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The integrated multiomic diagnosis of sporadic meningiomas: a review of its clinical implications

A Correction to this article was published on 30 December 2021

This article has been updated



Meningiomas are generally considered “benign,” however, these tumors can demonstrate variability in behavior and a surprising aggressiveness with elevated rates of recurrence. The advancement of next-generation molecular technologies have led to the understanding of the genomic and epigenomic landscape of meningiomas and more recent correlations with clinical characteristics and behavior.


Based on a thorough review of recent peer-reviewed publications (PubMed) and edited texts, we provide a molecular overview of meningiomas with a focus on relevant clinical implications.


The identification of specific somatic driver mutations has led to the classification of several major genomic subgroups, which account for more than 80% of sporadic meningiomas, and can be distinguished using noninvasive clinical variables to help guide management decisions. Other somatic genomic modifications, including non-coding alterations and copy number variations, have also been correlated with tumor characteristics. Furthermore, epigenomic modifications in meningiomas have recently been described, with DNA methylation being the most widely studied and potentially most clinically relevant. Based on these molecular insights, several clinical trials are currently underway in an effort to establish effective medical therapeutic options for meningioma.


As we enhance our multiomic understanding of meningiomas, our ability to care for patients with these tumors will continue to improve. Further biological insights will lead to additional progress in precision medicine for meningiomas.


Meningiomas are the most common primary central nervous system (CNS) tumor, accounting for ~ 40% of intracranial tumors and 54% of nonmalignant tumors [1, 2]. While the majority are slow growing, when intervention is necessary due to size and/or symptomatology, treatment involves neurosurgical resection. Radiotherapy is used more variably and despite significant advancements in our understanding of meningioma biology, there remains no effective pharmacological therapies.

Typically considered “benign,” meningiomas are defined by location and histology. Classified based on atypical features, including mitoses and brain invasion, they are divided into three World Health Organization (WHO) grades. Grade I (~ 80% of meningiomas) demonstrate low risk of recurrence; grade II (atypical) and grade III (anaplastic) exhibit higher rates of growth, with the latter being frankly “malignant” and demonstrating recurrence rates > 70% after gross total resection [3]. There are 15 histological subtypes, with nine variants recognized in grade I tumors [4]. These tumors do not, however, always behave according to their WHO grading, with reports of histologically-confirmed grade I tumors demonstrating unexpected recurrence, malignant transformation, and aggressive behavior [5], underscoring their complexity and heterogeneity.

The last decade has provided insight into meningioma biology, particularly for those arising sporadically. Several recently identified somatic driver mutations have defined new clinically-relevant molecular subgroups [6] and this knowledge has shifted focus to integrated diagnosis, targeted treatment, and novel opportunities for pharmacological development. Importantly, the WHO grading scale has been updated to incorporate molecular diagnostics (see below) [7]. In this review, we discuss our current understanding of the multiomic landscape of meningiomas, with a focus on relevant clinical implications.

Genomic landscape of sporadic meningiomas

Germline mutations are well-established drivers of meningioma formation, especially those arising in the context of genetic diseases such as neurofibromatosis type II (NF2), Gorlin and Cowden syndromes [8]. Recent focus has turned to characterization of sporadic meningiomas, which account for the majority of these tumors and typically occur without a clear inciting event. Importantly, meningiomas are unique in harboring a small number of somatic mutations, and this “cleaner” genomic architecture has allowed expeditious insight into the pathophysiology of sporadic meningiomas.

Genomic subgroup classification based on key driver mutations

Major genomic subgroups have been defined based on specific somatic driver mutations in ~ 80% of sporadic meningiomas [9]. These include (1) Neurofibromatosis-2 (NF2) with or without co-mutation in SWI/SNF Related, Matrix Associated, Actin Dependent Regulator of Chromatin, Subfamily B, Member 1 (SMARCB1); (2) mutations in the WD40 region of TNF Receptor-Associated Factor 7 (TRAF7), which can occur alone or (3) with a recurrent mutation in Kruppel-Like Factor 4 (KLF4K409Q) or (4) mutations in PI3K (phosphoinositide 3-kinase) pathway molecules, including PIK3CA, PIK3R1, and AKT1E17K; (5) Hedgehog (HH) signaling molecules (i.e. SMO, SUFU, PRKAR1A); (6) recurrent mutations in RNA Polymerase II Subunit A (POLR2AQ403K or L438_H439del), or (7) SMARCE1 mutations [6, 9,10,11]. Over half of sporadic meningiomas harbor somatic NF2-mutations and noninvasive clinical diagnostics can differentiate between NF2-mutated and non-mutated meningiomas, with important implications for patient care [6]. These genomic subgroup classifications, important somatic driver mutations, and their relationships are illustrated in Fig. 1.

