Nina Skuban
Amicus Therapeutics
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Publication
Featured researches published by Nina Skuban.
The New England Journal of Medicine | 2016
Dominique P. Germain; Derralynn Hughes; Kathleen Nicholls; Daniel G. Bichet; Roberto Giugliani; William R. Wilcox; Claudio Feliciani; Suma P. Shankar; Fatih Süheyl Ezgü; Hernán Amartino; Drago Bratkovic; Ulla Feldt-Rasmussen; Khan Nedd; Usama Sharaf El Din; Charles Marques Lourenço; Maryam Banikazemi; Joel Charrow; Majed Dasouki; David N. Finegold; Pilar Giraldo; Ozlem Goker-Alpan; Nicola Longo; C. Ronald Scott; Roser Torra; Ahmad Tuffaha; Ana Jovanovic; Stephen Waldek; Seymour Packman; Elizabeth Ludington; Christopher Viereck
BACKGROUND Fabrys disease, an X-linked disorder of lysosomal α-galactosidase deficiency, leads to substrate accumulation in multiple organs. Migalastat, an oral pharmacologic chaperone, stabilizes specific mutant forms of α-galactosidase, increasing enzyme trafficking to lysosomes. METHODS The initial assay of mutant α-galactosidase forms that we used to categorize 67 patients with Fabrys disease for randomization to 6 months of double-blind migalastat or placebo (stage 1), followed by open-label migalastat from 6 to 12 months (stage 2) plus an additional year, had certain limitations. Before unblinding, a new, validated assay showed that 50 of the 67 participants had mutant α-galactosidase forms suitable for targeting by migalastat. The primary end point was the percentage of patients who had a response (≥50% reduction in the number of globotriaosylceramide inclusions per kidney interstitial capillary) at 6 months. We assessed safety along with disease substrates and renal, cardiovascular, and patient-reported outcomes. RESULTS The primary end-point analysis, involving patients with mutant α-galactosidase forms that were suitable or not suitable for migalastat therapy, did not show a significant treatment effect: 13 of 32 patients (41%) who received migalastat and 9 of 32 patients (28%) who received placebo had a response at 6 months (P=0.30). Among patients with suitable mutant α-galactosidase who received migalastat for up to 24 months, the annualized changes from baseline in the estimated glomerular filtration rate (GFR) and measured GFR were -0.30±0.66 and -1.51±1.33 ml per minute per 1.73 m(2) of body-surface area, respectively. The left-ventricular-mass index decreased significantly from baseline (-7.7 g per square meter; 95% confidence interval [CI], -15.4 to -0.01), particularly when left ventricular hypertrophy was present (-18.6 g per square meter; 95% CI, -38.2 to 1.0). The severity of diarrhea, reflux, and indigestion decreased. CONCLUSIONS Among all randomly assigned patients (with mutant α-galactosidase forms that were suitable or not suitable for migalastat therapy), the percentage of patients who had a response at 6 months did not differ significantly between the migalastat group and the placebo group. (Funded by Amicus Therapeutics; ClinicalTrials.gov numbers, NCT00925301 [study AT1001-011] and NCT01458119 [study AT1001-041].).
