Medicine students make strong showing in annual Health Sciences Student Research Summit

Health Sciences Student Research SummitThe UMKC School of Medicine made a strong showing with 10 students among the winners in the 10th annual UMKC Health Sciences Student Research Summit. For the second year in a row, the event that takes place each May was held in a week-long virtual, online format.

Students from the schools of medicine, pharmacy and biological and chemical sciences shared their research with 20 PowerPoint and oral presentations and 31 poster presentation during the week. More than 50 students participated in this year’s event.

Caroline Olson won first place with her oral PowerPoint presentation in the graduate division for fifth- and sixth-year medical students, master’s degree and Pharm.D. students and medical residents. Sejla Turnadzic and Karina Shah tied for third place for poster presentations.

In the undergraduate division for first-year through fourth-year medicine and biological and chemical sciences students, Parth Patel and Rohan Ahuja tied for first place in poster presentations. Siddarth Balaji was the first-place winner for oral PowerPoint presentation. Anika Mittal place second and Ahuja was third in poster presentations. Josephine Nwanka and Anthony Le tied for second and Fahad Qureshi was third in oral PowerPoint presentations.

The summit promotes collaborations across disciplines and schools to produce economic, health, education and quality of life benefits for the Kansas City community in a forum that brings the UMKC health sciences community together to highlight student research.

A panel of judges from the School of Medicine, School of Pharmacy and Children’s Mercy Kansas City hospital selected the top three in each category.

2021 Health Sciences Student Research Summit

Graduate Clinical Poster Presentations

(BA/MD and MD Years 5 and 6 medical students, master’s students, Pharm.D. students and medical residents)

1st Place: Nitish R. Mishra, School of Pharmacy. Method Development of Stable Isotope-Labeled Marfey’s Reagent Derivatized Physiological Amino Acids Stereoisomers Using LCMS 9030 Q-ToF. Authors: Nitish R. Mishra, Amar Deep Sharma and William G. Gutheil. Mentor: William G. Gutheil

2nd Place: Jordan Frangello, School of Pharmacy. Impact of a Pharmacist-led Preventative Screening Intervention During Comprehensive Medication Reviews. Authors: Jordan Frangello, Yifei Liu and Chad Cadwell. Mentor: Yifei Liu

3rd Place Tie: Sejla Turnadzic, School of Medicine. Influence of Racial Disparities on Length of Stay in Hospital in Patients with Cerebral Venous Thrombosis. Authors: Leslie Shang, Sadhika Jagannathan, Sejla Turnadzic, Divya Jain, Monica Gaddis, Jean-Baptiste Le Pichon. Mentor: Jean-Baptiste Le Pichon

3rd Place Tie: Karina Shah, School of Medicine. The Impact of COVID-19 on the Clinical Component of the Surgical Clerkship. Authors: Karina Shah, Donya Jahandar, Christopher Veit, Jennifer Quaintance and Michael Moncure. Mentor: Michael Moncure

Graduate Oral PowerPoint Presentations

(BA/MD and MD Years 5 and 6 medical students, master’s students, Pharm.D. students and medical residents)

1st Place: Caroline Olson, School of Medicine. Systemic Fat Embolism-Induced Accumulation of Fat Droplets in the Rat Retina. Authors: Caroline G. Olson, Landon Rohowetz, M.D., and Peter Koulen, Ph.D. Mentor: Peter Koulen

2nd Place: Shelby Brown, School of Biological and Computer Sciences. Phase separation of both a plant virus movement protein and cellular factors support virus-host interactions. Authors: Shelby Brown and Jared May. Mentor: Jared May

3rd Place: Nitish R. Mishra, School of Pharmacy. Application of LCMS 9030 Q-ToF in Biomarkers Analysis for Pre-term vs. Term Delivery Patients. Authors: Nitish R. Mishra, Donald DeFranco, Paula Monaghan-Nichols and William G. Gutheil. Mentor: William G. Gutheil

Undergraduate Poster Presentations

(BA/MD and MD Years 1 to 4 medical students, School of Biological and Chemical Sciences students)

1st Place Tie: Parth Patel, School of Medicine. Predicting Recurrent Coarctation of the Aorta in Infants with Single Ventricle Heart Disease Using Home Monitoring Data. Authors: Parth S. Patel, Shil Shah, Keith Feldman, Lori A. Erickson, Amy Ricketts, Hayley Hancock and Ryan A. Romans. Mentor: Ryan Romans

