STUDY DESIGN: A retrospective study. PURPOSE: We report our experience with 5-aminolevulinic acid (5-ALA)–assisted resection of spinal cord ependymomas in adults. OVERVIEW OF LITERATURE: Ependymoma is the most frequent primary spinal cord tumor in adults. Surgery is the treatment of choice in most cases. However, while complete resection is achieved in approximately 80% of cases, clinical improvement is achieved in 15% only. Five-ALA fluorescence–guided surgery seems to be useful for this tumor type. METHODS: We studied 14 patients undergoing 5-ALA fluorescence-guided surgery for spinal cord ependymomas in our service. The modified McCormick classification was used to determine clinical status and the degree of resection was assessed with magnetic resonance imaging. RESULTS: Of the 14 patients, the tumor showed an intense emission of fluorescence in 12 and the fluorescence was weak and nonuniform in two. Complete resection was achieved in 11 cases. According to the McCormick classification, 10 patients improved, two remained the same, and two deteriorated. CONCLUSIONS: Our results confirm that 5-ALA fluorescence-guided resection is useful in spinal cord ependymoma resection. Although the rate of complete resections is similar to that in published series without 5-ALA, clinical results are better when using 5-ALA with a lower percentage of clinical deterioration.
Adult ; Aminolevulinic Acid ; Classification ; Ependymoma ; Fluorescence ; Humans ; Magnetic Resonance Imaging ; Retrospective Studies ; Spinal Cord Neoplasms ; Spinal Cord

Purpose: Patients with autism spectrum disorder (ASD) often present with sleep disturbances. We evaluated the effectiveness of pediatric prolonged-release melatonin (PedPRM) in real clinical practice, focusing on a population of complex neuropediatric patients with highly refractory insomnia in Spain. Methods: The patients were aged 2 to 18 years, diagnosed with ASD, had sleep maintenance insomnia and/or early morning awakening insomnia, and were refractory to prior therapy. The starting dose of PedPRM was 2 or 5 mg (increased to 10 mg, if necessary). Evaluation at 6 months consisted of a sleep diary, the Sleep Disturbance Scale for Children (SDSC), the Pediatric Daytime Sleepiness Scale (PDSS), and the Clinical Global Impression Scale of Improvement (CGI-I) and Severity (CGI-S). Results: The median age of the 23 patients was 11.0 years, 56.5% were male, 73.9% had epilepsy, and 78.3% had intellectual disability. One patient discontinued treatment. The mean total sleep time did not change significantly. PedPRM improved sleep latency (median 30.0 to 15.0 minutes; P=0.001) and reduced the number of nocturnal awakenings (median 3.00 to 1.0; P<0.001). PedPRM significantly improved PDSS scores (14.6±4.5 to 10.4±3.5; P<0.001) and SDSC total scores (75.1±12.9 to 61.6±10.9; P<0.001). The CGI-I scale improved in 73.3% of patients; 46.7% of patients were normal, borderline, or mildly ill per CGI-S scale at the end of treatment. Conclusion In real clinical practice, PedPRM significantly improved sleep parameters in patients with ASD who were heavily medicated for comorbidities and were highly refractory to other insomnia treatments.

Purpose: Patients with autism spectrum disorder (ASD) often present with sleep disturbances. We evaluated the effectiveness of pediatric prolonged-release melatonin (PedPRM) in real clinical practice, focusing on a population of complex neuropediatric patients with highly refractory insomnia in Spain. Methods: The patients were aged 2 to 18 years, diagnosed with ASD, had sleep maintenance insomnia and/or early morning awakening insomnia, and were refractory to prior therapy. The starting dose of PedPRM was 2 or 5 mg (increased to 10 mg, if necessary). Evaluation at 6 months consisted of a sleep diary, the Sleep Disturbance Scale for Children (SDSC), the Pediatric Daytime Sleepiness Scale (PDSS), and the Clinical Global Impression Scale of Improvement (CGI-I) and Severity (CGI-S). Results: The median age of the 23 patients was 11.0 years, 56.5% were male, 73.9% had epilepsy, and 78.3% had intellectual disability. One patient discontinued treatment. The mean total sleep time did not change significantly. PedPRM improved sleep latency (median 30.0 to 15.0 minutes; P=0.001) and reduced the number of nocturnal awakenings (median 3.00 to 1.0; P<0.001). PedPRM significantly improved PDSS scores (14.6±4.5 to 10.4±3.5; P<0.001) and SDSC total scores (75.1±12.9 to 61.6±10.9; P<0.001). The CGI-I scale improved in 73.3% of patients; 46.7% of patients were normal, borderline, or mildly ill per CGI-S scale at the end of treatment. Conclusion In real clinical practice, PedPRM significantly improved sleep parameters in patients with ASD who were heavily medicated for comorbidities and were highly refractory to other insomnia treatments.

