Linda K Molnar

Alexandria, Virginia, United States Contact Info
3K followers 500+ connections

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About

Entrepreneurial Executive and Circular Economy proponent with expertise in leading…

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Experience & Education

  • National Science Foundation (NSF)

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Licenses & Certifications

Volunteer Experience

  • Stanford University School of Medicine Graphic

    Industry Advisor/ Reviewer

    Stanford University School of Medicine

    - 8 years

    Science and Technology

    Industry advisor for the SPARK translational research program. Participate in selection of projects and ongoing mentoring of awardees.

  • UCSF Graphic

    Industry Advisor

    UCSF

    - 5 years

    Science and Technology

    Industry advisor for their Catalyst translational program - part of Clinical Translation Sciences Institute (CTSI).

  • BayBio Graphic

    Reviewer and Mentor

    BayBio

    - 3 years

    Science and Technology

    BayBIO FAST (Fellows All-Star Team) program. The FAST Advisory Program provides select entrepreneurs with the intensive team review and coaching to perfect their business model, product development plans, and to build a compelling commercialization strategy.

  • UCSF Graphic

    Mentor

    UCSF

    - 4 years

    Education

    Mentor for their postdoctoral program.

  • Volunteer

    BAADS Bay Area Association of Disabled Sailors - South Beach Yacht Club

    - 4 years 9 months

    Social Services

    Provide disabled sailors with the opportunity to get out on the water

  • Singularity University Graphic

    Advisor, Mentor, Due Diligence Team

    Singularity University

    - 2 years 5 months

    Animal Welfare

    Mentor for GSP teams; Member of the Due Diligence Team for Singularity University Start-up Accelerator.

  • Stanford University Graphic

    Innovation Farm (iFarm) Teams Mentor

    Stanford University

    - 2 years 1 month

    Science and Technology

    Stanford Innovation Project, Stanford Office of Technology Licensing. Mentor for innovation farm teams program. Assess commercialization potential of Stanford inventions applied to a variety of industries.

  • Volunteer Instructor

    Expanding Your Horizons

    - Present 24 years 4 months

    Education

    Developed and taught an entrepreneurship course for young women based on Montessori-style teaching.

  • Mentor

    OneStart Global Lifes Sciences and Healthcare Accelerator

    - Present 8 years 11 months

    Education

    Mentor for OneStart companies.

  • Mentor, team member

    UCSF Center for Entrepreneurship

    - 4 years 4 months

    Education

    Mentor for first implementation of Lean Launch Pad for life sciences.

Publications

  • What Will It Take to Transform Healthcare to a System Focused on Prediction and Prevention

    The Bio Report with Daniel Levine

    The promise of precision health is to transform a healthcare system that is today based on treating sickness to harnessing a range of technologies to predict and prevent illness. Health 2.0’s Technology for Precision Health Summit in San Francisco October 24 will explore the state of precision health and what’s needed to make it a reality. We spoke to Linda Molnar, chair of the summit, about precision health, what gaps in the healthcare continuum need to be addressed to create a healthcare…

    The promise of precision health is to transform a healthcare system that is today based on treating sickness to harnessing a range of technologies to predict and prevent illness. Health 2.0’s Technology for Precision Health Summit in San Francisco October 24 will explore the state of precision health and what’s needed to make it a reality. We spoke to Linda Molnar, chair of the summit, about precision health, what gaps in the healthcare continuum need to be addressed to create a healthcare system geared toward prediction and prevention, and how companies will make a business out of this.

    See publication
  • April 2012 Burrill Report

    Burrill & Company

    Early-stage funding landscape

    Other authors
    • Burrill & Company Media Group
    See publication
  • Factors affecting the clearance and biodistribution of polymeric nanoparticles

    Mol. Pharm.

    Nanoparticle (NP) drug delivery systems (5-250 nm) have the potential to improve current disease therapies because of their ability to overcome multiple biological barriers and releasing a therapeutic load in the optimal dosage range. Rapid clearance of circulating nanoparticles during systemic delivery is a critical issue for these systems and has made it necessary to understand the factors affecting particle biodistribution and blood circulation half-life. In this review, we discuss the…

    Nanoparticle (NP) drug delivery systems (5-250 nm) have the potential to improve current disease therapies because of their ability to overcome multiple biological barriers and releasing a therapeutic load in the optimal dosage range. Rapid clearance of circulating nanoparticles during systemic delivery is a critical issue for these systems and has made it necessary to understand the factors affecting particle biodistribution and blood circulation half-life. In this review, we discuss the factors which can influence nanoparticle blood residence time and organ specific accumulation. These factors include interactions with biological barriers and tunable nanoparticle parameters, such as composition, size, core properties, surface modifications (pegylation and surface charge), and finally, targeting ligand functionalization. All these factors have been shown to substantially affect the biodistribution and blood circulation half-life of circulating nanoparticles by reducing the level of nonspecific uptake, delaying opsonization, and increasing the extent of tissue specific accumulation.

    See publication
  • Nanotechnology for Cancer Diagnostics: Promises and Challenges

    Expert Reviews, Future Science Group

    Despite recent progress in the treatment of cancer, the majority of cases are still diagnosed only after tumors have metastasized, leaving the patient with a grim prognosis. However, there may be an opportunity to drastically reduce the burden of cancer, if the disease can be detected early enough. Nanotechnology is in a unique position to transform cancer diagnostics and to produce a new generation of biosensors and medical imaging techniques with higher sensitivity and precision of…

    Despite recent progress in the treatment of cancer, the majority of cases are still diagnosed only after tumors have metastasized, leaving the patient with a grim prognosis. However, there may be an opportunity to drastically reduce the burden of cancer, if the disease can be detected early enough. Nanotechnology is in a unique position to transform cancer diagnostics and to produce a new generation of biosensors and medical imaging techniques with higher sensitivity and precision of recognition. This review examines the in vitro and in vivo diagnostic applications of nanoparticles, and other nanodevices that are likely to have an impact on the field in the future. Future developments that may lead to the realization of multifunctional detection and treatment nanoparticle platforms are also discussed.

    See publication
  • Characterization of Interface Structures and Morphologies of Heterogeneous Polymers: A Solid-State 1H NMR Study

    Macromolecules

    ABSTRACT: The solid-state NMR spin diffusion technique has been employed to study polymer morphologies with a unique emphasis on interface structures. The use of 1H detected experiments has been shown to provide high sensitivity for a fraction of the time needed to acquire the signal compared to the widely used 13C detection experiments of rigid and mobile polymer components. Twice as much interface thickness was obtained from 1H detected experiments as compared to 13C detected data for diblock…

    ABSTRACT: The solid-state NMR spin diffusion technique has been employed to study polymer morphologies with a unique emphasis on interface structures. The use of 1H detected experiments has been shown to provide high sensitivity for a fraction of the time needed to acquire the signal compared to the widely used 13C detection experiments of rigid and mobile polymer components. Twice as much interface thickness was obtained from 1H detected experiments as compared to 13C detected data for diblock polymers. A series of dipolar filter experiments are used to obtain a more accurate quantitative ratio of the rigid, interface, and mobile components of a binary polymer with limited or no long-range order. As a result, this approach is an excellent method for comparing similar composite materials for
    interface structures. This approach is not limited to regular morphologies, and no structural model is needed to interpret the data and obtain quantitative information. In addition, the nature of the interface gradient from the rigid phase to the mobile phase is uniquely studied by this approach.

    Other authors
    • Kebede Beshah

Languages

  • Hungarian

    Elementary proficiency

  • French

    Elementary proficiency

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