1st Place Tie: Rohan Ahuja, School of Medicine. Intracellular calcium changes in intact mouse heart mediated by Fibroblast Growth Factor 23 – implications for chronic kidney disease. Authors: Rohan Ahuja, Shaan Patel, Nabeel Rasheed, Derek Wang, Julian A. Vallejo and Michael J. Wacker. Mentor: Michael Wacker

2nd Place: Anika Mittal, School of Medicine. Vascular Inflammation in the Brain Following Fat Emboli. Authors: Anika Mittal, Fahad Qureshi, Suban Burale, Neerupma Silswal, Alan Poisner, Agostino Molteni and Paula Monaghan Nichols. Mentor: Paula Monaghan Nichols

3rd Place: Rohan Ahuja, School of Medicine. Absence of Cardiac Immune Pathology in a Rat Model of Fat Embolism Syndrome. Authors: VanDillen A, VanDillen M, Hamidpour S, MateescuV, SilswalN, Wacker M, Patel S, Vallejo J, Ahuja R, Monaghan Nichols AP, SalzmanG, Poisner A, Molteni A. Mentor: Michael Wacker

Undergraduate Oral PowerPoint Presentations

(BA/MD and MD Years 1 to 4 Medical students, School of Biological and Chemical Sciences students)

1st Place: Siddharth Balaji, School of Medicine. Comparing Usage of FDA 510(k) and Premarket Approval Pathways within Orthopaedics to Other Specialties. Authors: Siddharth Balaji and Jonathan Dubin. Author: Jonathan Dubin

2nd Place Tie: Josephine Nwankwo, School of Medicine. Increasing Representation of Black Women in Orthopedics Starts with Medical Students. Authors: Josephine Nwankwo and Ali Khan. Mentor: Dr. Ali Khan

2nd Place Tie: Anthony Le, School of Medicine. Patient Perception of Paralysis-Inducing Spinal Cord Injury Through Twitter and Instagram. Avi Gajjar, Anthony Huy Dinh Le, Rachel C Jacobs and Nitin Agarwal. Mentor: Avi Gajjar

3rd Place: Fahad Qureshi, School of Medicine. Social Determinants for Explaining Disparities in COVID-19 Rates: A Population Analysis From 10 Large Metropolitan Areas. Authors: Aarya Ramprasad, Fahad Qureshi, Bridgette L. Jones and Brian R. Lee. Mentor: Bridgette Jones

Biological Mass Spectrometry and Proteomics Facility

Andrew Keightley, Ph.D.
Director, Biological Mass Spectrometry and Proteomics Facility
UMKC-SOM, Department of Ophthalmology

The UMKC Biological Mass Spectrometry (MS) and Proteomics Core Facility provides MS services for research faculty at UMKC and across the region, biotech/agritech, medical research labs. It also provides local business support and assistance with quality control and new product development.

As shown below, the facility can identify proteins from SDS-PAGE gels, or in solution. Complex samples such as total cellular protein, cell fractions, or affinity enriched samples can be digested to form peptidomes, then fractionated for mudpit if needed. Analysis of your small molecule products for Quality Control, or for validation/proof of synthesis or organic synthesis troubleshooting is also provided.

Accurate mass (~+/- 2ppm) can be used to verify composition (mass to formula), for unambiguous verification/validation in most cases, and also for detecting contaminants and unintended side reaction products for troubleshooting your synthesis.

Call or contact the core facility by email regarding questions or to discuss your project or analysis task.


High Resolution MS Analysis Services:

  • Protein Identification by LC tandem MS (SDS-PAGE gel bands, or samples submitted in solution)
  • Quantitative analysis/comparison of protein abundance between samples using isotopic methods (TMT) or label free quantitation (LFQ) with mudpit
  • Small molecules: mass measurement and verification of synthesis (mass to chemical formula, and MS/MS analysis)
  • Providing assistance with statistical analysis, Figures, Tables, Pathways/Gene Ontology Terms

Examples of whole proteome quantitative comparison of your samples:

  • Total Cellular Protein (mammalian, fungal, plant, bacterial, etc.)
  • Affinity purified samples (AP-MS)
  • Subcellular fractions (such as nuclear, mitochondrial, cytosolic fractions)


  • Thermo QExactive Plus HRMS, nanospray source
  • Two Eksigent nanoLC systems, for online nanoLC and for offline proteome/peptidome fractionation for mudpit
  • PAL-CTC 96well format fraction collection for offline fractionation (mudpit)

Proteomics Data Search and analysis, computational services:

  • Mascot Server (dual licensed nodes)
  • Proteome Discoverer
  • MaxQuant and Perseus

Sample Submission Guide / Sample Form / Fees

UMKC Vision Research Center receives NIH award to promote diversity in health-related research as part of ongoing glaucoma studies

The National Institutes of Health (NIH) has awarded the UMKC Vision Research Center a new $120,399 grant that promotes the training of researchers from diverse backgrounds as part of ongoing research projects to develop novel glaucoma therapies.

