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Dive into the research topics where Catherine A. Stolle is active.

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Featured researches published by Catherine A. Stolle.


Human Mutation | 1998

Improved detection of germline mutations in the von Hippel-Lindau disease tumor suppressor gene

Catherine A. Stolle; Gladys M. Glenn; Berton Zbar; Jeffrey S. Humphrey; Peter L. Choyke; McClellan M. Walther; Svetlanna Pack; Kathy Hurley; Carolyn Andrey; Richard D. Klausner; W. Marston Linehan

von Hippel‐Lindau disease (VHL) is an inherited neoplastic disorder characterized by the development of tumors in the eyes, brain, spinal cord, inner ear, adrenal gland, pancreas, kidney, and epididymis. The VHL tumor suppressor gene was identified in 1993. Initial studies reported the detection of germline mutations in the VHL gene in 39–75% of VHL families. We used tests that detect different types of mutations to improve the frequency of detection of germline mutations in VHL families. The methods included quantitative Southern blotting to detect deletions of the entire VHL gene, Southern blotting to detect gene rearrangements, fluorescence in situ hybridization (FISH) to confirm deletions, and complete sequencing of the gene. Here we report that we have detected germline mutations in the VHL gene in 100% (93/93) of VHL families tested. In addition, we describe 13 novel intragenic VHL germline mutations. With the methodology described in this article, it is now possible to identify germline mutations in virtually all families with VHL. Hum Mutat 12:417–423, 1998.


The Journal of Urology | 2012

Succinate Dehydrogenase Kidney Cancer: An Aggressive Example of the Warburg Effect in Cancer

Christopher J. Ricketts; Brian Shuch; Cathy D. Vocke; Adam R. Metwalli; Gennady Bratslavsky; Lindsay A. Middelton; Youfeng Yang; Ming-Hui Wei; Stephen E. Pautler; James Peterson; Catherine A. Stolle; Berton Zbar; Maria J. Merino; Laura S. Schmidt; Peter A. Pinto; Ramaprasad Srinivasan; Karel Pacak; W. Marston Linehan

PURPOSE Recently, a new renal cell cancer syndrome has been linked to germline mutation of multiple subunits (SDHB/C/D) of the Krebs cycle enzyme, succinate dehydrogenase. We report our experience with the diagnosis, evaluation and treatment of this novel form of hereditary kidney cancer. MATERIALS AND METHODS Patients with suspected hereditary kidney cancer were enrolled on a National Cancer Institute institutional review board approved protocol to study inherited forms of kidney cancer. Individuals from families with germline SDHB, SDHC and SDHD mutations, and kidney cancer underwent comprehensive clinical and genetic evaluation. RESULTS A total of 14 patients from 12 SDHB mutation families were evaluated. Patients presented with renal cell cancer at an early age (33 years, range 15 to 62), metastatic kidney cancer developed in 4 and some families had no manifestation other than kidney tumors. An additional family with 6 individuals found to have clear cell renal cell cancer that presented at a young average age (47 years, range 40 to 53) was identified with a germline SDHC mutation (R133X) Metastatic disease developed in 2 of these family members. A patient with a history of carotid body paragangliomas and an aggressive form of kidney cancer was evaluated from a family with a germline SDHD mutation. CONCLUSIONS SDH mutation associated renal cell carcinoma can be an aggressive type of kidney cancer, especially in younger individuals. Although detection and management of early tumors is most often associated with a good outcome, based on our initial experience with these patients and our long-term experience with hereditary leiomyomatosis and renal cell carcinoma, we recommend careful surveillance of patients at risk for SDH mutation associated renal cell carcinoma and wide surgical excision of renal tumors.


Journal of Neuropathology and Experimental Neurology | 2006

Limb-Girdle Muscular Dystrophy in the United States

Steven A. Moore; C. Shilling; Steven Westra; Cheryl Wall; Matthew Wicklund; Catherine A. Stolle; Charlotte A. Brown; Daniel E. Michele; F. Piccolo; Thomas L. Winder; Aaron Stence; Rita Barresi; Nick King; Wendy M. King; Julaine Florence; Kevin P. Campbell; Gerald M. Fenichel; Hansell H. Stedman; John T. Kissel; Robert C. Griggs; Shree Pandya; Katherine D. Mathews; Alan Pestronk; Carmen Serrano; Daniel Darvish

