RESUMEN
Sex chromosome aneuploidies (SCAs) are among the most common chromosomal conditions. There is little scholarship on how adolescents and young adults (AYAs) affected by SCA engage with and adapt to their diagnosis. In order to understand how AYAs adapt to a SCA diagnosis, we conducted a secondary analysis of qualitative interviews with AYAs. Eight in-depth semi-structured interviews with individuals with a diagnosis of 47,XXY, 47,XXX, and 48,XXYY were analyzed for iterative themes related to adaptation to a SCA diagnosis in accordance with standard qualitative methodology. Our findings suggest that the process of adaptation is highly variable and complex and is mediated by external factors including diagnosis delivery and community support. Factors associated with adaptation include feeling understood and supported by healthcare providers; researching the condition; receiving hormone replacement therapy; and receiving support from a community of peers. As access to prenatal and pediatric genetic testing continues to expand, non-genetic pediatric providers are increasingly likely to interact with individuals with SCAs as part of their initial diagnostic odyssey or ongoing medical management. Understanding the diversity of lived experiences of AYAs with SCAs is helpful for healthcare providers to facilitate holistic care and provide meaningful support to patients.
RESUMEN
Sex chromosome multisomies (SCMs) are genomic conditions with variable phenotypes that range from undetectable to requiring extensive clinical intervention. Currently, many individuals with SCMs are diagnosed in adolescence or adulthood based on physical symptoms related to pubertal development and infertility. Given the expansion of genetic testing in routine clinical practice, the diagnosing clinician is increasingly a primary care or family medicine provider. This study aims to help providers better understand the patient experience of receiving a diagnosis. We conducted a survey of individuals (n = 55) with SCMs using closed and open-ended questions. Open-response questions were qualitatively analyzed and are reported here with the descriptive results of the closed-ended questions. Most participants were diagnosed with 47,XXY (n = 51; 85.0%), identified as White race/ethnicity (n = 46; 88.5%), and were college graduates or higher (n = 29; 54.7%). Many participants reported dissatisfaction with the delivery of the diagnosis, expressing that it was rushed and their provider lacked detailed information about the condition. Participants were frustrated by the general lack of availability of high-quality informational resources from both medical and other sources at the time of diagnosis. Some participants also described the social and psychological impact of the diagnosis and how it was delivered. To the best of our knowledge, this is the largest survey of individuals diagnosed with SCMs, which is notable considering their prevalence and low diagnostic rate. Our findings provide patient-informed insight on how to improve the delivery of SCM diagnoses, especially delivery in a primary care setting, including the provision of up-to-date information and proactive referral to specialty care and counseling services.
RESUMEN
ß-Adrenergic signaling can regulate macrophage involvement in several diseases and often produces anti-inflammatory properties in macrophages, which are similar to M2 properties in a dichotomous M1 vs. M2 macrophage taxonomy. However, it is not clear that ß-adrenergic-stimulated macrophages may be classified strictly as M2. In this in vitro study, we utilized recently published criteria and transcriptome-wide bioinformatics methods to map the relative polarity of murine ß-adrenergic-stimulated macrophages within a wider M1-M2 spectrum. Results show that ß-adrenergic-stimulated macrophages did not fit entirely into any one pre-defined category of the M1-M2 spectrum but did express genes that are representative of some M2 side categories. Moreover, transcript origin analysis of genome-wide transcriptional profiles located ß-adrenergic-stimulated macrophages firmly on the M2 side of the M1-M2 spectrum and found active suppression of M1 side gene transcripts. The signal transduction pathways involved were mapped through blocking experiments and bioinformatics analysis of transcription factor binding motifs. M2-promoting effects were mediated specifically through ß2-adrenergic receptors and were associated with CREB, C/EBPß, and ATF transcription factor pathways but not with established M1-M2 STAT pathways. Thus, ß-adrenergic-signaling induces a macrophage transcriptome that locates on the M2 side of the M1-M2 spectrum but likely accomplishes this effect through a signaling pathway that is atypical for M2-spectrum macrophages.