Fig. 1
figure 1

Somatic mutational profile of sporadic meningiomas

NF2-mutated meningiomas

The most common driver mutation is biallelic loss of NF2, accounting for > 50% of meningiomas [12]. A tumor suppressor, NF2 encodes a cytoskeleton scaffold protein involved in cell proliferation and apoptosis. Aggressive NF2-mutated meningiomas acquire chromosomal instability or co-mutation in another tumor suppressor gene, SMARCB1 [13]. Most somatic NF2 mutations are in solitary, sporadic meningiomas, however, they can occur in radiation-induced and multiple meningiomas [14].

NF2-mutated meningiomas demonstrate larger volumes, fibrous or atypical histology, male predominance, and preferentially occur along the cerebral convexities posterior to the coronal suture (Fig. 2) [6, 15]. Along the skull base, NF2-mutant meningiomas show lateral to medial gradient, originating along the lateral sphenoid wing, invading the bone [16]. These mutations are associated with preoperative seizures, predict a more aggressive clinical course, shorter progression free survival [17], and correlate with higher proliferation indexes [6]. They are enriched in recurrent tumors, especially when present with recurrent SMARCB1 mutations. SMARCB1, part of the switch/sucrose non-fermentable (SWI/SNF) chromatin-remodeling complex protein [18], demonstrates recurrent p.Arg383Gln or p.Arg386His mutations [18,19,20]. Unlike NF2-mutated meningiomas, SMARCB1/NF2 co-mutations localize anterior to the coronal suture and medially along the falx [18].

Fig. 2
figure 2

Adapted from Youngblood et al., 2019 with permission from the Journal of Neurosurgery [6]

Localization of molecular subtypes to unique brain regions.

Non-NF2 mutated meningiomas

TRAF7 is the most common somatic mutation in non-NF2 meningiomas, present in ~ 25% of sporadic tumors [10]. As a proapoptotic E3 ubiquitin ligase, TRAF7 activates downstream signaling pathways including mitogen-activated protein kinase (MAPK) and nuclear factor-kB (NF-kB), with mutations causing unregulated NF-kB activity and cell proliferation [10, 13]. TRAF7 tumors demonstrate meningothelial histology and higher-grade characteristics [6, 18]. Mutations in the KLF4 or PI3K pathway, such as AKT1 or PIK3CA, co-occur with TRAF7. Mutations in KLF4, a zinc finger transcription factor, affect the specific lysine residue at position 409 (KLF4K409Q) [10, 21]. TRAF/KLF4K409 mutations are found in ~ 10% of meningiomas, are typically located along the lateral skull base (Fig. 2), demonstrate secretory histology, and cause significant peritumoral edema [6, 10]. TRAF7 with co-mutations in PI3K/AKT pathway represent an additional ~ 10%, and localize along the sphenoid wing and medial anterior skull base [11]. Most common is a recurrent AKT1E17K mutation, resulting in constitutive activation of PI3K/mTOR (mammalian target of rapamycin) pathway and upregulation of growth factor-induced cellular survival [6]. PIK3CA, PIK3R1, and AKT3 mutations similarly increase PI3K/AKT signaling and are found in ~ 20% of anterior skull base or convexity meningiomas (Fig. 2) [6, 9]. Recent data demonstrates that sphenoid wing meningiomas causing hyperostosis are associated with TRAF7 variants [16].

Hedgehog (HH) is another important signaling pathway in meningioma formation. Proteins in this pathway direct developmental patterning and cell differentiation during embryogenesis, and in adult tissues, regulate stem-cell mediated cell cycle activation and tissue regeneration [10, 11]. Mutations Smoothened (SMO) and Suppressor of Fused (SUFU) genes are the most common, are associated with meningothelial and low grade histology [22], and occur in the anterior skull base, typically midline along the olfactory groove or planum sphenoidale; ~ 45% of midline meningiomas demonstrate HH pathway mutations [23]. Given HH pathway’s role in embryonic midline patterning, these findings underscore the importance of developmental and regulatory gene dysfunction in meningiogenesis.

Recurrent somatic mutations in POLR2A are found in ~ 6% of meningiomas [9]. POLR2A encodes RPB1, a member of the polymerase II complex involved in mRNA transcription. Mutations in this enzyme are rare and meningiomas are the only pathology known to harbor these recurrent mutations [9]. POLR2A mutations are thought to alter expression of meningeal progenitor and differentiation genes, including Zic family members 1 and 4 (ZIC1/ZIC4) and Wnt family protein 6 and 10A (WNT6/WNT10A) [9]. These tumors are grade I, demonstrate female predominance, meningothelial histology, and occur in the sella, clivus and posterior fossa [6, 9] (Fig. 2).