Funded through the NIH’s National Eye Institute (NEI), the new funding is part of a larger NIH initiative to enhance the diversity of the research workforce. It will aid in recruiting and supporting students, postdoctorates and eligible investigators from diverse backgrounds including those from racial and ethnic groups that have been shown to be underrepresented in health-related research.

“We are pleased to receive this support from the NIH,” said Peter Koulen, Ph.D., director of the Vision Research Center. “This funding is a substantial contribution to our mission to provide a more diverse workforce in biomedicine and the overall mission to discover new and improved treatments and therapies for vision health world-wide.”

The funding is part of Koulen’s NEI-supported program exploring novel therapeutic strategies to preserve the viability and function of the nerve cells of the retina affected by glaucoma. The research targets a novel mechanism of nerve cell protection utilizing intracellular calcium signaling as a drug target to treat degeneration of nerve cells in glaucoma.

“The new award is part of research that will allow us to generate data needed for the development of novel glaucoma drugs to complement existing therapies targeting abnormally high pressure in the eye,” Koulen said. Koulen and his team at the Vision Research Center received a $1.16 million NIH grant earlier this year to investigate a mechanism that allows nerve cells to communicate effectively and could lead to the development of such new treatments for glaucoma.

Glaucoma is a major cause of irreversible vision loss and blindness in the United States and worldwide. The disease causes degeneration of the retina and optic nerve, which connects the eye to the brain. Preventing such degeneration and the death of affected cells is currently the only feasible way to prevent vision loss due to glaucoma.

In the past year, Koulen has won two other major NIH research grants. His current study of new chemical compounds to treat and prevent age-related macular degeneration received a $1.16 million grant. He is also part of an innovative $1.5 million project exploring a novel tissue-preservation method that could help meet far-reaching clinical needs in ophthalmology and other fields of medicine

This glaucoma research will focus on alternative strategies directly targeting the damaging effects of the disease on the retina and optic nerve.

“Just like elevated blood pressure predisposes patients to stroke, high pressure inside the eye is a predisposing factor for glaucoma,” Koulen said. “There are currently several therapies available to patients to reduce abnormally high eye pressure, but when these therapies fail or cease to be effective, glaucoma and the accompanying vision loss continue to progress.”

Koulen’s project, including the new award to promote diversity in health-related research, will determine how to boost the cell-to-cell communication that retinal nerve cells use to defend themselves from disease and injury. The hope is this will protect these cells from the damaging effects of glaucoma.

If successful, Koulen’s research will result in new drug candidates that would contribute to “neuroprotection” as a strategy to treat and prevent glaucoma.

New therapies could potentially act in concert with current eye pressure lowering drugs. Other areas of medicine, such as cancer treatment, have effectively employed the concept of using complementary drug action in combination therapies.

UMKC vision researchers repurpose technology to identify early symptoms of multiple sclerosis

Changes in vision detected by microperimetry can be related to early signs of multiple sclerosis.

Technology used in eye exams called microperimetry could prove to be an effective, non-invasive method of identifying early symptoms of multiple sclerosis.

An article recently published by researchers at the UMKC School of Medicine Vision Research Center reports the effective use of microperimetry during routine clinical assessments of multiple sclerosis patients. The article appeared in the research journal BioMed Central Ophthalmology.

Multiple sclerosis is a disease of the brain and spinal cord that affects nearly 400,000 people in the United States and more than 2 million throughout the world. There is no known cure for the potentially disabling disease, but treatment can help manage symptoms and speed up recovery from attacks.

Therefore, a non-invasive, clinically relevant and cost-effective method of identifying damage early would be invaluable to patients and health care providers. It would enable prompt therapy that may slow the progression of the disease and its ocular manifestations before irreversible damage occurs.

The testing method studied by the team of UMKC researchers, students and residents, microperimetry, measures light sensitivity of the center of a patient’s vision and can detect specific areas of decreased sensitivity. It typically takes less than half an hour.

Researchers from the school’s Vision Research Center have previously found the technology to be effective in diagnosing early stages of other diseases of the nervous system such as mild cognitive impairment in Alzheimer’s.

