Molly Hemenway
University of Colorado Denver
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Pediatric Blood & Cancer | 2009
Lia Gore; Sant P. Chawla; Antonio Sergio Petrilli; Molly Hemenway; Debra Schissel; Vickey Chua; Alexandra D. Carides; Arlene Taylor; Suzanne DeVandry; Jack Valentine; Judith K. Evans; Bettina Oxenius
The neurokinin‐1 receptor antagonist aprepitant, plus a 5HT3 antagonist and corticosteroid is well‐tolerated and effective in preventing chemotherapy‐induced nausea and vomiting in adults but has not been formally assessed in adolescents.
Pediatric Hematology and Oncology | 2015
S. Reed Plimpton; Nicholas V. Stence; Molly Hemenway; Todd C. Hankinson; Nicholas K. Foreman; Arthur K. Liu
Radiation necrosis is a well-described toxicity following radiation therapy in the brain. There is little data regarding the incidence of radiation necrosis in pediatric patients. We retrospectively reviewed our experience with 101 children with solid brain tumors. Radiation necrosis was diagnosed by examination of magnetic resonance imaging. Median follow-up for all patients was 13 months (range 3–51). Radiation necrosis occurred in 5% (5/101) of cases with a median time to onset of 1.2 months. In three of these children, the child was symptomatic, requiring management with steroids and bevacizumab. Radiation necrosis did not correlate with the administration of chemotherapy, age at treatment, or planning treatment volume. Our experience with pediatric patients treated with radiotherapy for solid brain tumor suggests that children may have an increased likelihood to develop radiation necrosis compared to adults.
Pediatric Blood & Cancer | 2016
Todd C. Hankinson; Mohana Rao Patibandla; Adam Green; Molly Hemenway; Nicholas K. Foreman; Michael H. Handler; Arthur K. Liu
Children with diffuse intrinsic pontine gliomas have very poor outcomes, with nearly all children dying from disease. Standard therapy includes 6 weeks of radiation. There have been descriptions of using a shortened course of radiation. We describe our experience with a hypofractionated radiotherapy approach delivered over five treatments. In seven children, hypofractionated radiotherapy was well tolerated, but symptomatic radiation necrosis was seen in three of the children. Overall survival was slightly shorter than previously described in the literature. We are developing a prospective dose‐finding protocol with the goal of tolerable short‐course radiation treatment with outcomes comparable to conventional radiation.
Pediatric Blood & Cancer | 2009
Lia Gore; Sant P. Chawla; Antonio Sérgio Petrelli; Molly Hemenway; Debra Schissel; Vickey Chua; Alexandra D. Carides; Arlene Taylor; Suzanne DeVandry; Jack Valentine; Judith K. Evans; Bettina Oxenius
To the Editor: While aprepitant has been studied for definite indications and chemotherapy regimens in adults, evidence in adolescents is limited. Therefore, we read with interest the article by Gore et al. [1], the first randomized, double-blind, placebocontrolled trial of aprepitant in adolescents receiving emetogenic chemotherapy. Though this study represents the strongest evidence to date supporting aprepitant use in adolescents, several limitations were noted. Patients were randomized 2:1 to triple therapy or control regimen, yet four additional patients received open-label aprepitant after randomization. While this is problematic, these patients were not included in the efficacy analysis. Also, it was not stated which chemotherapy agents were used in the trial. This could potentially confound the results, especially if the number of patients receiving highly emetogenic chemotherapy in each group was not similar. However, since the most common diagnosis was bone sarcoma, some patients were likely treated with 5-day regimens of ifosfamide and etoposide, both of which have possible drug interactions with aprepitant, potentially increasing the risk of febrile neutropenia. Though no rationale is provided in the article for evaluating febrile neutropenia, it is concerning that a trend favoring an increased incidence in the aprepitant group was observed. Although the authors attribute this to the small study sample, this trend should be interpreted cautiously due to the high potential for drug interactions and lack of evidence supporting aprepitant use for more than 3 days with extended chemotherapy regimens. Finally, no formal statistical analysis was performed. All calculated confidence intervals were for estimation purposes and there was no adjustment for covariates. Therefore, it is difficult to estimate the true efficacy of aprepitant in clinical practice. While there are some limitations to this study, it is consistent with previous evidence supporting aprepitant use in adolescents. Two previous cases have been reported [2]. One case described the resolution of significant nausea, vomiting, and poor oral intake post aprepitant in a 16-year-old female with osteosarcoma (receiving cisplatin, doxorubicin, and methotrexate) [2]. Similarly, there is a report of a 17-year-old male with relapsed metastatic alveolar rhabdomyosarcoma (receiving irinotecan) who had complete resolution of ondansetron-resistant nausea and vomiting post aprepitant [2]. Additionally, a subgroup analysis of six adolescents in the Aprepitant Protocol 052 Study [3] showed that all three patients treated in the aprepitant group had no emesis or rescue therapy use compared to two of three patients treated with standard therapy [2]. This study combined with previous pediatric evidence [2,3] shows that aprepitant is not yet an up-front option for adolescents receiving emetogenic chemotherapy. These results should be interpreted cautiously because it is not clear from this small study whether the benefit of preventing nausea and vomiting is worth the risk of febrile neutropenia. However, this study does provide some guidance in treating adolescents receiving previously intolerable highly emetogenic chemotherapy with previous failure of all other anti-emetic options because it suggests that aprepitant, in combination with dexamethasone and ondansetron, may be effective and used safely in this population.
Blood | 2006
Mattias Stelljes; Joachim Kienast; Björna Berning; Nicola Gökbuget; Dieter Hoelzer; Gerda Silling; Wolfgang E. Berdel; Gary V. Dahl; Debra Schissel; Molly Hemenway; Lia Gore
Neuro-oncology | 2016
Adam Green; Nicholas K. Foreman; Jean M. Mulcahy Levy; Jennifer R. Madden; Molly Hemenway; Rajeev Vibhakar; Kathleen Dorris
Neuro-oncology | 2014
Anand Kumar; Vasant Chinnabhandar; Arun Gupta; Aditya Kumar Gupta; Nita Radhakrishnan; Satya Prakash Yadav; Anupam Sachdeva; Jairam Sastry; Milind Ronghe; Dermot Murphy; Ali Hall; Jane Belmore; Karen Marshall; Anne Clarkin; Charlotte Castor; Caelyn Kaise; Sarah Bognar; Nicole Law; Eric Bouffet; Donald Mabbott; Molly Hemenway; Nicholas K. Foreman; Jennifer R. Madden; Sarah Rush; Tristen Dinkel
Neuro-oncology | 2018
Adam Green; Patrick Flannery; Todd C. Hankinson; Brent O’Neill; John DeSisto; Rakeb Lemma; Lindsey M. Hoffman; Jean M. Mulcahy Levy; Jennifer Raybin; Molly Hemenway; Carl Koschmann; Michael H. Handler; Nicholas K. Foreman; Rajeev Vibhakar; Michael F. Wempe; Kathleen Dorris
Journal of Pediatric Hematology Oncology | 2018
Ros Whelan; Benjamin Saccomano; Robert King; Kathleen Dorris; Molly Hemenway; Todd C. Hankinson; Arthur K. Liu
Neuro-oncology | 2016
Kathleen Dorris; Molly Hemenway; Adam Green; Jennifer R. Madden; Jean Mulcahy-Levy; Rajeev Vibhakar; Nicholas K. Foreman; Emily A. McCourt