Other somatic mutations

Mutations in SMARCE1, another member of the SWI/SNF complex, have been described in higher-grade tumors. SMARCE1 loss is associated with clear cell meningiomas, WHO grade II tumors with elevated recurrence [19, 24]. Additional mutations have been described, including ARID1A and SMARCA4, with ARID1A mutations being present in ~ 20% of grade I and II tumors, 15% of grade III meningiomas, and associated with increased mortality [25].

Somatic, non-coding genomic alterations

As next generation sequencing techniques advance, we are learning the importance of non-coding regions of the genome. The best understood is telomerase reverse transcriptase (TERT) promoter mutations. These mutations, found in ~ 6% of meningiomas, cause TERT upregulation, which abnormally extends the telomeres of meningioma cells, enhancing their lifespan [26]. TERT promoter mutations are important in atypical transformation of Grade 1 meningiomas, and are thus found in higher grade, malignant tumors, predicting increased recurrence risk [26].

Somatic copy-number variations

Copy number variations (CNV), including simple duplications, deletions, or complex rearrangements of genomic regions result in altered transcriptional regulation; tumorigenic CNVs cause deletion of tumor suppressor genes or amplification of oncogenes. The most frequent CNV in sporadic meningiomas is chromosome 22q deletion, which contains NF2 and SMARCB1, among others [15, 27]. Abnormalities involving Chromosome 1 are also common, with loss of the short arm (1p) being the second most common chromosomal abnormality, found in 70–80% of atypical meningiomas [28]. In grade I tumors, chromosome 1p deletion increases the risk of recurrence [29] and 1q gain is associated with atypical tumors and shorter progression-free survival [28].

Other frequent CNVs include chromosome 9p deletion, which contains tumor suppressor genes Cyclin-Dependent Kinase Inhibitor 2A and 2B (CDKN2A/B) [15], and loss of chromosomes 2p, 4p, 6q, 7p, 9p, 10q, 11p, 14q, 17q, and 18q [29,30,31,32,33,34,35,36,37]. Chromosome 2p loss is associated with choroid meningiomas, while anaplastic meningiomas demonstrate chromosome 1p, 6p, 14, and 22q losses [15]. CDKN2A/B mutations are associated with recurrent and aggressive tumors [38, 39], multiple copies of chromosome 5 are found in angiomatous meningiomas [36], gains in chromosome 22q are more often found in skull base regions, while losses at 1p, 8p, 14q and 22q correlate with non-skull base locations [33, 40].

Although studies have suggested that grade II/III lesions have more numerous and larger CNVs [29, 33], a recent study demonstrated that while de novo atypical NF2 tumors have more large-scale CNVs, there was no difference between non-NF2 meningioma grades [20]. Chromosome 14q loss showed the largest difference between atypical and low grade NF2-mutated meningiomas [20]. Furthermore, loss of chromosomes 1, 4p, 10p, 14, and 22, and higher numbers of cumulative CNVs are more common in recurrence [33] (Table 1).

Table 1 CNV Associations with meningioma characteristics

Epigenomic modifications

The role of epigenomic changes such as aberrant DNA methylation, histone methylation, and acetylation is also being defined [41] (Table 2), with DNA methylation being most well-understood. Hypermethylation of DNA regulatory regions, leading to gene silencing, correlates with tumor aggressiveness and recurrence [20, 42]. Homeobox family genes (HOXA) [43] are often hypermethylated in aggressive tumors, and tumors with a group of five HOXA genes (HOXA6, HOXA9, PENK, UPK3A, and IGF2BP1) hypermethylated together, exhibit higher recurrence rates [44]. Similarly, the genomic locus harboring hypoxia inducible factor (HIF), which inhibits proliferation through angiogenesis regulation, demonstrates increased methylation [45], possibly contributing to tumor growth. Although clear relationships between genomic mutations and epigenomic regulation has yet to be defined [19, 41], evidence points to important interplays. A recent study investigating the epigenomics of clear cell meningiomas found a unique SMARCE1 mutation signature [19], bridging mutations in SMARCE1 to the observed epigenomic changes. Hypomethylation has also been associated with increased aggressiveness of some tumors [46].

