Katherine Pfeiffer

Title: Katherine Pfeiffer - Innovator in Polynucleotide Processing

Introduction

Katherine Pfeiffer is a prominent inventor based in Berkeley, CA, known for her significant contributions to the field of biotechnology. With a remarkable portfolio of 30 patents, her work focuses primarily on the development of innovative systems and methods in polynucleotide processing.

Latest Patents

Katherines recent inventions include groundbreaking patents such as Hybrid/capture probe designs for full-length cDNA and Methods and systems for processing polynucleotides. The first patent pertains to systems and methods for identifying and utilizing hybrid/capture probes, enabling the acquisition of cDNA sequences from poly-adenylated mRNA. This innovative approach allows the mapping of cDNA sequences to genes and reference genome portions, enhancing the precision in transcript characterization.

Her second patent details compositions and methods for polynucleotide processing that serve a variety of applications, including analyte characterization by polynucleotide sequencing. These inventions emphasize the use of barcoded oligonucleotides and labeling agents, providing advanced tools for the characterization of analytes such as proteins, genomic DNA, and RNA.

Career Highlights

Katherine Pfeiffer has built her career at 10x Genomics, Inc., a leading name in the biotechnology sector. Her role in the company showcases her dedication to advancing biotechnological practices and improving sequencing processes.

Collaborations

Throughout her career, Katherine has collaborated with notable colleagues, including Tarjei Sigurd Mikkelsen and Andrew D Price. These collaborations reflect her commitment to innovation and her ability to work effectively within teams to push the boundaries of biotechnological research.

Conclusion

Katherine Pfeiffers contributions to biotechnology through her patents and collaborative work position her as a key player in the field. Her innovative methods and systems not only advance scientific understanding but also pave the way for future developments in polynucleotide processing.