Abstract: Systems and methods enable fully automated tissue processing using tissue processing components for producing tissue sections from a tissue sample block and to transfer the tissue sections to slides. A control device queries a Laboratory Information Management System (LIMS) with a sample identifier associated with the tissue sample block and receives tissue sample data from the LIMS. The control device generates tissue processing workflow parameters based on the tissue sample data for each tissue processing component to perform an automated tissue processing workflow. The control device automatically controls each tissue processing component according to the tissue processing workflow parameters to process the tissue sample block. The control device generates a block processing update message while the tissue sample block is processed and communicates the block processing update message to the LIMS to enable the LIMS to track the automated tissue processing workflow for the tissue sample block.

Abstract: Systems and methods for determining a Material's (“MTL”) mechanical properties. The methods comprise: coupling a first end of MTL to a First Mechanical Mechanism (“FMM”) movable in a First Direction (“FD”) and coupling a second end of MTL to a Second Mechanical Mechanism (“SMM”) movable in a Second Direction (“SD”); applying a first Pulling Force (“PF”) to MTL; applying an Oscillating Force (“OF”) to MTL; applying a second PF to MTL so as to cause any undulations in MTL to be removed and to cause a loading of fibers or polymeric units that support MTL; allowing MTL to oscillate through a series of cycles of loading and unloading; measuring a strain/stress on MTL as a function of time; determining a natural frequency of MTL based on the strain/stress; and determining an elastic modulus of MTL using the natural frequency.

Abstract: Systems and methods for determining a Material's (“MTL”) mechanical properties. The methods comprise: coupling a first end of MTL to a First Mechanical Mechanism (“FMM”) movable in a First Direction (“FD”) and coupling a second end of MTL to a Second Mechanical Mechanism (“SMM”) movable in a Second Direction (“SD”); applying a first Pulling Force (“PF”) to MTL; applying an Oscillating Force (“OF”) to MTL; applying a second PF to MTL so as to cause any undulations in MTL to be removed and to cause a loading of fibers or polymeric units that support MTL; allowing MTL to oscillate through a series of cycles of loading and unloading; measuring a strain/stress on MTL as a function of time; determining a natural frequency of MTL based on the strain/stress; and determining an elastic modulus of MTL using the natural frequency.