The vision research team of Landon J. Rohowetz, Qui Vu, Lilit Ablabutyan, Sean M. Gratton, Nancy Kunjukunju, Billi S. Wallace and Peter Koulen collaborated to determine subtle changes in visual function related to otherwise undetectable signs of multiple sclerosis. It is the first peer-reviewed study to assess the use of microperimetry, a straightforward and non-invasive vision test, as a tool to detect disease progression in early stage multiple sclerosis patients.

“The findings from this study provide a rationale for the use of microperimetry in the clinical assessment of patients with multiple sclerosis,” said Rohowetz, the study’s lead author. “By identifying visual dysfunction associated with multiple sclerosis, we hope physicians and researchers are able to use this technology to ultimately preserve and improve quality of life for patients with this often-disabling disease.”

More than 80 percent of the patients with multiple sclerosis show signs of impaired vision and 73 percent of MS patients experience visual impairment within the first 10 years of diagnosis, which is comparable to the prevalence of abnormal or impaired muscle function in the disease.

This initial study indicates that light sensitivity measured by microperimetry is lower among multiple sclerosis patients who have otherwise normal vision and no other history of issues with the optic nerve, which connects the eye to the brain. It also revealed a significant correlation between this impaired function and a reduced thickness of the retina in MS patients that is not seen in control subjects.

The report says further studies would look to monitor and evaluate ongoing changes in retina sensitivity and thickness as they correlate to a progression of multiple sclerosis. It will also broaden the approach to include MS patients who have a history of optic neuritis, where measurable damage to the optic nerve has already occurred.

New Discoveries & Developments


  • In collaboration with organic chemists, we discovered a new promising approach to treat the inflammatory component of glaucoma. This could help us generate new glaucoma drugs complementary to existing therapies and protecting the vision of patients more effectively.
  • One new compound with the potential to become a novel drug for diabetic retinopathy by protecting the nerve cells in the eye.
  • A medical device for patients with diabetes that would allow the physician to assess the risk for diabetic retinopathy, and would allow the patient to continuously monitor the disease’s progress and therapy success through a simple blood test requiring only a finger prick blood sample.
  • Two new potential drugs to treat the dry form of AMD , one new potential drug to treat diabetic retinopathy caused by Type 1 diabetes and two new potential drugs to treat glaucoma are in advanced stages of development.
  • Two new drug delivery approaches for established wet AMD drugs that would eliminate the need for frequent injections in the eye.
  • A medical device for AMD patients and those with occlusion of their retinal blood vessels which could ultimately eliminate lengthy, invasive procedures.
  • A new drug delivery approach for established glaucoma drugs that would eliminate the need for daily eye drops– specifically, we are looking to turn glaucoma drugs into a slow release version administered only a few times per year.
  • A medical device that will reduce the pressure in the eye of patients for which conventional glaucoma drug treatment failed and surgery is the only option.

Leadership & Faculty

Nelson Sabates, M.D.

Professor, Department Chair, President of the Vision Research Foundation, President and CEO - Sabates Eye Centers, P.C.
Department(s) of Ophthalmology
Vision Research Center

Specialties and Research/Medical Interests

Retina and Vitreous

Sabates, Nelson
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Peter Koulen, Ph.D., FARVO

Professor, Felix and Carmen Sabates / Missouri Endowed Chair in Vision Research, Director of Basic Research, Vision Research Center
Department(s) of Biomedical Sciences, Ophthalmology
Section: Neurosciences
Vision Research Center Koulen, Peter
Koulen, Peter
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Vision Research Center at UMKC


Nelson R. Sabates, MD

Vice-Chairman Clinical Services
David B. Lyon, MD

Director of Basic Research
Peter Koulen, PhD,
Felix and Carmen Sabates Missouri Endowed Chair

Residency Program
Matthew Sniegowski, MD, Program Director
Katie J. Macaluso, MD, Associate Program Director

Comprehensive Ophthalmology
Komal K. Desai, MD
Mahendra K. Rupani, MD
Timothy A. Walline, MD

Katie J. Macaluso, MD

Rohit Krishna, MD
Kevin P. Pikey, DO

Sean Gratton, MD

Ocular Oncology
Komal K. Desai, MD

Ocular Pathology
Mahendra K. Rupani, MD

Oculoplastics & Orbital Surgery
David B. Lyon, MD
Matthew C. Sniegowski, MD

Pediatric Ophthalmology
Michelle Ariss, MD
Denise Hug, MD
Scott Atkinson, MD
Laura S. Plummer, MD
Erin Stahl, MD
Justin Marsh, MD
Timothy Hug, OD

