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Erschienen in: Neurological Sciences 10/2021

Open Access 20.05.2021 | Brief Communication

The rosette-forming glioneuronal tumor mimicked cerebral cysticercosis: a case report

verfasst von: Dan Zhu, Ailan Cheng, Nickita T. L. Benons, Shuguang Chu

Erschienen in: Neurological Sciences | Ausgabe 10/2021

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Abstract

Introduction

Rosette-forming glioneuronal tumor (RGNT) is a rare variety of slow growing mixed glioneuronal tumor involving primarily fourth ventricular region. This is a comprehensive analysis of a 22-year-old woman with RGNT composed of mainly cystic components. In addition, the case showed multiple lesions located in brain parenchyma which mimicked cerebral cysticercosis. Here, we analyzed this case and listed some characteristics of RGNTs in reported literature which occurring in atypical locations for further understanding it.

Case report

A 22-year-old woman presented with a history of transient dizziness, nausea, and vomiting. Magnetic resonance imaging (MRI) showed multiple cystic lesions in brain parenchyma and then the patient was diagnosed with cerebral cysticercosis possibility. Empirical anti-infective therapy in addition to a follow-up post 2 weeks of MRI examination showed the lesions unchanged. Finally, a biopsy of the right cerebellar hemisphere lesions verified RGNT.

Conclusion

RGNT is an uncommon tumor classified as grade I glioma by World Health Organization (WHO) with slightly longer course. The imaging findings of RGNT are not specific especially in atypical areas. RGNT is rare, but we should also consider the possibility in diagnosis and differential diagnosis.
Hinweise
Dan Zhu and Ailan Cheng contributed equally to this work and should be considered co-first authors.

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Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Introduction

The rosette-forming glioneuronal tumor (RGNT) was first described by Komori et al. in 2002. As it was initially thought as dysembryoplastic neuroepithelial tumor (DNT) of the cerebellum [1]. In 2007, it was classified as grade I glioma by World Health Organization (WHO). RGNT occurs most often in young women with mean age of onset at 23.57 years [2]. There are few literatures regarding the imaging features and prognosis of RGNT. For most of the literatures on RGNT are case reports. RGNT is most commonly located in the fourth ventricle; however, recent reports demonstrated that RGNT can also occur at sites outside its usual locations. The lesions are mostly comprised of cystic-solid or solid, and the solid components present heterogenous enhancement. Here, we describe a rare case of a 22-year-old woman with RGNT in bilateral cerebellar hemisphere, brain stem, and left thalamus who was misdiagnosed as cerebral cysticercosis before biopsy.

Case report

A 22-year-old woman presented with a history of transient dizziness, nausea, and vomiting. No neurological deficits were apparent; however, on further evaluation, initially with computed tomography (CT) scan, revealed multiple cystic hypo-dense mass lesions in bilateral cerebellar hemisphere, brain stem, and left thalamus with unclear boundary (Fig. 1a–c). Magnetic resonance imaging (MRI) confirmed these lesions presented as hyper-intense in axial T2-weighted images and hypo-intense in axial T1-weighted images (Fig. 1d, e). The solid components were visible in some of the lesions in axial T2-weighted images (Fig. 1d). In addition, axial T2 FLAIR revealed iso-hyperintense (Fig. 1f). Diffusion-weighted imaging (DWI) and apparent diffusion coefficient (ADC) showed no restricted diffusion (Fig. 1g, h). After contrast, one of the tumors showed mild peripheral enhancement, while others presented no enhancement (Fig. 1i), and small nodule-like higher signals in T2-weighted images were present (Fig. 1d). While, on perfusion-weighted imaging, the lesions were hypo-perfused (Fig. 1j, k).
Based on the above radiological findings, the woman was initially diagnosed with cerebral cysticercosis most possibly. Naturally, primary tumors of the central nervous system and metastatic tumors were differential diagnoses. Subsequently, she was admitted to the infectious diseases department to conduct empirical anti-infective therapy in addition to a follow-up post 2 weeks of MRI examination. Over the course of 2 weeks, she underwent further laboratory examinations, including serologies (specifically enzyme-linked immunotransfer blots (EITBs)); however, the results were negative. Meanwhile, eosinophilic cells and lymphocytes were neither found in cerebrospinal fluid (CSF). Other parasite antibodies were not discovered either. Most importantly, there were no significant changes in the MRI findings after 15 days (Fig. 1m–o). Finally, to determine an ultimate diagnosis, she underwent a biopsy of the right cerebellar hemisphere lesions in which the histopathological results confirmed a WHO grade I RGNT ultimately. Microscopically, the tumors showed that small round nuclear tumor cells were distributed in a network and arranged into a chrysanthemum-shaped cluster surrounding the nerve with single permutation. Synaptophysin immunopositivity in the pericapillary area of a perivascular pseudorosette was shown, along with scattered neurons in the focal areas were also visible. In addition, glial fibrillary acidic protein (GFAP) in the astrocytic component of the tumor was diffuse distribution. (Fig. 2a–e).

