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  1. H3F3A K36M-mutant Epithelioid Neoplasm: A Report of Two Novel Cases of a Non-chondrogenic H3K36-altered Mesenchymal Tumor
  2. Surgical Practices in the Management of Pediatric Renal Tumors in Low‐ and Middle‐Income Countries in the Asia Pacific Region
  3. Introduction
  4. Skeletal Muscle Tumours
  5. Desmoplastic Small Round Cell Tumour
  6. Inter-Ethnic Variations in the Clinical, Pathological, and Molecular Characteristics of Wilms Tumor
  7. Childhood cancer surgery in low‐ and middle‐income countries
  8. Abstract P61: Distinct Roles of BRD4 Isoforms in Tumor Progression and Metastasis in Embryonal Rhabdomyosarcoma
  9. Systematic Lymphatic Repair for Reduction of Postoperative Lymphatic Leak Following Neuroblastoma Resection
  10. BRD4 isoforms have distinct roles in tumour progression and metastasis in rhabdomyosarcoma
  11. Data from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  12. Data from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  13. FIGURE 1 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  14. FIGURE 1 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  15. FIGURE 2 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  16. FIGURE 2 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  17. FIGURE 3 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  18. FIGURE 3 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  19. FIGURE 4 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  20. FIGURE 4 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  21. FIGURE 5 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  22. FIGURE 5 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  23. Figure S1 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  24. Figure S1 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  25. Figure S2 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  26. Figure S2 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  27. Figure S3 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  28. Figure S3 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  29. Figure S4 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  30. Figure S4 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  31. Figure S5 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  32. Figure S5 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  33. Figure S6 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  34. Figure S6 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  35. Figure S7 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  36. Figure S7 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  37. Supplementary Data - raw Western blot images from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  38. Supplementary Data - raw Western blot images from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  39. Supplementary Data 1 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  40. Supplementary Data 1 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  41. Supplementary Data 2 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  42. Supplementary Data 2 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  43. Supplementary Data 3 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  44. Supplementary Data 3 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  45. Supplementary Methods from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  46. Supplementary Methods from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  47. Table S1 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  48. Table S1 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  49. Table S2 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  50. Table S2 from Targeted Degradation of XIAP is Sufficient and Specific to Induce Apoptosis in MYCN-overexpressing High-risk Neuroblastoma
  51. Targeted degradation of XIAP is sufficient and specific to induce apoptosis in MYCN-overexpressing high-risk neuroblastoma
  52. Exploiting frequent and specific expression of PRL3 in pediatric solid tumors for first-in-child use of PRL3-zumab humanized antibody
  53. Solitary pulmonary nodule in an early adolescent
  54. #299 Alveolar soft part sarcoma of the cervix mimicking a cervical fibroid: a diagnostic and management challenge
  55. BRD4 isoforms have distinct roles in tumor progression and metastasis in embryonal rhabdomyosarcoma
  56. Aggressive Pursuit of No Evidence of Disease Status in Hepatoblastoma Improves Survival: An Observational Study
  57. Targeting RNA Polymerase I Transcription Activity in Osteosarcoma: Pre-Clinical Molecular and Animal Treatment Studies
  58. Implementation of Multidisciplinary Teams for the Treatment of Childhood Cancer
  59. Mitochondrial calcium uptake regulates tumour progression in embryonal rhabdomyosarcoma