Limb-girdle muscular dystrophy (LGMD) has been linked to 15 chromosomal loci, 7 autosomal-dominant (LGMD1A to E) and 10 autosomal-recessive (LGMD2A to J). To determine the distribution of subtypes among patients in the United States, 6 medical centers evaluated patients with a referral diagnosis of LGMD. Muscle biopsies provided histopathology and immunodiagnostic testing, and their protein abnormalities along with clinical parameters directed mutation screening. The diagnosis in 23 patients was a disorder other than LGMD. Of the remaining 289 unrelated patients, 266 had muscle biopsies sufficient for complete microscopic evaluation; 121 also underwent Western blotting. From this combined evaluation, the distribution of immunophenotypes is 12% calpainopathy, 18% dysferlinopathy, 15% sarcoglycanopathy, 15% dystroglycanopathy, and 1.5% caveolinopathy. Genotypes distributed among 2 dominant and 7 recessive subtypes have been determined for 83 patients. This study of a large racially and ethnically diverse population of patients with LGMD indicates that establishing a putative subtype is possible more than half the time using available diagnostic testing. An efficient approach to genotypic diagnosis is muscle biopsy immunophenotyping followed by directed mutational analysis. The most common LGMDs in the United States are calpainopathies, dysferlinopathies, sarcoglycanopathies, and dystroglycanopathies.


Human Mutation | 2000

Mutations in the human TWIST gene

Karen W. Gripp; Elaine H. Zackai; Catherine A. Stolle

Saethre‐Chotzen syndrome is a relatively common craniosynostosis disorder with autosomal dominant inheritance. Mutations in the TWIST gene have been identified in patients with Saethre‐Chotzen syndrome. The TWIST gene product is a transcription factor with DNA binding and helix‐loop‐helix domains. Numerous missense and nonsense mutations cluster in the functional domains, without any apparent mutational hot spot. Two novel point mutations and one novel polymorphism are included in this review. Large deletions including the TWIST gene have been identified in some patients with learning disabilities or mental retardation, which are not typically part of the Saethre‐Chotzen syndrome. Comprehensive studies in patients with the clinical diagnosis of Saethre‐Chotzen syndrome have demonstrated a TWIST gene abnormality in about 80%, up to 37% of which may be large deletions [Johnson et al., 1998]. The gene deletions and numerous nonsense mutations are suggestive of haploinsufficiency as the disease‐causing mechanism. No genotype phenotype correlation was apparent. Hum Mutat 15:150–155, 2000.


American Journal of Medical Genetics | 1998

Phenotype of the fibroblast growth factor receptor 2 Ser351Cys mutation : Pfeiffer syndrome type III

Karen W. Gripp; Catherine A. Stolle; Donna M. McDonald-McGinn; Richard I. Markowitz; Scott P. Bartlett; James A. Katowitz; Maximilian Muenke; Elaine H. Zackai

We present a patient with pansynostosis, hydrocephalus, seizures, extreme proptosis with luxation of the eyes out of the lids, apnea and airway obstruction, intestinal non-rotation, and severe developmental delay. His skeletal abnormalities include bilateral elbow ankylosis, radial head dislocation, and unilateral broad and deviated first toe. The phenotype of this patient is consistent with that previously reported in Pfeiffer syndrome type III, but is unusual for the lack of broad thumbs. Our patient most closely resembles the case described by Kerr et al. [1996: Am J Med Genet 66:138-143] as Pfeiffer syndrome type III with normal thumbs. Mutations in the genes for fibroblast growth factor receptors (FGFR) 1 and 2 have previously been seen in patients with Pfeiffer syndrome type I. The mutation identified in our patient, Ser351Cys in FGFR2, represents the first reported cause of Pfeiffer syndrome type III. An identical mutation was described once previously by Pulleyn et al., in a patient whose brief clinical description included cloverleaf skull, significant developmental delay, and normal hands and feet [Eur. J. Hum. Genet. 4: 283-291, 1996]. In our patient, previously performed single-strand conformation polymorphism analysis failed to detect a band shift; the mutation was identified only after independent sequence analysis.


Molecular Genetics and Metabolism | 2010

A rapid, noninvasive immunoassay for frataxin: utility in assessment of Friedreich ataxia.