Refractive Surgery
Katie Macaluso, MD
Timothy A. Walline, MD

Retina & Vitreous
Felix N. Sabates, MD
Nelson R. Sabates, MD
Abraham K. Poulose, MD
Michael A. Cassell, MD

Contact Lens & Low Vision
Ramona Baumfalk, OD

Vision Research Center
Nelson R. Sabates, MD, Director
Peter Koulen, PhD, Director of Basic Research, Endowed Chair
Simon H. Friedman, PhD
William G. Gutheil, PhD
Thomas P. Johnston, PhD
Chi H. Lee, PhD
Mridul Mukherji, D Phil
Dhananjay Pal, PhD
Ting Xie, PhD


Glaucoma affects over four million people in the United States. It is the most common cause of vision loss in persons of African-American descent and a leading cause of blindness in the U.S. In the U.S. and other developed countries, rates of glaucoma are rising as the population ages. Glaucoma damages the eye’s optic nerve. It usually happens when the fluid pressure inside the eyes slowly rises, damaging the optic nerve. Often there are no symptoms at first, but a comprehensive eye exam can detect it. More effective long-term treatment options are needed.

The Malette Family – Making A Difference

Triplet and her sisters raise money and awareness

Seventeen-year-old Emily Mallette is a typical teen-ager. She worries about what to wear. She studies hard. She wonders where she’ll go to college and what she’ll be when she grows up.

Mallettes“It’s fun to think about the possibilities,” said the straight-A student, a junior at Lee’s Summit North High School.

Medical research is the reason those possibilities exist for Emily. State-of-the-art glaucoma treatments through Sabates Eye Centers and the Vision Research Center at the University of Missouri-Kansas City, part of the School of Medicine’s Department of Ophthalmology, have preserved her limited and fragile eyesight.

Emily’s life was always atypical, even before her diagnosis. By only seconds, Emily was born the oldest of triplets. Three identical girls.

“Second happiest day of my life,” said Jodi Mallette, the girls’ mother and principal of Highland Park Elementary School in Lee’s Summit. “The first being when their older brother was born.”

Jodi did not undergo fertility treatments and started calling her daughters miracles when she discovered she was pregnant with triplets. She snaps photos of her smiling girls growing up in birth order: Emily, Morgan, Abigail.

The triplets were 8 when Jodi found out Emily failed her vision test at a school health fair. She had started holding books closer to her eyes.

“We’ll get you some cute purple eyeglasses – your favorite color,” Jodi told her daughter. Jodi had started wearing glasses in third grade, so it didn’t seem like any big deal.

But Emily’s diagnosis was much different than they imagined.

“Doctors told us she probably would be blind in five years,” Jodi said. “They said our lives, going forward, would be all about glaucoma.”

Glaucoma results in optic nerve damage caused by abnormally high but painless pressure inside the eye. The condition is a leading cause of blindness in the U.S. About 2.2 million Americans have glaucoma but only half know they have it. Everyone from birth through their senior years is at risk for glaucoma but some more than others. People older than 60 are six times more likely to get glaucoma. And glaucoma is six to eight times more common in African Americans than Caucasians. Because nearly one out of every four Jackson County residents is African American, the population is at higher risk for glaucoma than most other parts of Missouri and many other areas in the U.S.

There is no cure — yet — for glaucoma and vision lost cannot be regained. With medication and/or surgery, it is possible to halt further loss of vision. That’s why Emily’s family advocates that people regularly get their eyes tested.

Nelson Sabates, professor and chair of the UMKC Department of Ophthalmology and founder of its Vision Research Center, and his team of researchers are working to find better treatments and potential cures for eye diseases.

“There is an urgent need to accelerate the research in order to stop the adverse effects of eye diseases like glaucoma,” Sabates said. “At the Vision Research Center, we wish to enhance the ability of eye disease treatment and altogether remove blinding eye diseases as a threat to our quality of life. With a significant number of individuals in Jackson County suffering from glaucoma and other priority eye diseases of the Vision Research Center – like age-related macular degeneration and diabetic retinopathy – novel developments of the center could benefit thousands of individuals in our community and millions worldwide.”

Childhood glaucoma is rare; about one of every 10,000 babies born have the condition. Signs include unusually large eyes with cloudiness and excessive tears as well as light sensitivity. But sometimes there aren’t apparent symptoms. Glaucoma can damage vision so gradually that you might not notice any vision loss until the disease is at an advanced stage. That’s what happened to Emily. They don’t know the cause.

