Abstract: The present invention relates to a CO2 incubator device and a cloud system connecting the CO2 incubator device with a cloud server. The device includes a plurality of removable incubation unit trays wherein each tray acts as a separate incubator and individual bioreactor. The device includes an inlet valve and an outlet valve for each tray for inflow and outflow of CO2 gas. A microprocessor is coupled to a microcontroller for controlling temperature and CO2 level in the trays based on excess CO2 level present in the trays. A cloud server is connected to the device using a communication protocol for enabling the microprocessor to transmit incubator data to the server and to modify the incubation conditions. The data is stored in a cloud database for enabling users to remotely access the incubator data. The multiple trays are accessed independently enabling multiple users to interact with the incubator.

Abstract: This disclosure describes a MRI-compatible bioreactor that allows a biological sample to be imaged in culture without disrupting or compromising the culture.

Abstract: This disclosure describes a MRI-compatible bioreactor that allows a biological sample to be imaged in culture without disrupting or compromising the culture.

Abstract: In an aspect the invention is a method of preparing a cell or tissue implant for insertion into a patient in need of treatment by obtaining a transplantable cell population, culturing the cell population in a culture media and exposing the cell population to a sonic or ultrasonic stimulation, wherein the stimulation provides a capability for an enhanced implant outcome parameter. The method provides enhanced autologous bone implant procedures by reducing the time required for a patient's own cells to sufficiently undergo osteogenesis, thereby reducing the waiting time for an autologous bone implant. The extent of osteogenesis is optionally monitored non-invasively by magnetic resonance spectroscopy.