DR. DAVID PROPST, D.O.

CENTERVILLE, OH

Research Active
Orthopaedic Surgery - Orthopaedic Surgery of the Spine NPI registered 21+ years 3 publications 2024 – 2025 NPI: 1871599357

Practice Location

2400 MIAMI VALLEY DR
CENTERVILLE, OH 45459-4774

Phone: (937) 312-1661

What does DAVID PROPST research?

Dr. Propst studies sarcopenia, a condition that leads to muscle weakness in older adults. Through a questionnaire called SARC-F, he evaluates how effectively healthcare providers can identify individuals who may be suffering from this condition. His research found that a lower score on this questionnaire significantly improves early detection, allowing for timely interventions to maintain muscle health. Additionally, he explores the properties of advanced materials like graphene, particularly how defects in these materials affect their flexibility and structure. This research can lead to innovative uses of graphene in medical devices and other technologies.

Key findings

  • In a study of 204 older adults, 12% were found to have probable sarcopenia, emphasizing the importance of early identification.
  • By adjusting the SARC-F score threshold from 4 to 2, the study improved the tool's sensitivity for detecting muscle weakness among older populations.
  • Graphene's stiffness decreased from 286 to 158 N/m when defects were introduced, challenging previous assumptions about the effects of such defects.

Frequently asked questions

Does Dr. Propst study sarcopenia?
Yes, Dr. Propst studies sarcopenia, focusing on how to identify it in older adults using the SARC-F questionnaire.
What treatments has Dr. Propst researched for muscle weakness?
While Dr. Propst primarily focuses on identification of sarcopenia, his work supports the development of strategies for early intervention in muscle weakness.
Is Dr. Propst's work relevant to older adults?
Yes, his research directly benefits older adults by improving how we detect and address muscle weakness.
What advanced materials does Dr. Propst research?
Dr. Propst studies graphene and hexagonal boron nitride, particularly how defects in these materials affect their properties.
How can Dr. Propst's research impact medical technology?
His findings on material properties could lead to advancements in medical devices and treatments by enhancing the performance of these materials.

Publications in plain English

Corrugation-Dominated Mechanical Softening of Defect-Engineered Graphene.

2025

Physical review letters

Joudi W, Windisch RS, Trentino A, Propst D, Madsen J +5 more

Plain English
Researchers studied how defects in a type of carbon material called graphene affect its flexibility. They found that introducing tiny gaps, or vacancies, into the graphene reduced its stiffness significantly from 286 to 158 N/m. This finding is important because it challenges previous beliefs about how much defects weaken graphene and can help improve the design of graphene-based materials for various applications. Who this helps: Patients and doctors seeking advanced materials for medical devices and treatments.

PubMed

Assessment of SARC-F Sensitivity for Probable Sarcopenia Among Community-Dwelling Older Adults: Cross-Sectional Questionnaire Study.

2025

JMIRx med

Propst D, Biscardi L, Dornemann T

Plain English
This study looked at the effectiveness of a simple questionnaire called SARC-F, which helps doctors find older adults who may have a condition called sarcopenia, characterized by low muscle strength. Researchers tested 204 people aged 65 and older and found that 12% had probable sarcopenia. They discovered that using a lower score of 2 instead of 4 on the SARC-F questionnaire improves its ability to identify those at risk, allowing for better early detection and treatment of muscle weakness. Who this helps: This helps older adults and their healthcare providers.

PubMed

Automated image acquisition and analysis of graphene and hexagonal boron nitride from pristine to highly defective and amorphous structures.

2024

Scientific reports

Propst D, Joudi W, Längle M, Madsen J, Kofler C +6 more

Plain English
This study looked at how defects are created in two types of materials: graphene and hexagonal boron nitride (hBN). Researchers found that as defects were introduced, graphene changed its structure significantly, forming different shapes, while hBN primarily showed empty spaces without much change in arrangement. This work is important because it helps improve the understanding of how these two materials behave when altered, which is crucial for their use in technology. Who this helps: This benefits researchers and manufacturers working with advanced materials.

PubMed

Frequent Co-Authors

Wael Joudi Jacob Madsen Toma Susi Clemens Mangler Jani Kotakoski Lauren Biscardi Tim Dornemann Rika Saskia Windisch Alberto Trentino Kimmo Mustonen

Physician data sourced from the NPPES NPI Registry . Publication data from PubMed . Plain-English summaries generated by AI. Not medical advice.