Eric C. Deutsch; Avni Santani; Susan Perlman; Jennifer M. Farmer; Catherine A. Stolle; Michael F. Marusich; David R. Lynch

Friedreich ataxia (FRDA) is an autosomal recessive neurodegenerative disorder caused by reduced amounts of the mitochondrial protein frataxin. Frataxin levels in research studies are typically measured via Western blot analysis from patient fibroblasts, lymphocytes, or muscle biopsies; none of these is ideal for rapid detection in large scale clinical studies. Recently, a rapid, noninvasive lateral flow immunoassay was developed to accurately measure picogram levels of frataxin protein and shown to distinguish lymphoblastoid cells from FRDA carriers, patients and controls. We expanded the immunoassay to measure frataxin directly in buccal cells and whole blood from a large cohort of controls, known carriers and patients typical of a clinical trial population. The assay in buccal cells shared a similar degree of variability with previous studies conducted in lymphoblastoid cells (~10% coefficient of variation in controls). Significant differences in frataxin protein quantity were seen between the mean group values of controls, carriers, and patient buccal cells (100, 50.2, and 20.9% of control, respectively) and in protein extracted from whole blood (100, 75.3, and 32.2%, respectively), although there was some overlap between the groups. In addition, frataxin levels were inversely related to GAA repeat length and correlated directly with age of onset. Subjects with one expanded GAA repeat and an identified frataxin point mutation also carried frataxin levels in the disease range. Some patients displaying an FRDA phenotype but carrying only a single identifiable mutation had frataxin levels in the FRDA patient range. One patient from this group has a novel deletion that included exons 2 and 3 of the FXN gene based on multiplex ligation-dependent probe amplification (MLPA) analysis of the FXN gene. The lateral flow immunoassay may be a useful means to noninvasively assess frataxin levels repetitively with minimal discomfort in FRDA patients in specific situations such as clinical trials, and as a complementary diagnostic tool to aid in identification and characterization of atypical patients.


American Journal of Medical Genetics Part A | 2010

Paraganglioma, neuroblastoma, and a SDHB mutation: Resolution of a 30-year-old mystery†

R. Neil Schimke; Debra L. Collins; Catherine A. Stolle

Familial paraganglioma/pheochromocytoma (PGL/PCC) is genetically heterogenous with mutations in three of the four subunits of the heterotetrameric mitochondrial complex II enzyme succinate dehydrogenase (SDH) being causally responsible for the majority of cases. In addition to PGL/PCC an array of non‐paraganglial tumors have been described in affected individuals. We present a 30‐year follow‐up on the family of a deceased patient who synchronously developed malignant neuroblastoma (NBL), PCC, and renal cell carcinoma (RCC). Other family members with late onset disease have come to our attention, and molecular study revealed a mutation in the SDHB gene. Despite the embryologic relationship, NBL has been seen in only two previous patients with familial PGL/PCC, both with deletions of the SDHB gene. Review of the literature suggests the lack of a reported association between NBL and familial PGL/PCC may be an ascertainment bias. We further suggest that study of the SDH genes in NBL survivors who develop secondary solid tumors, particularly RCC, may correct this bias, and provide for more effective and comprehensive tumor screening in this patient population.


American Journal of Medical Genetics | 1999

TWIST gene mutation in a patient with radial aplasia and craniosynostosis: further evidence for heterogeneity of Baller-Gerold syndrome.

Karen W. Gripp; Catherine A. Stolle; Livija Celle; Donna M. McDonald-McGinn; Linton A. Whitaker; Elaine H. Zackai

The term Baller-Gerold syndrome was coined by Cohen [1979: Birth Defects 15(5B): 13-63] to designate the phenotype of craniosynostosis and radial aplasia. It is thought to be a rare autosomal recessive condition, which, in some patients, presents with additional abnormalities, such as polymicrogyria, mental retardation or anal atresia. A phenotypic overlap of Baller-Gerold and Roberts-SC phocomelia syndrome was noted when a patient with bicoronal synostosis and bilateral radial hypoplasia was found to have premature centromere separation, a finding characteristic of Roberts syndrome [Huson et al.,1990: J Med Genet 27:371-375]. Other cases of presumed Baller-Gerold syndrome were rediagnosed as Fanconi pancytopenia, Rothmund-Thomson syndrome or VACTERL association. These reports led to a narrowed redefinition of Baller-Gerold syndrome based on the exclusion of cytogenetic and hematopoetic abnormalities and the absence of additional malformations in patients with craniosynostosis and preaxial upper limb abnormalities. Here we report on a patient with unilateral radial aplasia and bicoronal synostosis without additional malformations and without chromosome breakage, who fits this narrow definition of Baller-Gerold syndrome. We identified a novel TWIST gene mutation in this patient, a Glu181Stop mutation predicting a premature termination of the protein carboxy-terminal to the helix 2 domain. This report provides further evidence that Baller-Gerold is of heterogeneous cause, and a thorough evaluation is indicated to identify a possibly more specific diagnosis, including Saethre-Chotzen syndrome. This differential diagnosis is of particular importance, as it is an autosomal dominant trait. Therefore, the recurrence risk for parents of an affected child can be 50% if one parent carries the mutation, as opposed to the 25% recurrence risk for autosomal recessive inheritance. Offspring of the affected patient also have a 50% risk to inherit the mutation, while the risk to bear an affected offspring for an autosomal recessive trait is very low.