Purpose: Patients with autism spectrum disorder (ASD) often present with sleep disturbances. We evaluated the effectiveness of pediatric prolonged-release melatonin (PedPRM) in real clinical practice, focusing on a population of complex neuropediatric patients with highly refractory insomnia in Spain. Methods: The patients were aged 2 to 18 years, diagnosed with ASD, had sleep maintenance insomnia and/or early morning awakening insomnia, and were refractory to prior therapy. The starting dose of PedPRM was 2 or 5 mg (increased to 10 mg, if necessary). Evaluation at 6 months consisted of a sleep diary, the Sleep Disturbance Scale for Children (SDSC), the Pediatric Daytime Sleepiness Scale (PDSS), and the Clinical Global Impression Scale of Improvement (CGI-I) and Severity (CGI-S). Results: The median age of the 23 patients was 11.0 years, 56.5% were male, 73.9% had epilepsy, and 78.3% had intellectual disability. One patient discontinued treatment. The mean total sleep time did not change significantly. PedPRM improved sleep latency (median 30.0 to 15.0 minutes; P=0.001) and reduced the number of nocturnal awakenings (median 3.00 to 1.0; P<0.001). PedPRM significantly improved PDSS scores (14.6±4.5 to 10.4±3.5; P<0.001) and SDSC total scores (75.1±12.9 to 61.6±10.9; P<0.001). The CGI-I scale improved in 73.3% of patients; 46.7% of patients were normal, borderline, or mildly ill per CGI-S scale at the end of treatment. Conclusion In real clinical practice, PedPRM significantly improved sleep parameters in patients with ASD who were heavily medicated for comorbidities and were highly refractory to other insomnia treatments.

Purpose: Patients with autism spectrum disorder (ASD) often present with sleep disturbances. We evaluated the effectiveness of pediatric prolonged-release melatonin (PedPRM) in real clinical practice, focusing on a population of complex neuropediatric patients with highly refractory insomnia in Spain. Methods: The patients were aged 2 to 18 years, diagnosed with ASD, had sleep maintenance insomnia and/or early morning awakening insomnia, and were refractory to prior therapy. The starting dose of PedPRM was 2 or 5 mg (increased to 10 mg, if necessary). Evaluation at 6 months consisted of a sleep diary, the Sleep Disturbance Scale for Children (SDSC), the Pediatric Daytime Sleepiness Scale (PDSS), and the Clinical Global Impression Scale of Improvement (CGI-I) and Severity (CGI-S). Results: The median age of the 23 patients was 11.0 years, 56.5% were male, 73.9% had epilepsy, and 78.3% had intellectual disability. One patient discontinued treatment. The mean total sleep time did not change significantly. PedPRM improved sleep latency (median 30.0 to 15.0 minutes; P=0.001) and reduced the number of nocturnal awakenings (median 3.00 to 1.0; P<0.001). PedPRM significantly improved PDSS scores (14.6±4.5 to 10.4±3.5; P<0.001) and SDSC total scores (75.1±12.9 to 61.6±10.9; P<0.001). The CGI-I scale improved in 73.3% of patients; 46.7% of patients were normal, borderline, or mildly ill per CGI-S scale at the end of treatment. Conclusion In real clinical practice, PedPRM significantly improved sleep parameters in patients with ASD who were heavily medicated for comorbidities and were highly refractory to other insomnia treatments.

Purpose: Patients with autism spectrum disorder (ASD) often present with sleep disturbances. We evaluated the effectiveness of pediatric prolonged-release melatonin (PedPRM) in real clinical practice, focusing on a population of complex neuropediatric patients with highly refractory insomnia in Spain. Methods: The patients were aged 2 to 18 years, diagnosed with ASD, had sleep maintenance insomnia and/or early morning awakening insomnia, and were refractory to prior therapy. The starting dose of PedPRM was 2 or 5 mg (increased to 10 mg, if necessary). Evaluation at 6 months consisted of a sleep diary, the Sleep Disturbance Scale for Children (SDSC), the Pediatric Daytime Sleepiness Scale (PDSS), and the Clinical Global Impression Scale of Improvement (CGI-I) and Severity (CGI-S). Results: The median age of the 23 patients was 11.0 years, 56.5% were male, 73.9% had epilepsy, and 78.3% had intellectual disability. One patient discontinued treatment. The mean total sleep time did not change significantly. PedPRM improved sleep latency (median 30.0 to 15.0 minutes; P=0.001) and reduced the number of nocturnal awakenings (median 3.00 to 1.0; P<0.001). PedPRM significantly improved PDSS scores (14.6±4.5 to 10.4±3.5; P<0.001) and SDSC total scores (75.1±12.9 to 61.6±10.9; P<0.001). The CGI-I scale improved in 73.3% of patients; 46.7% of patients were normal, borderline, or mildly ill per CGI-S scale at the end of treatment. Conclusion In real clinical practice, PedPRM significantly improved sleep parameters in patients with ASD who were heavily medicated for comorbidities and were highly refractory to other insomnia treatments.