Under the leadership of Damodaran Achary, the NMR Facility has undergone a remarkable transformation, evolving from a small, outdated lab to a state-of-the-art facility. His vision, coupled with a series of strategic initiatives and upgrades, has significantly enhanced the facility's capabilities and impact on research. Here are some key milestones in this transformative journey.
From Humble Beginnings to State-of-the-Art: The NMR Facility's Remarkable Journey
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2024
I was successful in securing funding for the purchase of a 400 MHz Broadband probe.
With a limited budget, I worked with Quad Systems to achieve good specs and have the probe installed. -
2023
I leveraged my connections and successfully acquired a used 300 MHz autotune NMR probe and an autosampler as donation, enhancing our facility's capabilities and saving the department substantial funds.
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2022
Successful in securing funding for a Samplecase Plus autosampler for the 500 MHz spectrometer. This 60-sample changer has enabled high-throughput analysis.
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2021
Completed a challenging project: connecting all nine NMR magnets to a helium recovery system to conserve this vital, non-renewable resource.
This involved comprehensive planning, design, and testing of back pressure regulators, bypass valves, and low-pressure relief valves. -
2020
Acquired an unused 400 MHz AV-III HD spectrometer from third party for the undergraduate lab at almost half the cost of a new system.
Proud to build and grow the NMR facility to this stage from humble beginnings 15 years ago! -
2019
I successfully upgraded computer hardware and software on all 300, 400, and 500 MHz spectrometers and processing stations, significantly enhancing performance and user experience.
Implemented separate SSDs for operating systems and HDDs for data storage to ensure faster operation.
These self-directed upgrades saved tens of thousands of dollars in service contract fees. -
2018
I was successful in securing funds for a new 300 MHz BBFO probe, replacing a 25-year-old probe and enabling increased capabilities and throughput. My proposal was selected from an internal competition for small equipment funds.
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2017
I redesigned and reorganized the 700 MHz lab to accommodate the 500WB spectrometer from another lab, freeing up valuable space. Worked with Bruker to move the 500WB smoothly.
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2016
Implemented Sparse/Non-Uniform Sampling (NUS) through software, hardware, and firmware upgrades on the 500 MHz spectrometer, significantly accelerating 2D NMR experiments (4-8 times faster).
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2015
The 700 MHz magnet experienced a slow self-quench. This is the second instance, the first occurring in 2009. I worked with Bruker to get it back to field.
Maintaining a large, state-of-the-art high field NMR facility is no easy task! -
2014
Acquired a new autosampler, high-resolution shim stack, and BBO (H/F) probe for the 500WB spectrometer (funded as part of my DOE grant).
The autosampler significantly increased throughput, while the BBO probe provided unique 13C and 19F decoupling capabilities. -
2013
I oversaw the successful relocation of the NMR facility (including 300, 400A, 400B, 500, and 600 MHz spectrometers) to a new, dedicated space (CSC 450) named the CIC.
I competed for a $100,000 instrumentation fund from the US-DOE/NETL and was awarded based on my ongoing research projects with them. -
2012
I assumed responsibility for maintaining and operating the 500 MHz Wide Bore Solid-State NMR spectrometer after the departure of a solid state NMR faculty member.
This expanded the NMR facility to eight spectrometers. -
2011
My next goal was to improve efficiency. To achieve this, two autosamplers for the 300 and 400 models were purchased to maximize throughput. The autosamplers became very popular among users as they greatly simplified data collection.
I also successfully secured funding for a new Smart Probe (BBFO-Plus) for the 600 MHz spectrometer, now the standard probe for observing a wide range of nuclei. -
2010
Our grant for the major NMR upgrade gets funded.
I oversaw the installation of two new 400 MHz and one 500 MHz Avance-III spectrometers, a new 300 MHz magnet, and an Avance-III console for the 600 MHz spectrometer, significantly enhancing facility capabilities. -
2009
Collaborated with colleagues to secure a $1 million grant proposal for a major NMR upgrade, including replacing old magnets and consoles with modern Avance-III systems.
Worked with faculty members and administrators to secure additional funds to fully support my major NMR upgrade plan. -
2008
Worked with Bruker to install a new 700 MHz NMR spectrometer and upgraded a DPX300 console to Avance-III.
Worked extensively with Pitt facilities to develop a new 700 lab space that includes specific details from the magnet's sitting area to plumbing for all utilities. -
2007
Spearheaded the planning and purchase of a new 700 MHz AV-III spectrometer through an NIH grant led by Prof. Dennis Curran.
Hired Ms. Sage Bowser as the new NMR assistant -
2006
Secured a $100,000 budget to modernize the NMR facility, focusing on:
Acquired and installed a used 300 MHz magnet to revitalize one of the DPX300 spectrometers, the magnet for which had quenched before my arrival.
Updated all spectrometers for improved user experience. This involved:(a) Upgrading the INDY/O2 IRIX workstations to Window XP (b) Transitioning from XWINNMR to Topspin and (c) Both of the above required upgrade of several boards on the NMR console. Most importantly, I did this entire upgrade in-house, saving tens of thousands of dollars.
An NMR assistant position ws created and Dr. Macduff Okuom is hired. -
2005
Damodaran Krishnan Achary takes over as Director of the NMR facility.