Journal of Neurology, Neurosurgery, and Psychiatry | 2000

Frataxin point mutations in two patients with Friedreich's ataxia and unusual clinical features

Melissa L McCormack; Rodney P. Guttmann; Matthew Schumann; Jennifer M. Farmer; Catherine A. Stolle; Victoria Campuzano; Michel Koenig; David R. Lynch

Two patients with a progressive ataxia are presented with clinical features consistent with classic Friedreichs ataxia (FRDA), but also with features unusual for FRDA. Analysis of DNA showed that each patient is heterozygous for the expanded GAA repeat of FRDA, but carries a base change on his other frataxin allele. For one patient a non-conservative arginine to cysteine amino acid change is predicted at amino acid 165 whereas the other mutation is found at the junction of exon one and intron one. Muscle biopsy showed an absence of frataxin immunoreactivity in the patient harbouring the intronic mutation, confirming the pathological nature of the base change. These mutations extend the range of point mutations seen in FRDA, and agree with recent reports suggesting phenotypic variation in patients with FRDA harbouring point mutations in conjunction with an expanded GAA repeat.


Oncogene | 2002

Somatic VHL gene deletion and point mutation in MEN 2A-associated pheochromocytoma.

Christian A. Koch; Steve Huang; Zhengping Zhuang; Catherine A. Stolle; Norio Azumi; George P. Chrousos; Alexander O. Vortmeyer; Karel Pacak

Multiple endocrine neoplasia type 2 (MEN 2) is an inherited cancer syndrome that includes pheochromocytoma. Germline mutations in RET are responsible for MEN 2 but the precise pathogenetic mechanisms of tumorigenesis are unknown. We have recently identified possible mechanisms of tumor formation in patients with MEN 2A-related pheochromocytoma. Two of nine tumors investigated, however, did not reveal either of these mechanisms. In the present study, we therefore searched for other possible mechanisms underlying the pathogenesis of MEN 2A-related pheochromocytoma. Hereditary pheochromocytoma also occurs in patients with von Hippel-Lindau (VHL) disease, a syndrome consisting of tumors caused by inactivation of the VHL tumor suppressor gene. A subset of sporadic pheochromocytomas have somatic mutations in RET or VHL, suggesting that both genes contribute to pheochromocytoma pathogenesis in a subset of tumors. It is unknown, however, whether VHL gene alterations would be associated with tumorigenesis in hereditary, MEN 2-related pheochromocytoma. We therefore investigated four pheochromocytomas from patients with MEN 2A and RET germline mutations for the presence of allelic deletion and/or somatic mutation of the VHL gene. LOH analysis using the polymorphic markers D3S1038 and D3S1110 that map to the VHL gene locus 3p25/26, revealed evidence for somatic VHL gene deletion in all four MEN 2A-related pheochromocytomas. Mutation analysis of the VHL gene showed frameshift mutations in two tumors and a splice acceptor mutation in one tumor. The remaining tumor did show LOH but not mutation of the VHL gene. These results suggest that somatic genetic alterations of the VHL gene may play a role in the tumorigenesis of some MEN 2A-related pheochromocytomas.

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Elaine H. Zackai

Children's Hospital of Philadelphia

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Berton Zbar

National Institutes of Health

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Avni Santani

Children's Hospital of Philadelphia

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Gladys M. Glenn

National Institutes of Health

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Karen W. Gripp

Children's Hospital of Philadelphia

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Peter L. Choyke

National Institutes of Health

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W. Marston Linehan

National Institutes of Health

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Donna M. McDonald-McGinn

Children's Hospital of Philadelphia

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Laura S. Schmidt

Baylor College of Medicine

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McClellan M. Walther

National Institutes of Health

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