can lead to various kinds of infections involving multiple organs or systems, including the lungs, blood, skin, central nervous system, and bone marrow, so if not diagnosed or treated in a timely manner, it can be life-threatening. Whether in HIV-positive or HIV-negative patients, the clinical characteristics are similar.[10] The most common symptoms are cough, fever, anemia, weight loss, malaise, hepatosplenomegaly, and cutaneous lesions, but nonspecific and with little significance for differential diagnosis. The lung is the organ most commonly involved, occurring in 64% of HIV-infected patients and 75% of non-HIV-infected patients.[10] In this case, dyspnea was the main complaint along with recurrent cough; no other organs and systems seem to be involved. Similarly in laboratory tests, there is no significant difference between HIV-negative and HIV-positive patients.[10] T. marneffei is well known to be the only temperature-dependent dimorphic pathogen in Penicillium, growing as a mycelium at temperatures 25°C–30°C with the generation of a soluble red pigment, and as yeast-like cells at 37°C. Only the yeast phase has pathogenicity. In addition, a mulberry-shaped cell mass, sausage-shaped cells, and a transverse wall are the three main morphological characteristics of T. marneffei growth in tissue,[11] which were also found in our case. In former clinical practice, the diagnosis of T. marneffei infection depended highly on tissue culture and histopathologic results, which can be confined to the low positive rate and can be time-consuming, respectively, especially as fungal cultures usually take about 3–7 days. We performed NGS on the patient’s BALF, which detected numerous nucleotide sequence reads corresponding to T. marneffei 2 days later, and thus resulted in the timely diagnosis and treatment of T. marneffei pulmonary infection. The successful application of NGS assisted the rapid diagnosis of T. marneffei infection, providing a powerful skill in clinical practice and revealing the potential value of this procedure in rapid etiological diagnosis.[12] It is well known that amphotericin B, itraconazole, voriconazole, fluconazole, and terbinafine are the antifungal drugs most commonly used for therapy. In addition, itraconazole and amphotericin B are reported to be more effective in clinical practice, whereas the clinical response to fluconazole is relatively poor.[13] Current guidelines for the therapy of T. marneffei infection recommend amphotericin B treatment for 2 weeks, then adequate oral itraconazole for 10 weeks, and finally secondary prophylaxis.[14] From our case, we found that, following the application of oral itraconazole (200 mg, every 12 h) for 3 months, the patient recovered satisfactorily and lesions absorbed obviously on CT scans. To date, she continues to receive the application of itraconazole (200 mg per day) and follow up until the present. The general maintenance dose lasts for 1 year, depending on the efficacy or whether the risk factors can be terminated or not. However, despite standard treatment strategy, most infected individuals experience recurrence several months or even years later. Earlier research indicated that mortality in HIV-negative individuals was higher than in HIV-positive individuals,[10] which may be related partly to delayed diagnosis because of the lack of an effective and rapid diagnosis technique.[15] In conclusion, the incidence of T. marneffei infection in non-HIV-infected patients has been relatively low in recent years; however, it has shown a significant increase,[16] even in some healthy hosts.[17]Patients who are congenitally immunocompromised by a STAT3 mutation may be among potential hosts. Finally, rapid diagnosis and early stage treatment are critical for improving the prognosis. The successful application of NGS can play an important role in rapid diagnosis, revealing the potential value of this technique in rapid etiological diagnosis. Further studies are required to explore the pathogenesis and mechanisms of infection in HIV-negative patients with STAT3 mutation infected with T. marneffei. Click here for additional data file. Supplemental material, Author_Response_1 for Rapid and precise diagnosis of T. marneffei pulmonary infection in a HIV-negative patient with autosomal-dominant STAT3 mutation: a case report by Wei Zhang, Jian Ye, Chenhui Qiu, Limin Wang, Weizhong Jin, Chunming Jiang, Lihui Xu, Jianping Xu, Yue Li, Liusheng Wang and Hualiang Jin in Therapeutic Advances in Respiratory Disease Click here for additional data file. Supplemental material, Author_Response_2 for Rapid and precise diagnosis of T. marneffei pulmonary infection in a HIV-negative patient with autosomal-dominant STAT3 mutation: a case report by Wei Zhang, Jian Ye, Chenhui Qiu, Limin Wang, Weizhong Jin, Chunming Jiang, Lihui Xu, Jianping Xu, Yue Li, Liusheng Wang and Hualiang Jin in Therapeutic Advances in Respiratory Disease Click here for additional data file. Supplemental material, File2-gene_detection for Rapid and precise diagnosis of T. marneffei pulmonary infection in a HIV-negative patient with autosomal-dominant STAT3 mutation: a case report by Wei Zhang, Jian Ye, Chenhui Qiu, Limin Wang, Weizhong Jin, Chunming Jiang, Lihui Xu, Jianping Xu, Yue Li, Liusheng Wang and Hualiang Jin in Therapeutic Advances in Respiratory Disease Click here for additional data file. Supplemental material, File_1-Methodology_of_the_next_generation for Rapid and precise diagnosis of T. marneffei pulmonary infection in a HIV-negative patient with autosomal-dominant STAT3 mutation: a case report by Wei Zhang, Jian Ye, Chenhui Qiu, Limin Wang, Weizhong Jin, Chunming Jiang, Lihui Xu, Jianping Xu, Yue Li, Liusheng Wang and Hualiang Jin in Therapeutic Advances in Respiratory Disease Click here for additional data file. Supplemental material, Reviewer_1_v.1 for Rapid and precise diagnosis of T. marneffei pulmonary infection in a HIV-negative patient with autosomal-dominant STAT3 mutation: a case report by Wei Zhang, Jian Ye, Chenhui Qiu, Limin Wang, Weizhong Jin, Chunming Jiang, Lihui Xu, Jianping Xu, Yue Li, Liusheng Wang and Hualiang Jin in Therapeutic Advances in Respiratory Disease Click here for additional data file. Supplemental material, Reviewer_1_v.2 for Rapid and precise diagnosis of T. marneffei pulmonary infection in a HIV-negative patient with autosomal-dominant STAT3 mutation: a case report by Wei Zhang, Jian Ye, Chenhui Qiu, Limin Wang, Weizhong Jin, Chunming Jiang, Lihui Xu, Jianping Xu, Yue Li, Liusheng Wang and Hualiang Jin in Therapeutic Advances in Respiratory Disease Click here for additional data file. Supplemental material, Reviewer_2_v.1 for Rapid and precise diagnosis of T. marneffei pulmonary infection in a HIV-negative patient with autosomal-dominant STAT3 mutation: a case report by Wei Zhang, Jian Ye, Chenhui Qiu, Limin Wang, Weizhong Jin, Chunming Jiang, Lihui Xu, Jianping Xu, Yue Li, Liusheng Wang and Hualiang Jin in Therapeutic Advances in Respiratory Disease
  17 in total