At this time, the NMR facility consisted primarily of aging (15-20 years old) unshielded Oxford magnets with DRX/DPX consoles, running XWINNMR software on INDY and O2 SGI computers with IRIX operating system. Equipment included a DRX600, DRX500, three DPX300s, and one unusable DPX300 lacking a magnet (quenched the previous year).
Beyond fulfilling my regular job responsibilities, I view volunteering my time and skills for outreach activities is a way of giving back to the community. Some of my contributions are highlighted here.
Research at an undergraduate level provides students an opportunity to better understand some of the concepts or phenomena that are taught in their classrooms. More importantly, it gives them the experience and confidence to jump-start their careers as researchers.
I have been promoting undergraduate research by volunteering to serve as an advisor for undergraduate students. As a mentor, I created research opportunities and provided training for undergraduate students. Here are some of their projects.
Allen Potter
Research Project: Solution NMR investigation of the self-association of an antilipemic agent.

David Newhouse
Research Project: Multi-nuclear solid state NMR studies of ionic solids.

Ben A. Barnhart
Research Project: Investigating electronic versus ionic conductivity of Lithium salts in viscous media.
Creating research opportunities for high school students promote an effective transition of High School Students to College and most importantly it helps kick start their interest in scientific research. I have designed research projects that would be challenging as well as achievable by a high school student.
Vishmayaa Saravanan's project involves measuring the temperature dependence of the self-diffusion coefficients of cations and anions in neat ionic liquids using Pulsed Field Gradient (PFG) NMR spectroscopy. Hands-on research training experiences like these help create a passion for a scientific research career.
Please see an honorable mention of Vishmayaa Saravanan in our Pitt Magazine (Page 45 – Summer 2015)For many years, I have provided essential NMR support to researchers at local universities and companies, including Duquesne, Chatham, Carnegie Mellon, Edinboro, Slippery Rock, and Pitt-Johnstown. My services encompass instrument operation, software support, and technical troubleshooting.
Motivation: NMR spectroscopy is a powerful analytical technique with widespread applications in various scientific fields. However, many researchers, especially analytical scientists, may lack the necessary expertise to fully leverage the potential of NMR. To address this gap and promote the effective use of NMR, outreach workshops and courses play a crucial role.
NMR outreach workshops and courses are essential for filling knowledge gaps, empowering researchers, advancing science, supporting education, and providing continuing education opportunities. Sharing expertise and fostering a vibrant NMR community contribute to scientific progress and innovation.
Some of my talks, and workshops that I organized/taught:
2025: Invited talk (online) Federal University of Pernambuco, Brazil
2025: Taught Solid State NMR short course at PITTCON 2025, Boston, MA
2024: Taught NMR short course at Eastern Analytical Symposium, Princeton, NJ
2024: Taught Solid State NMR short course at PITTCON 2024, San Diego, CA
2024: Taught NMR short course at PITTCON 2024, San Diego, CA
2023: Taught NMR short course at PITTCON Online Short Courses
2023: Taught NMR short course at PITTCON 2023, Philadelphia, PA
2022: Taught NMR short course at Eastern Analytical Symposium, Princeton, NJ
2021: Taught NMR short course at PITTCON 2021, online
2020: Taught NMR short course at PITTCON 2020, Chicago
2019: Taught NMR short course at North Central College, Naperville, IL
2019: Taught NMR short course at PITTCON 2019, Philadelphia
2019: Hosted and taught at Small Molecules NMR Workshop, Pittsburgh
2019: Taught NMR short course at Eastern Analytical Symposium, Princeton, NJ
2018: Co-organized the 3rd Gateway NMR Conference at University of Pittsburgh
2018: Hosted and Taught at Small Molecules NMR Workshop, Pittsburgh
2018: Taught NMR short course at Eastern Analytical Symposium, Princeton, NJ
2018: Invited talk at Liquid Ion Solutions, Pittsburgh, PA
2018: Taught NMR short course at US Pharmacopeia, Rockville, MD
2017: Taught NMR short course at US Pharmacopeia, Rockville, MD
2016: Conducted Outreach NMR workshop at University of Pittsburgh for users from small regional universities.
2016: Invited talk (Title: Building a World Class NMR Facility) at Penn State University, State College, PA
2015: Taught at the NMR Workshop at Penn State University, State College, PA
2013: Taught at the NMR Workshop at Penn State University, State College, PA
NMR Spectroscopy is an exceptionally powerful analytical tool that has found applications in inter-disciplinary areas of science. Beyond routine characterization, vast array of advanced NMR techniques provide deep insights into structure and dynamics of materials.
We provide solution and solid state NMR routine and consulting services to industries. Please see below for our instrumentation and capabilities.
These solution NMR spectrometers are capable of running 1H, 13C, 19F, 31P and other multi-nuclear experiments.
Multitude of 2D NMR experiments (including COSY, NOESY, ROESY, TOCSY, HETCOR, HSQC, HMBC) at all these fields are available.
All of these spectrometers are capable of variable temperature experiments. (100 to -100 C)
Capable of routine 1H-13C CP-MAS and other multi-nuclear NMR experiments.Spinning speeds upto 20kHz.
Variable temperature NMR experiments (100 to -100 C)