Table 2 Epigenetic changes and associated clinical characteristics in meningioma

DNA methylation patterns can differentiate NF2-mutant from non-NF2 mutant tumors, with further differentiation of non-NF2 mutant tumors into atypical versus “benign.” In de novo formation of atypical NF2-mutant meningiomas, hypermethylation is either associated with large-scale CNVs, or gained due to SMARCB1 co-mutations [20]. Separately, “high” methylation levels were found in tumors from older patients, those with increased somatic mutation burden, higher tumor grade, convexity location, and NF2 mutations [47]. FOXM1 expression, of which NF2 is a negative regulator, is increased with FOXM1/Wnt signaling pathway activation, which likely underlies enhanced cell proliferation [47].

Histone modification and microRNAs (miRNAs) are important in meningioma pathophysiology. Trimethylation of lysine 27 of histone H3 (H3K27me3) predicts worse outcomes and faster recurrence for grade I/II meningiomas [48]. EZH2, the catalytic subunit of the Polycomb Repressive Complex 2 (PRC2), is thought to mediate this effect by causing long-term gene expression silencing. Using ChIP-seq, we demonstrated H3K27me3 profiles differentiate atypical and benign meningiomas, with increased H3K27me3 signal in atypical tumors [20]. In a separate study, NF2 and SUFU mutations were found enriched among tumors lacking H3K27me3 [49]. miRNA expression levels differ between tumor and normal cells, and between atypical and anaplastic meningiomas [50]. For example, miRNA-107 acts as a tumor suppressor and is decreased in higher grade lesions, while miRNA-21 acts as an anti-apoptotic factor and its expression is reported to be increased in meningiomas [51].

Pathways to malignancy

Genetic markers of meningioma aggressiveness is an active area of investigation, aiming to identify molecular signatures for patients at risk of transformation. Unique mutations are being discovered in rarer, more malignant subsets of meningiomas. TERT promoter mutations are associated with recurrence as well as progression to higher grades [52]. The breast cancer (BRCA)1-associated protein-1 tumor suppressor gene (BAP1) has been linked to a clinically aggressive rhabdoid subtype [53] and both germline and somatic mutations in BAP1 predict faster recurrence [54]. As discussed above, DNA methylation correlates with  aggressiveness and H3K27me3 loss identifies a subset of grade 2 meningiomas with increased recurrence risk [48]. Gene co-expression analysis is also being used to predict tumor behavior using meta-gene markers. One recent co-expression module identified, E2F4/FOXM1, predicts increased meningioma aggressiveness [55], correlating with previous identification of FOXM1 and E2F2 expression networks activated in atypical meningiomas [20]. Further insight into genetic alterations and gene co-expression networks will improve our ability to predict tumor behavior.

Integrated diagnosis

The newly released WHO Classification of Tumors of the Central Nervous System 2021 updated meningioma grading parameters, including introducing several of these biomarkers. Meningiomas remain a single entity with 15 subtypes; however, criteria defining atypical (grade II) or anaplastic (grade III) are applied regardless of subtype. Subtypes with higher recurrence rates, such as chordoid and clear cell, are considered grade 2 tumors; however, note is made of the need for improved understanding of prognostic markers for these atypical meningiomas. Mutations in SMARCE1, BAP1, KLF4/TRAF7, TERT promoter, and CDKN2A/B deletion, H3K27me3 loss and methylation profiling are now officially associated with the classification and grading of meningiomas [7].

Clinical & treatment implications

Guidance of patient management decisions

Management of meningiomas is typically based on location and symptomatology. For small, asymptomatic tumors, patients can be followed with imaging to monitor growth. Larger and/or symptomatic lesions can undergo surgical resection, with possible adjuvant radiotherapy. Prediction of tumor behavior through genomic mutation analysis is beginning to guide clinical decisions. Increasingly, predictive scores are being developed based on integrated transcriptome data [56], and grading systems are being proposed based on epigenomic modifications and chromosomal variations [33, 57]. One DNA methylation-based classification identified low grade, “benign” tumors, with high, rapid recurrence risk, and conversely, higher grade tumors with lower risk. Further, unsupervised clustering differentiated meningiomas from other extra-axial tumors, and determined distinct, clinically-relevant classes predicting recurrence [57]. Another study using DNA methylation profiles developed a methylome-based five-year recurrence-free survival prediction model demonstrating improved recurrence predictions compared to clinical or pathology grading-based systems [58]. Driver et al. developed a three-tiered integrated grading (grades 1–3) incorporating mitotic count and loss of chromosomes 1p, 3p, 4, 6, 10, 14q, 18, 19, or CDKN2A, and demonstrated that this grading scheme improves the current WHO system in predicting progression-free survival [59]. Furthermore, Patel et al. identified three groups using RNA-sequencing and whole-exome sequencing that correlate with recurrence [60]. Using a multi-omic approach, Nassiri et al. defined integrative molecular groups through combined analysis of DNA somatic copy-number aberrations, DNA somatic point mutations, DNA methylation, and messenger RNA abundance. They identified four molecular groups that independently associated with recurrence-free survival and better predicted time to recurrence than WHO grading [61].

