How can fertility counseling be implemented for every newly diagnosed pediatric patient facing gonadotoxic treatment?-A single-center experience.

Since the survival rates of pediatric patients undergoing cancer treatment or hematopoietic stem cell transplantation (HSCT) have increased rapidly in recent decades, the late effects of treatment are now an important focus of patient care. Access to fertility preservation (FP) procedures as well as their financing differs considerably across Europe. However, some countries in Europe have recently changed the legal basis for financing FP procedures; therefore, the implementation of structures is mandatory to give patients access to FP. In this prospective cohort study, we characterized the process for establishing pediatric fertility counseling, including the development of an in-house standard procedure for recommendations regarding FP with potentially gonadotoxic treatment and valuating data from all FP counseling sessions. All data concerning patient characteristics (pubertal status, disease group) and recommendation of FP measures were prospectively collected and adoption of FP measures analyzed. Prior to the establishment of a structured process for FP in our pediatric oncology and stem cell transplantation center, there was no standardized FP counseling. We demonstrate that with the establishment of an inhouse standard procedure, it is possible to give consistent yet individualized FP counseling to approximately 90% of our patients facing gonadotoxic treatment, counseling over 200 patients between 2017 and 2019. This pilot study could potentially be adapted in other pediatric hematology, oncology, and stem cell transplantation centers to allow a more standardized handling of FP counseling for all patients facing gonadotoxic treatment.

Costs and cost-effectiveness of allogeneic stem cell transplantation in children are predictable.

The overall costs of pediatric stem cell transplantation (SCT), including donor search and costs during the first year post-SCT, were calculated in a cohort of 141 consecutive children undergoing SCT in a single institution. Costs were correlated with patient and transplantation characteristics and with a risk score for transplantation-related mortality. Cost-effectiveness was calculated based on the overall cost per surviving patient. Life-years gained were extrapolated from overall survival, and the costs per expected life-year gained were calculated. The overall median cost was €136,382 (175,815$), with a wide range, of €26,897 (34,679$) to €601,348 (775,343$). Increased costs were significantly associated with age, use of donors other than matched siblings, and advanced disease. There was a strong correlation of costs with a simple transplantation-related mortality risk score; median total costs were €89,550 (115,463$) for a score of 0, €127,349 (164,179$) for a score of 1, €156,578 (201,861$) for a score of 2, and €274,915 (354,499$) for a score of 3 (P < .001). Cost-effectiveness decreased with increasing transplantation-related mortality risk score; costs per survivor increased from €93,209 (120,200$) for a score of 0 to a maximum of €1,216,348 (1,568,579$) for a score of 3. Costs associated with pediatric SCT vary substantially; however, the combination of variables such as age, disease, and donor type is predictive of costs and cost-effectiveness. Costs per life-year gained are within the broadly accepted range in life-threatening hemato-oncologic diseases, even in the most cost-intensive patient cohort.