Discussion

RGNT is an unusual disease, and it is considered an independent entity of glioma, which is categorized as grade I by World Health Organization (WHO) due to its characteristics of containing both neural and glial components [3]. It is generally considered to be benign, but there have been reports that some can be invasive [4]. The disease was initially thought to only occur in the fourth ventricle, and the typical imaging characteristics are mid-line lesions which appeared in the fourth ventricle and extended to adjacent structures [5]. On MRI, RGNT typical imaging findings are relatively well circumscribed, with both solid and cystic components with T1-hypo-intense and T2-hyper-intense located in or around the fourth ventricle. Gadolinium-based contrast enhancement could show variable or no enhancement, but with increasing reports of the disease, other positions have also been reported, including the pineal region, pons, thalamus, spinal cord, optic chiasm, cerebellar hemisphere, optic pathway, lateral ventricle, septum pellucidum, cerebellar vermis, and even temporal lobe [69].
With regards to the English literature through a comprehensive search of Web of Science and PubMed using the search term “the rosette-forming glioneuronal tumor” nearly a decade, more than 100 articles have been published to date. After full text screening, excluding articles that were less relevant to the characteristics of RGNTs, nearly 70 articles were included by December 2020 finally. In general, 101 cases of RGNTs were reported located in the fourth ventricle, while 51 cases were located in atypical site. However, the imaging manifestations of RGNTs occurring outside the fourth ventricle are not specific; so, they are often misdiagnosed. Here, the characteristics of RGNTs located outside the fourth ventricle in 51 published cases were listed (Table 1). The lesions can be solid-cystic, cystic, or simple solid, and generally, the former is the most common. The average age of these published cases is 38 years old. Hemorrhage is rare in RGNTs, and only six cases presented positive for bleeding. Management of RGNTs has been accordant with the literatures. Surgery remains the primary treatment option, with gross total resection (GTR) recommended and subtotal resection (STR) as alternatives. The prognosis of RGNT is generally good, and recurrence is uncommon with a total of 4 cases recrudesced of the 51 cases. However, two patients died of these presented cases. Most of the tumors were single lesions with only 10 cases showed multiple lesions.
Table 1
Radiological presentation and characters of 51 cohort of patients
Author and year
Lesion
Case number
Age, sex
Location
Contrast enhancement
T1WI
T2WI
Hemorrhage
Management
Recurrence
Number of lesions
Follow-up
Pierre-Aurelien Beuriat et al., 2015
Cystic
1
13/F
Left cerebellar hemisphere
No enhancement
Hypo
Hyper
NA
STR
No
1
NA
Aaron Halfpenny et al., 2019
Cystic
2
5/F
Left temporal lobe
Nodular enhancement
Iso/hypo
Hyper
NA
GTR
Yes,10Y
1
10Y
Lian Duan et al., 2017
Cystic-solid
3
26/F
T9–11
Heterogeneous enhancement
Hypo
Hyper
NA
GTR
No
1
15M’
Lian Duan et al., 2017
Cystic-solid
4
35/F
C3–7
Partchy and inhomogeneous
Hypo
Hyper
NA
GTR
No
1
17M’
Shuji Hamauchi et al., 2019
Cystic-solid
5
37/F
C2–5
Slight enhancement
Hypo
Hyper
NA
GTR
No
1
2Y
Marc Eastin et al., 2016
Cystic
6
33/F
Right thalamic, the ventricle
No enhancement
Hypo
Hyper
NA
GTR
No
2
12M’
Adrien Collin et al., 2018
Cystic-solid
7
40/F
C7–8
Heterogeneous enhancing
Hypo
Hyper
NA
GTR
No
1
6M’
Yazeed Al Krinawe et al., 2020
Solid
8
7/F
Septum pellucidum
No enhancement
Hypo
Hyper
NA
STR
No
1
2Y
Bharadwaj, Rishab et al., 2020
Cystic-solid
9
12/M
The optic pathway
No enhancement
Hypo
Hyper
NA
Biopsy
No
1
6M’
Fumine Tanaka et al., 2019
Cystic-solid
10
18/M
Pons
Partial rim enhancement
Hypo
Hyper
NA
Biopsy
No
1
17Y
Emily P Sieg et al., 2016
Cystic-solid
11
8/F
Right hypothalamus
Ring-like enhancement
Hypo
Hyper
NA
STR
No
1
3Y
ArunkumarSekar et al., 2019
Cystic-solid
12
16/M
Optic chiasm
Ring-like enhancement
Hypo
Hyper
NA
STR
No
1
NA
Goutam Bera et al., 2017
Cystic-solid
14
16/M
Left side of the vermis