1.  Penicillium marneffei infection and impaired IFN-γ immunity in humans with autosomal-dominant gain-of-phosphorylation STAT1 mutations.

Authors:  Pamela P W Lee; Huawei Mao; Wanling Yang; Koon-Wing Chan; Marco H K Ho; Tsz-Leung Lee; Jasper F W Chan; Patrick C Y Woo; Wenwei Tu; Yu-Lung Lau
Journal:  J Allergy Clin Immunol       Date:  2013-11-01       Impact factor: 10.793

2.  Disseminated penicilliosis, recurrent bacteremic nontyphoidal salmonellosis, and burkholderiosis associated with acquired immunodeficiency due to autoantibody against gamma interferon.

Authors:  Bone Siu-Fai Tang; Jasper Fuk-Woo Chan; Min Chen; Owen Tak-Yin Tsang; M Y Mok; Raymond Wai-Man Lai; Rodney Lee; Tak-Lun Que; Herman Tse; Iris Wai-Sum Li; Kelvin Kai-Wang To; Vincent Chi-Chung Cheng; Eric Yuk-Tat Chan; Bojian Zheng; Kwok-Yung Yuen
Journal:  Clin Vaccine Immunol       Date:  2010-05-05

3.  Infection caused by Penicillium marneffei: description of first natural infection in man.

Authors:  A F DiSalvo; A M Fickling; L Ajello
Journal:  Am J Clin Pathol       Date:  1973-08       Impact factor: 2.493

Review 4.  Retrospective analysis of 15 cases of Penicillium marneffei infection in HIV-positive and HIV-negative patients.

Authors:  Yinyin Li; Zhongyuan Lin; Xiang Shi; Lijun Mo; Wenchao Li; Wuning Mo; Zheng Yang
Journal:  Microb Pathog       Date:  2017-01-16       Impact factor: 3.738

5.  STAT1 mutations in autosomal dominant chronic mucocutaneous candidiasis.

Authors:  Frank L van de Veerdonk; Theo S Plantinga; Alexander Hoischen; Sanne P Smeekens; Leo A B Joosten; Christian Gilissen; Peer Arts; Diana C Rosentul; Andrew J Carmichael; Chantal A A Smits-van der Graaf; Bart Jan Kullberg; Jos W M van der Meer; Desa Lilic; Joris A Veltman; Mihai G Netea
Journal:  N Engl J Med       Date:  2011-06-29       Impact factor: 91.245

Review 6.  JAKs and STATs in immunity, immunodeficiency, and cancer.

