This proposal seeks acquisition of shared-use multi-functional, high-frequency specimen grinder, Planetary Ball
Mill model PM200 with cell disruptor capability, for research in biomedical field. Biomedical research often needs
utilization of mechanical forces to promote reactions, process plant materials, or disrupt cells. Many methods of
processing raw plant materials and cell disruption are time consuming and use chemical compounds which
contaminate specimens. In contrast, the proposed instrument offers very efficient, time-effective, chemicals-free
specimen grinding and cell lysis. The proposed instrument and its accessories feature the most advanced, state-
of-the-art technology of size reduction, sample disruption and mixing by utilizing the Coriolis forces, the complex
interactions between frictional and impact forces. As a result, an extremely high degree of specimen size
reduction is achieved in a very short time, with final crystal sizes below one micrometer.
The broad, long-term objectives of the research with the proposed instrument cover the current and future
biomedical research needs of the Department of Chemistry and Department of Biology at Morgan State
University (MSU). The three main research avenues where this instrumentation will be very useful are: a)
mechano-chemical synthesis of formulations for delayed release of synthetic antimetabolite drugs; b) extraction
of phytochemicals with anti-cancer properties from plant material; c) disruption of cells for biochemistry and cell
biology research. This instrumentation proposal will outfit Morgan State University with a state-of-the-art, multi-
functional, universal shared-use scientific equipment, which will be highly beneficial to faculty and students
pursuing biomedical research in areas of interest to NIH.
One of the most important aspects of MSU, a Historically Black College and University (HBCU), is the training
of students in advanced areas of biomedical research. This instrument will support the operation of current and
future major university- and school-wide programs in biomedical research and will contribute to building the
research capacity of this institution. This instrumentation will significantly help in current efforts to achieve the
major goal of MSU of obtaining a Carnegie R1 “very high research” classification in the next 10 years. Acquisition
of this instrument will significantly benefit research by many faculty groups in STEM departments, enhance the
capacity of MSU as an HBCU to participate in NIH funded research, and allow new collaborations.
In summary, this shared-use multi-functional, high-frequency universal mechanical specimen grinder with
cell disruptor capability will significantly help STEM departments of MSU conduct biomedical research and
publish papers, initiate and conduct collaborations with on- and off-campus users, educate students through
biomedical research, and seek NIH funding.