Patchy enhancement
Hypo
Hyper
NA
GTR
No
1
1Y
Ji Xiong et al., 2012
Cystic-solid
15
38/M
Septum pellucidum, the bilateral ventricles
Heterogeneous enhancement
Hypo-iso
Mainly hyper
NA
STR
No
2
6M’
Kieren S.J. Allinson,2015
Mainly cystic
16
33/M
The fourth ventricle, the third and lateral ventricles
Patchy enhancement
Hypo
Hyper
NA
Biopsy
Proximately doubled in size
multiple
1Y
Noriko Sumitomo et al., 2017
Cystic
17
9/M
The right parietal lobe
No enhancement
Hypo
Hyper
NA
STR
No
1
NA
Caleb P. Wilson et al., 2020
Cystic-solid
18
19/M
Left temporal, left gangliocapsular region, bilateral thalami, tectum, cerebellum.
Slight enhancement
Hypo
Mildly hype
NA
STR
Dramatic expansion, number increasing
multiple
6Y
L.Gao et al., 2018
Cystic
19
16/M
Cerebellar hemisphere
Slight enhancement
Iso-hypo
Hypo-hyper
NA
GTR
NA
1
NA
L.Gao et al., 2018
Cystic
20
29/M
Lateral ventricle
Heterogeneous enhancement
Iso-hypo
Hypo-hyper
NA
GTR
NA
1
NA
L.Gao et al., 2018
Cystic-solid
21
23/M
Cerebellar vermis
Heterogeneous enhancement
Hypo-hyper
Hypo-hyper
NA
STR
NA
1
NA
L.Gao et al., 2019
Cystic
22
24/M
Left temporal lobe
No enhancement
Hypo
Hyper
NA
GTR
No
1
NA
L.Gao et al., 2019
Cystic
23
30/M
Cerebellar vermis
No enhancement
Hypo
Hyper
NA
GTR
No
1
NA
Sajjad Muhammad et al., 2019
Cystic-solid
24
22/NA
Pineal region
Partially and heterogeneous enhancement
Hypo
Hyper
NA
STR
No
1
8W
Ibrahim Alnaami et al., 2013
Solid
25
57/M
The posterior third ventricle.
Heterogeneous enhancement
Iso
Hyper
NA
Biopsy
No
1
6M’
Ibrahim Alnaami et al., 2013
Cystic-soLid
26
28/M
Posterior third ventricle extending into the aqueduct
Nodular enhancement
Hypo
Hyper
NA
Biopsy
No
1
NA
Özlem Yapıcıer et al., 2018
Cystic
27
55/F
Mesial temporal lobe
No enhancement
Iso-hypo
Heterogeneously hyper
NA
GTR
No
1
NA
H.Cebula et al., 2016
Cystic-solid
28
75/F
Left posterior thalamic
Heterogeneously hyperintense
Heterogeneously hypo
Heterogeneously hyper
Intralesional bleeding
Biopsy
No progression
1
1Y
Sonia García Cabezas et al., 2014
Cystic-solid
29
24/M
Both cerebellar hemispheres, the left cerebellopontine angle, spinal cord
Intense and heterogeneous enhancement
Iso-hypo
Hypo-hyper
NA
Biopsy
No
Multiple
2Y
Shi-Yun Chen et al., 2016
Cystic-solid
30
17/M
Right basal ganglia
Heterogeneous enhancement
Hypo
Hyper
NA
STR
No
1
3Y
Shi-Yun Chen et al., 2017
Cystic
31
33/M
Left parietal lobe
No enhancement
Hypo
Hyper
NA
STR
No
1
3Y
Shi-Yun Chen et al., 2018
Cystic-solid
32
21/F
The third and fourth ventricles and the suprasellar region
Heterogeneous enhancement
Hypo
Hyper
NA
STR
Dead
Multiple
3Y
Yasutaka Fushimi et al., 2011
Cystic-solid
33
28/F
The cerebellar vermis
No enhancement
Hypo
Hyper
NA
STR
No
1
2Y
David Cachia et al., 2014
Cystic
34
36/F
Right frontal lobe, right midbrain tectum, and cerebellar vermis
No enhancement
Hypo
Hyper
NA
STR
No
Multiple
7M’
Philip GeorgeEye et al., 2017
Cystic-solid
35
35/M
The third ventricle
No enhancement
Iso
Hyper
NA
STR
NA
1
NA
Orestes E. Solis et al., 2011
Cystic-solid
36
16/F
The pineal gland region
No enhancement
Iso-hypo
Hyper
NA
STR
No
1
2M’
Ji Xiong et al., 2013
Cystic
37
23/M
Left frontal lobe
No enhancement
Hypo
Hyper
NA
GTR
No
1
8M’
Gorky Medhi et al., 2015
Cystic-solid
38
32/M
Midline posterior fossa, vermis and cerebellar hemispheres
Heterogeneous enhancement
Iso-hypo
Heterogeneously hyper
YES
STR
No
Multiple
11M’
Gorky Medhi et al., 2015
Cystic-solid
39
38/F
Pineal region
Heterogeneous enhancement
Iso-hypo
Heterogeneously hyper
YES
STR
Residual lesions, stable
1
3Y
Gorky Medhi et al., 2015
Cystic-solid
40
24/M
Cerebellar hemispheres, vermis, midbrain, pons, medulla
No enhancement
Iso-hypo
Heterogeneously hyper
YES
STR
Residual lesions
Multiple
NA
Gorky Medhi et al., 2015
Cystic
41
12/M
Pineal region
No enhancement
Hypo
Hyper
NO
GTR
Residual lesions
1
3M’
Gorky Medhi et al., 2015
Cystic-solid
42
40/F
Right cerebellar hemisphere and vermis
Annular and nodular enhancement
Iso-hypo
Heterogeneously hyper
YES
GTR
Minimal residue
Multiple
4M’
S.Kemp et al., 2012
Cystic
43
33/M
Left lateral ventricle
No enhancement
Hypo
Hyper
NA
GTR
NA
1
NA
Ewa Matyja et al., 2014
Cystic
44
22/M
The left temporal lobe.