Authors:  John J O'Shea; Steven M Holland; Louis M Staudt
Journal:  N Engl J Med       Date:  2013-01-10       Impact factor: 91.245

7.  A Novel STAT3 Mutation in a Qatari Patient With Hyper-IgE Syndrome.

Authors:  Natalia S Chaimowitz; Justin Branch; Anaid Reyes; Alexander Vargas-Hernández; Jordan S Orange; Lisa R Forbes; Mohammed Ehlayel; Saleema C Purayil; Maryam Ali Al-Nesf; Tiphanie P Vogel
Journal:  Front Pediatr       Date:  2019-04-24       Impact factor: 3.418

8.  Clinical and laboratory characteristics of penicilliosis marneffei among patients with and without HIV infection in Northern Thailand: a retrospective study.

Authors:  Rathakarn Kawila; Romanee Chaiwarith; Khuanchai Supparatpinyo
Journal:  BMC Infect Dis       Date:  2013-10-05       Impact factor: 3.090

9.  Differences in clinical characteristics and prognosis of Penicilliosis among HIV-negative patients with or without underlying disease in Southern China: a retrospective study.

Authors:  Ye Qiu; Haifei Liao; Jianquan Zhang; Xiaoning Zhong; Caimei Tan; Decheng Lu
Journal:  BMC Infect Dis       Date:  2015-11-16       Impact factor: 3.090

10.  Rapid and precise diagnosis of disseminated T.marneffei infection assisted by high-throughput sequencing of multifarious specimens in a HIV-negative patient: a case report.

Authors:  Yi-Min Zhu; Jing-Wen Ai; Bin Xu; Peng Cui; Qi Cheng; Honglong Wu; Yi-Yi Qian; Hao-Cheng Zhang; Xian Zhou; Li Xing; Renhua Wu; Yongjun Li; Wen-Hong Zhang
Journal:  BMC Infect Dis       Date:  2018-08-07       Impact factor: 3.090

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1.  Anti-Interferon-γ Autoantibodies Impair T-Lymphocyte Responses in Patients with Talaromyces marneffei Infections.

Authors:  Zhao-Ming Chen; Xiao-Yun Yang; Zheng-Tu Li; Wei-Jie Guan; Ye Qiu; Shao-Qiang Li; Yang-Qing Zhan; Zi-Ying Lei; Jing Liu; Jian-Quan Zhang; Zhong-Fang Wang; Feng Ye
Journal:  Infect Drug Resist       Date:  2022-06-28       Impact factor: 4.177

2.  Disseminated Talaromyces marneffei Infection in a Non-HIV Infant With a Homozygous Private Variant of RELB.

Authors:  Xiaofang Ding; Han Huang; Lili Zhong; Min Chen; Fang Peng; Bing Zhang; Xinyu Cui; Xiu-An Yang
Journal:  Front Cell Infect Microbiol       Date:  2021-03-15       Impact factor: 5.293

3.  Rapid diagnosis of Talaromyces marneffei infection by metagenomic next-generation sequencing technology in a Chinese cohort of inborn errors of immunity.

Authors:  Lipin Liu; Bijun Sun; Wenjing Ying; Danru Liu; Ying Wang; Jinqiao Sun; Wenjie Wang; Mi Yang; Xiaoying Hui; Qinhua Zhou; Jia Hou; Xiaochuan Wang
Journal:  Front Cell Infect Microbiol       Date:  2022-09-08       Impact factor: 6.073

4.  Talaromyces marneffei Infections in 8 Chinese Children with Inborn Errors of Immunity.

Authors:  Linlin Wang; Ying Luo; Xiaolin Li; Yixian Li; Yu Xia; Tingyan He; Yanyan Huang; Yongbin Xu; Zhi Yang; Jiayun Ling; Ruohang Weng; Xiaona Zhu; Zhongxiang Qi; Jun Yang
Journal:  Mycopathologia       Date:  2022-09-30       Impact factor: 3.785

5.  HIV-negative case of Talaromyces marneffei pulmonary infection with a TSC2 mutation.

Authors:  Qian Shen; Lingyan Sheng; Jianying Zhou
Journal:  J Int Med Res       Date:  2021-05       Impact factor: 1.671

Review 6.  Pulmonary Talaromycosis: A Window into the Immunopathogenesis of an Endemic Mycosis.

Authors:  Shanti Narayanasamy; John Dougherty; H Rogier van Doorn; Thuy Le
Journal:  Mycopathologia       Date:  2021-07-06       Impact factor: 2.574

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