Importantly, genomic characterization informs preoperative and postoperative decision-making through insights about potential tumor behavior and recurrence risk. Our recent work identified aggressive genomic subgroups with mutations in NF2, TRAF7, and HH and PI3K pathways, are associated with a ~ 22 times higher two-year recurrence rate [62]. Separately, chromosome 1p deletion and CDKN2A/B loss are independently associated with early recurrence and higher grade [29, 39]. Therefore, a convexity meningioma, for instance, occuring in a low surgical risk location may be considered for earlier resection, given they are often NF2-mutated and demonstrate higher grade, atypical features. Those arising in surgically challenging skull base locations may be considered for close surveillance and debulking, with consideration of earlier adjuvant radiation if confirmed to be an aggressive subtype.

Management of residual and recurrent lesions remains debated, with those demonstrating higher risk typically undergoing radiation and/or repeat surgical resection [63]. However, limits to the number of resections and radiation treatments patients can safely undergo necessitates more effective therapeutic options. Identification of unique driver mutations and advancements in molecular profiling are opening new avenues for targeted, pharmaceutical therapies and allowing implementation of patient-centered treatment protocols.

Development of targeted therapies and precision oncological care for meningioma

Multiple clinical trials targeting genetic mutations are underway. One promising target is the mTOR pathway, of which NF2 is a negative regulator. Studies investigating mTOR inhibition using Everolimus (NCT01880749, NCT01419639), Everolimus + Octreotide (NCT02333565), or Vistusertib (AZD2014) (NCT03071874, NCT02831257), are showing promising results in progression free survival and tumor volume [64]. Vismodegib (SMO inhibitor) and GSK2256098 (FAK inhibitor) are being used in meningiomas with HH pathway (SMO) or NF2 pathway (FAK) mutations, respectively (NCT02523014).

A phase I study of Alpelisib and Trametinib, PI3K and MEK inhibitors, respectively (NCT03631953), via a combinational approach (inclusion criteria does not include genomic events associated with PI3K activation) in aggressive and recurrent meningiomas is underway. Ribociclib, a cyclin-dependent kinase (CDK) inhibitor, targeting chromosomal abnormalities in the p53/pRB pathway, which is increased in higher grade tumors, is being used in grade II–III meningiomas (NCT02933736) [65]. In addition, clinical trials are investigating the role of radiotherapy, immunotherapy, or a combination of these therapies as primary and adjuvant treatment of meningiomas (see “Appendix” for NCT numbers).

In addition to developing new pharmacological targets, genomic characterization of meningiomas is improving our diagnostic capabilities. Youngblood, et al. used machine learning algorithms to predict underlying genomic events (NF2 vs. non-NF2) based on clinical and imaging features [6]. The ability to use non-invasive analysis to predict tumor genetics, and therefore behavior, will provide invaluable phenotypic meningioma profiles to guide treatment and management decisions without invasive procedures.


Though meningiomas are frequently considered “benign,” morbidity and therapeutic challenges are often encountered, calling this classification into question. As we continue to develop a deeper understanding of the genomic and epigenomic landscape of meningiomas, associated pathophysiological mechanisms suggest a more heterogeneous group than initially thought, with variable clinical behavior, aggressiveness, and recurrence rates. Incorporating genomic and molecular features with histopathological characteristics is improving our diagnostic accuracy and suggesting new, targetable pathways for pharmaceutical interventions. As our understanding of meningioma genomics deepens, our ability to further personalize medical and surgical management of patients with meningiomas will continue to improve, as will our ability to offer targeted therapies and advanced precision oncological care.

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This study was funded by the Connecticut Brain Tumor Alliance.

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SMR, SV, AN, SV, and JM developed the idea and structure of the article, SMR, SV, AN, and EG performed the literature and analysis, SMR, SV, AN, SV, EZE, MG, and JM drafted the intial article, and SMR, MWY, LJ, NM, EZE, MG, and JM critically revise the work. All authors have read and approved the manuscript.

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Robert, S.M., Vetsa, S., Nadar, A. et al. The integrated multiomic diagnosis of sporadic meningiomas: a review of its clinical implications. J Neurooncol (2021).

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  • Meningioma
  • Sporadic
  • Genomic subgroups
  • Precision medicine