No enhancement
Hypo
Hyper
NA
GTR
No
1
3.6Y
Junqing Xu et al., 2012
Cystic-solid
45
39/M
Pineal gland, the third ventricle
Faint heterogeneous contrast enhancement
Hypo
Iso-hyper
NA
GTR
No
Multiple
42M’
Benjamin Thurston et al., 2012
Cystic-solid
46
8/F
Left superior cerebellar peduncle
Heterogeneous enhancement
Hypo
Hyper
NA
GTR
Yes, 9M
1
9M’
Anil K. Mahavadi et al., 2020
Cystic-solid
47
41/M
The third ventricle
Heterogeneous enhancement
Mainly hypo
Mainly hyper
NA
STR
Residual lesions, stable
1
6M’
Pankaj Sharma et al., 2011
Cystic-solid
48
16/F
The tectal region of the midbrain
No enhancement
Hypo
Hyper
NA
Biopsy
Stable
1
6M’
Pankaj Sharma et al., 2012
Cystic-solid
49
17/M
Suprasellar and interpeduncular cistern, the third ventricle
Peripheral enhancement
Mainly hypo
Mainly hyper
YES
Biopsy
Stable
Multiple
NA
Seiji Yamada et al., 2019
Cystic-solid
50
16/F
Right temporal lobe
Multinodular enhancement
Hypo
Hyper
NA
GTR
NA
1
NA
Tanmoy Kumar Maiti et al., 2014
Solid
51
2/M
The posterior third ventricle
No enhancement
Hypo
Hyper
NA
STR
Dead
1
13M’
Tanmoy Kumar Maiti et al., 2015
Cystic-solid
52
12/M
The posterior third ventricle
Mild contrast enhancement
Hypo
Hyper
NA
GTR
No
1
9M’
M man, F female, NA not available, GTR gross total resection, STR subtotal resection, iso iso-intensity, hypo hypo-intensity, hyper hyper-intensity, Y year, M’ month
In summary, the misdiagnosis in the above case reflects how RGNT is under-emphasized and poorly researched. Thus, based on the analysis of the present case and limited data available from review of literature, we propose that the following two aspects may have contributed significantly in misdiagnosing RGNT. Firstly, the case we highlighted occurred in the brain parenchyma, while more than 69.7% of previously reported RGNTs involve the fourth ventricle [3]. And multiple lesions involving the bilateral cerebellar hemisphere, brain stem, and left thalamus at the same time are rarely reported. Secondly, the imaging findings of this case overlapped with cerebral cysticercosis. As we all know, cerebral cysticercosis is the most common parasitic disease of the central nervous system (CNS). The imaging manifestations of the parenchymal active phase are multiple cystic lesions. The enhancement is not obvious and the hypo-perfusion on perfusion imaging. For the above reasons, the tumors were misdiagnosed as cerebral cysticercosis deservedly.
Admittedly, there are distinct radiological signs which highlight uncertainties regarding the previous diagnosis: most notably include tiny spot-like hypo-intense in bilateral cerebellar hemisphere on the susceptibility weighted imaging (SWI) (Fig. 1l). After excluding tiny calcifications on CT (Fig. 1c), it can be assumed that there is minor hemorrhage within the lesions. Hemorrhage is almost invisible in cerebral cysticercosis, although there were also few reports of hemorrhages in RGNT. Two possible reasons may account for the latter. One being that the SWI sequence is rarely a routine sequence, and minor hemorrhages in many reported cases may go undetected because they are difficult to show on other sequences in MRI. On the other hand, it is generally assumed that RGNT is a benign tumor, microvascular proliferation is rare; therefore, the hemorrhages are infrequent as well. The evidence between microvascular endothelial proliferation and hemorrhages has been documented in RGNT [10, 11]. L. Gao et al. reported several cases of RGNTs with intratumoral hemorrhage in 2017. They summarized that intratumoral hemorrhage was one of the additional indications to the diagnosis of RGNT. Other indications included “green bell pepper sign,” CSF dissemination, and multiple satellite lesions. Medhi et al. also summed up that hemorrhage and CSF dissemination may be the characteristics of RGNT through the summary of 7 cases [12]. In our case, intratumoral hemorrhage and multiple satellite lesions are consistent with their conclusions. Therefore, the above signs may aid in diagnosing RGNTs. However, whether this microvascular proliferation and intratumoral hemorrhage are related to prognosis needs further research.