  60. Impact of treatment refusal and abandonment on survival outcomes in pediatric osteosarcoma in Southeast Asia: A multicenter study
  61. Postoperative Rather Than Preoperative Neutropenia Is Associated With Early Catheter-related Bloodstream Infections in Newly Diagnosed Pediatric Cancer Patients
  62. Subcutaneous panniculitis‐like T‐cell lymphomas with homozygous inheritance of HAVCR2 mutations in Vietnamese pedigrees
  63. Gastrointestinal and oncologic outcomes of pediatric gastrointestinal lymphoma following upfront resection or biopsy of bowel masses
  64. Rhabdomyosarcoma
  65. Pediatric Solid Tumor Care and Multidisciplinary Tumor Boards in Low- and Middle-Income Countries in Southeast Asia
  66. Neuroblastoma patient‐derived cultures are enriched for a mesenchymal gene signature and reflect individual drug response
  67. Massively parallel single-molecule telomere length measurement with digital real-time PCR
  68. Larotrectinib followed by selitrectinib in a novel DCTN1–NTRK1 fusion undifferentiated pleomorphic sarcoma
  69. Rhabdomyosarcoma
  70. Posterior retroperitoneoscopic adrenalectomy for pediatric adrenal tumors
  71. Destined to Die: Apoptosis and Pediatric Cancers
  72. Retroperitoneal tumors and congenital variations in vascular anatomy of retroperitoneal great vessels
  73. Evaluation of a Novel Bony Landmark-Based Method for Teaching Percutaneous Insertion of Subclavian Venous Catheters in Pediatric Patients
  74. Primary Adrenal Angiomatoid Fibrous Histiocytoma With Novel EWSR1-ATF1 Gene Fusion Exon–Exon Breakpoint
  75. Combinatorial screening using orthotopic patient derived xenograft-expanded early phase cultures of osteosarcoma identify novel therapeutic drug combinations
  76. Soft Tissue Sarcomas
  77. Clinical, pathological and loss of heterozygosity differences in Wilms tumors between Asian and non-Asian children
  78. Clinical relevance of screening checklists for detecting cancer predisposition syndromes in Asian childhood tumours
  79. Clear cell sarcomas of the kidney are characterised by BCOR gene abnormalities, including exon 15 internal tandem duplications and BCOR-CCNB3 gene fusion
  80. Clinical management of pheochromocytoma and paraganglioma in Singapore: missed opportunities for genetic testing
  81. Operative and Immediate Postoperative Differences Between Traditional Multiport and Reduced Port Laparoscopic Total Splenectomy in Pediatric Patients
  82. Management of a Kaposiform haemangioendothelioma of the kidney with Kasabach-Meritt phenomenon without chemotherapy
  83. Re: External validation of the Paediatric Risk of Malignancy Index
  84. Initial diagnostic management of pediatric bone tumors
  85. XAF1 promotes neuroblastoma tumor suppression and is required for KIF1Bβ-mediated apoptosis
  86. Thyroglossal duct cyst carcinoma: diagnostic and management considerations in a 15-year-old with a large submental mass
  87. Novel Karyotypes and Cyclin D1 Immunoreactivity in Clear Cell Sarcoma of the Kidney
  88. Systematic Screening Identifies Dual PI3K and mTOR Inhibition as a Conserved Therapeutic Vulnerability in Osteosarcoma
  89. Long-term physiologic and oncologic outcomes of inferior vena cava thrombosis in pediatric malignant abdominal tumors
  90. Safety and diagnostic accuracy of tumor biopsies in children with cancer
  91. An Approach to Renal Masses in Pediatrics
  92. Influence of bony resection margins and surgicopathological factors on outcomes in limb-sparing surgery for extremity osteosarcoma
  93. Targeting the DNA Repair Pathway in Ewing Sarcoma
  94. The Role of Thoracoscopic Surgery in Pediatric Oncology
  95. Minimally invasive surgery in the management of abdominal tumors in children
  96. Management of Local Recurrence of Pediatric Osteosarcoma Following Limb-Sparing Surgery
  97. Diagnostic accuracy of preoperative alpha-fetoprotein as an ovarian tumor marker in children and adolescents: not as good as we thought?
  98. Dissecting the PI3K Signaling Axis in Pediatric Solid Tumors: Novel Targets for Clinical Integration
  99. Pediatric risk of malignancy index for preoperative evaluation of childhood ovarian tumors
  100. Diagnostic delay in pediatric solid tumors: A population based study on determinants and impact on outcomes
  101. Corrigenda
  102. Gene Expression of TRK Neurotrophin Receptors in Advanced Neuroblastomas in Singapore—A Pilot Study
  103. Neonatal Ovarian Cysts: Role of Sonography in Diagnosing Torsion
  104. Delays in Diagnosis of Pediatric Solid Tumors in Singapore
  105. Port-A-Cath insertions in acute leukemia: does thrombocytopenia affect morbidity?
  106. Port-A-Cath Insertions in Acute Leukaemia and Childhood Malignancies
  107. Neonatal intestinal volvulus due to a persistent right vitelline artery