The lab is fully equipped to perform experiments in microbiology and molecular biology
One chemical fume hood
Freezers: two -20 C and one -80 C
Refrigerators: 2
Static and orbital shaking incubators
Electroporator: 2
Electrophoresis (gel running) equipment
Microcentrifuges
Gradient PCR thermal cyclers
Spectrophotometer
Qubit Fluorometer: to estimate DNA and RNA concentrations)
Heat blocks
All other minor items or equipment needed to perform the experimental work.
Nikon Ti2E Inverted Microscope (with Cage Enclosure), which is a fully automated microscope, coupled to a Dial-A-Wave
Dial-A-Wave (DAW) consisting of fast speed rotary motors (NEMA-23 Bipolar 50 mm Stepper Motor) capable of sub-millimeter water pressure steps.
The DAW allows precisely controlled signals to be uniformly dispersed among the colonies present on a microfluidic chip.
The motors physically adjust the input reservoirs’ height and thereby modulate their hydrostatic pressures.
The linear actuators are controlled with custom Java software, and a calibration routine automatically maps their physical positions to input mixing ratios on-chip.
The entire system is highly automated and robust, and capable of generating independent dynamic environments with minimal user input.
Multi-detection Fluorescence Plate Reader
Our facility includes two OMEGA Series microplate reader from BMG LABTECH.
This plate reader allows us to measure several fluorescent proteins in living cells.
The system is capable of measuring fluorescence and time-resolved fluorescence from the bottom or top of a microplate, measuring up to eight fluorescence filter pairs in a single measurement, collecting absorbance spectral measurements with 1 nm resolution in less than 1 s per well, detecting luminescence signal with less than a 0.2 s duration, and accepting optics to detect simultaneous dual emission from two fluorescence or luminescence emission channels in a single measurement event.
We have filters that allow us to measure GFP, YFP, CFP, and mCherry, and we have four additional filter positions open if other fluorescent measurements are required.
The plate reader can shake incubating plates and keep them at a constant temperature (up to 65 C).
We have developed custom python scripts to quickly analyze the large amount of data produced from microplate reader experiments.
Houses different equipment for microfabrication
Photonic Professional GT2 from Nanoscribe
This 3D printer was purchased in 2020, is ultra-precise, prints in high resolution from 0.16 micron (about 625 times smaller than a human hair) to millimeter scales, and allows for rapid microfabrication.
Includes other equipment for microfabrication (e.g. fume hood, resins, etc.)
Dr. Nicholas C. Butzin is the managing director of 3MSF.
Pictures and details to come
We are well-equipped both for standard and high-performance computing
All data is backed up onto individual external hard drives (current capacity is >120 TB) or cloud services .
Each graduate student, postdoc, and PI (Butzin) will possess updated personal computers
We currently have over 15 computers or laptops for personnel with either MacOS, Microsoft Windows, or Linux.
Two high-performance workstation
1. HP Z840 Workstation X9V07UA) contains
two 12-core processors (Intel® Xeon® E5 2600 v4 processor; Intel® Xeon® E5 2600 v3 processor),
1 TB SSD for the boot drive and home directories
192 GB RAM
12 TB storage.
-Total: 16 cores and 44 threads
This is an exceptionally powerful coprocessor for parallel simulation and image analysis.
2. Dell Precision 5820 Tower
Intel Xeon Processor W-2295 (18C, 3.0GHz 4.8GHz Turbo HT 24.75MB (165W) DDR4-2933)
256 GB RAM
12 TB storage
18 Cores
36 Threads
Pictures and details to come
Disclaimer: This is website is maintained by Dr. Nicholas C. Butzin. Information presented here does not represent official views or opinions of South Dakota State University or any other association that Dr. Butzin is connected with.