The Bioanalysis Core specializes in developing and validating robust liquid chromatography/tandem mass spectrometry methods for the analysis of natural products, drugs, and metabolites in various biological samples (blood, DBS, plasma, urine and tissue). The core has extensive experience in method development and validation. Despite the analytical complexity, it approaches every compound with creativity, innovation, and years of scientific knowledge, allowing core personnel to uncover solutions to complex bioanalytical challenges.
The Bioanalysis Core performs method validations, partial validations, cross-matrix validations, or combination of them required to meet project needs. Validation studies are performed in accordance with the US FDA Guidance for Industry, Bioanalytical Method Validation. The core has developed assays for investigational and marketed drugs used for pain, oncology, cardiology and infectious diseases. These assays are typically used to support pediatric drug discovery and development.
The Center for Applied Genomics Core
The Center for Applied Genomics Core has an experienced team of researchers analyzing the immense amount of data generated from our high-throughput facility, with expertise in carrying out large scale NGS, GWAS, CNV, and methylation studies. Currently at CAG, there are 50 active disease projects, both internal and collaborative. CAG is collaborating with investigators at The Children's Hospital of Philadelphia, the University of Pennsylvania, as well as with international investigators from Croatia, United Kingdom, Denmark and Canada, making their genotyping an international endeavor.
Research Viral Vector
The Research Viral Vector Core: As part of The Center for Cellular and Molecular Therapeutics, the Research Vector Core (RVC) has expanded its capacity to provide infrastructure support for investigators interested in using viral vectors in their research model systems.
Clinical Viral Vector
The Clinical Vector Core utilizes a patented vector production technology and a highly efficient purification process that utilizes combined column and gradient centrifugation-based process steps. This system has manufactured clinical grade AAV vectors that have demonstrated excellent safety in several clinical studies.
Human Pluripotent Stem Cell Core
The human embryonic stem cell/induced pluripotent Stem Cell (hESC/iPSC) Core generates control and patient-specific iPSC lines by cellular reprogramming using current technologies. The core has a training course in cell maintenance and growth, specialized differentiation protocols for disease modeling and drug screening, and quality-control reagents for the Children’s Hospital and University of Pennsylvania academic communities. The facility maintains five NIH-approved human ESC lines and has generated more than 60 disease-specific iPSC lines.
The Healthcare Analytics Unit (HAU) serves as a resource for Hospital investigators using administrative data to address research questions by providing expertise in analysis data creation, statistical programming, advanced analysis, study design, and sample size calculation. The HAU is a core service unit of two centers in the CHOP Research Institute – the Center for Pediatric Clinical Effectiveness (CPCE) and PolicyLab. CPCE performs clinical epidemiology, health services, and community-based research to elucidate the best practices in the diagnosis, prognosis, and management of pediatric disease. PolicyLab researchers are methodological experts in the disciplines of epidemiology, health services research, program evaluation, and ethics.
CIRP Driving Simulator
Housed within the Center for Injury Research and Prevention (CIRP) at The Children’s Hospital of Philadelphia Research Institute, the Driving Simulator Core is dedicated to understanding driving behaviors and performance to help improve the safety and health of children, adolescents, and young adults through qualitative and quantitative research. The Driving Simulator Core at CIRP provides the technical and administrative support for conducting simulator-based observational studies.
We offer a high-fidelity, fixed-base driving simulator with a rich audio and visual environment for conducting research that features:
- a three-channel open cockpit configuration with a driver’s seat
- an integrated advanced, lightweight eye-tracking system
- a video-based data visualization program for processing simulator data
- specialty programming to analyze eye-tracking data
We also offer a one-channel, desktop version with a game control console that also features eye-tracking capabilities. Both driving simulators feature customizable programming to replicate controlled scenarios typical in the driving environment, such as dynamic traffic behaviors, pedestrians, distractions, time of day, and weather to fit the needs of researchers.
CIRP researchers are using the driving simulator to help improve the assessment of driving skills, to better understand how drivers’ behaviors and emotions can affect driving performance, and to develop predictive algorithms to increase driving skills. Another recent study is using the driving simulator to evaluate web-interventions and curriculum for parent-supervised practice driving for teens. For more information on Teen Driver Safety Research conducted at CIRP, visit teendriversource.org.