Emily underwent eight surgeries, missing out on swimming during summers because she had to be careful to avoid an eye infection. She began learning braille, but to master it, she’d have to learn blindfolded.

“To give up her sight, even temporarily, in case she might lose her sight just didn’t seem like an option,” Jodi said. “Waking up and being completely blind is her worst fear.”

Jodi watches Emily in awe. She makes great grades by working harder than her peers, leaving her tired. What takes Morgan and Abigail 90 minutes to read takes Emily four hours.

Emily has 20/400 vision in one eye that detects only light and shadows, and 20/50 in the other, although it’s a narrow field of vision.

For the past three years, Emily’s eyesight has remained the same. She credits advances in research like the glaucoma tube shunts she has that reduce inner eye pressure and the damage it causes to the optic nerves by draining excess fluid. She uses eye drops.

She also credits her doctor, Rohit Krishna, of the Vision Research Center at UMKC and Sabates Eye Centers. Specializing in the diagnosis and management of glaucoma, including the use of tube shunts like Emily’s, Krishna keeps the family informed about the latest in technology and research.

“There have been important advancements made in the treatment of glaucoma over the last decade, including new surgical techniques, laser interventions and medications,” Krishna said. “On the horizon are several promising potential therapies, including medications that provide protection to the cells that are typically destroyed by inner-eye pressure associated with glaucoma. In the future, gene therapy may be useful in preventing the condition in patients with a genetic propensity for conditions that can lead to glaucoma. The discovery of biomarkers for glaucoma may lead to a simple blood test that could predict the risk of a patient developing the condition.”

Under development at the Vision Research Center at UMKC are potential drugs that target cells affected by the disease and replace absent growth factors that support the health of the retina—the part of the eye that is used to see clearly. In addition, Vision Research Center researchers are developing a new drug-delivery approach for established glaucoma drugs that would eliminate the need for daily eye drops. They also are testing a promising approach to treat the inflammatory component of glaucoma.

So grateful for the vision she does have, Emily and her sisters created an organization to raise money for glaucoma research. “Never Lose Sight” is printed on T-shirts and green bracelets. The sisters also launched a “Never Lose Sight” Facebook page that has information about glaucoma and Emily’s journey.

“It’s cool that something we care about and launched at a little sleepover has taken off,” Morgan said.

“This cause is bigger than just our family,” Abigail said.

The results so far: a $1,000 check delivered to Krishna for glaucoma research at UMKC.

And a future full of hope for Emily and other glaucoma patients across the community.

Click here for more information.

Donate Today


The Vision Research Foundation (VRF) is the fund development arm of for the UMKC Department of Ophthalmology and the Vision Research Center. The VRF exists to help generate financial support to fund vision research at the UMKC School of Medicine. Currently, research is underway to find meaningful cures and new treatment options for diseases of the eye, most specifically, age-related macular degeneration, glaucoma and diabetic retinopathy.

To donate now, click here.

To learn more or to inquire about giving opportunities for the Vision Research Foundation at the UMKC School of Medicine, contact Kirk Baughan, Interim Director of Development for Health Sciences, at UMKC Foundation: 816-235-6328 or

Diabetic Retinopathy

Over four million individuals in the United States have Diabetic Retinopathy, the country’s leading cause of adult blindness. The numbers are increasing rapidly due to an increase in the incidence of both Type I (sometimes called “Juvenile Diabetes”) and Type II Diabetes. Effective, long-term treatment options are not available. Diabetic retinopathy happens when the disease damages the tiny blood vessels inside the retina. Early symptoms are often gradual and unnoticed.

“VRC saved my vision.”

As a diabetic, Paul Tonga was no stranger to the eye doctor. He was diligent about his eye care. He came to the Vision Research Center after being referred by Truman Medical Center-Lakewood where he had cataract surgery. Following the surgery, his eyesight had improved. But, one eye was still quite weak. At the Vision Research Center, the physicians used an experimental treatment with lasers to treat his eye. “The treatment helped a lot. I believe it saved my vision. Because of it, I have maintained my independence and enjoy all the daily activities that were in danger of being lost.” Mr. Tonga adds, “I recommend the community gives to the Vision Research Foundation. It will go to a very important cause. Vision is one of the most important assets we have and its loss threatens millions of people. The Vision Research Center is committed to eliminating this threat. They have helped me greatly.”

Click here for additional information.