Journal of Medical Genetics | 2017
Derralynn Hughes; Kathleen Nicholls; Suma P. Shankar; Gere Sunder-Plassmann; David M. Koeller; Khan Nedd; Gerard Vockley; Takashi Hamazaki; Robin H. Lachmann; Toya Ohashi; Iacopo Olivotto; Norio Sakai; Patrick Deegan; David Dimmock; François Eyskens; Dominique P. Germain; Ozlem Goker-Alpan; Eric Hachulla; Ana Jovanovic; Charles Marques Lourenço; Ichiei Narita; Mark Thomas; William R. Wilcox; Daniel G. Bichet; Raphael Schiffmann; Elizabeth Ludington; Christopher Viereck; John Kirk; Julie Yu; Franklin K. Johnson
Background Fabry disease is an X-linked lysosomal storage disorder caused by GLA mutations, resulting in α-galactosidase (α-Gal) deficiency and accumulation of lysosomal substrates. Migalastat, an oral pharmacological chaperone being developed as an alternative to intravenous enzyme replacement therapy (ERT), stabilises specific mutant (amenable) forms of α-Gal to facilitate normal lysosomal trafficking. Methods The main objective of the 18-month, randomised, active-controlled ATTRACT study was to assess the effects of migalastat on renal function in patients with Fabry disease previously treated with ERT. Effects on heart, disease substrate, patient-reported outcomes (PROs) and safety were also assessed. Results Fifty-seven adults (56% female) receiving ERT (88% had multiorgan disease) were randomised (1.5:1), based on a preliminary cell-based assay of responsiveness to migalastat, to receive 18 months open-label migalastat or remain on ERT. Four patients had non-amenable mutant forms of α-Gal based on the validated cell-based assay conducted after treatment initiation and were excluded from primary efficacy analyses only. Migalastat and ERT had similar effects on renal function. Left ventricular mass index decreased significantly with migalastat treatment (−6.6 g/m2 (−11.0 to −2.2)); there was no significant change with ERT. Predefined renal, cardiac or cerebrovascular events occurred in 29% and 44% of patients in the migalastat and ERT groups, respectively. Plasma globotriaosylsphingosine remained low and stable following the switch from ERT to migalastat. PROs were comparable between groups. Migalastat was generally safe and well tolerated. Conclusions Migalastat offers promise as a first-in-class oral monotherapy alternative treatment to intravenous ERT for patients with Fabry disease and amenable mutations. Trial registration number: NCT00925301; Pre-results.
Molecular Genetics and Metabolism | 2015
Derralynn Hughes; Daniel G. Bichet; Roberto Giugliani; Raphael Schiffmann; William R. Wilcox; Elfrida R. Benjamin; Jeffrey P. Castelli; John Kirk; Jasmine Rutecki; Nina Skuban; Julie Yu; Jay Barth
Orphanet Journal of Rare Diseases | 2018
Raphael Schiffmann; Daniel G. Bichet; Ana Jovanovic; Derralynn Hughes; Roberto Giugliani; Ulla Feldt-Rasmussen; Suma P. Shankar; Laura Barisoni; Robert B. Colvin; J. Charles Jennette; Fred Holdbrook; Andrew E. Mulberg; Jeffrey P. Castelli; Nina Skuban; Jay Barth; Kathleen Nicholls
Molecular Genetics and Metabolism | 2017
Ulla Feldt-Rasmussen; Roberto Giugliani; Dominique P. Germain; Derralynn Hughes; William R. Wilcox; Raphael Schiffmann; Daniel G. Bichet; Ana Jovanovic; Drago Bratkovic; Jeffrey P. Castelli; Julie Yu; Nina Skuban; Jay Barth
Nephrology Dialysis Transplantation | 2018
Roser Torra; Dominique P. Germain; Daniel G. Bichet; Raphael Schiffmann; Julie Yu; Jeffrey P. Castelli; Nina Skuban; Jay Barth
Nephrology Dialysis Transplantation | 2018
Raphael Schiffmann; Daniel G. Bichet; Dominique P. Germain; Roberto Giugliani; Derralynn Hughes; Kathleen Nicholls; William R. Wilcox; Hadis Williams; Julie Yu; Jeffrey P. Castelli; Nina Skuban; Jay Barth
Molecular Genetics and Metabolism | 2018
Natalja Haninger-Vacariu; Sarah El-Hadi; Udo Pauler; Marina Foretnik; Renate Kain; Alice Schmidt; Nina Skuban; Jay Barth; Gere Sunder-Plassmann
Molecular Genetics and Metabolism | 2018
Kathleen Nicholls; Roberto Giugliani; Raphael Schiffmann; Derralynn Hughes; Vipul Jain; Fred Holdbrook; Nina Skuban; Jeffery P. Castelli; Jay Barth
Molecular Genetics and Metabolism | 2018
Caren Swift; Raphael Schiffmann; Hadis Williams; Jay Barth; Nina Skuban; Jeffrey P. Castelli