Conclusion

RGNT is an uncommon low-grade neuroglial tumor which is generally considered benign with slightly longer course [2]. Headache is the most recorded common symptom. Histopathologically, RGNT consists of two components: a neurocytic component that forms rosettes, and an astrocytic component that resembles a pilocytic astrocytoma [13]. Through the case we reported, we have discovered that RGNT can be multiple cystic lesions, and the brain parenchyma can be the major affected areas. The intratumoral hemorrhage shown by SWI sequence may have some significance for our diagnosis of it. In conclusion, RGNT often presents significant diagnostic dilemma, and hence, further knowledge of this tumor is essential as they are relatively slow growing and exhibit benign histological characteristics.

Declarations

Conflict of interest

The authors declare no competing interests.

Ethical approval

This article does not contain any studies with humans.
We would like to state that the informed consent has been obtained from the patient.
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Metadaten
Titel
The rosette-forming glioneuronal tumor mimicked cerebral cysticercosis: a case report
verfasst von
Dan Zhu
Ailan Cheng
Nickita T. L. Benons
Shuguang Chu
Publikationsdatum
20.05.2021
Verlag
Springer International Publishing
Erschienen in
Neurological Sciences / Ausgabe 10/2021
Print ISSN: 1590-1874
Elektronische ISSN: 1590-3478
DOI
https://doi.org/10.1007/s10072-021-05199-x

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