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Cornell University

Menopause Health Engineering

Unraveling the science of menopause

Research

Focus Areas

We bring together experts from different fields to provide an integrated, interdisciplinary and wholistic perspective in the following focus areas:

Brain

Cognitive function in neurodegenerative diseases such as Alzheimer’s disease is modulated by blood flow, hormones and menopausal status. Sex differences in drug effects can be accelerated by menopause.

Bone

Osteoporosis accelerates after menopause, but the mechanism is still not well understood. Mechanical engineering and biology come together to investigate how bones relate to whole-body health.

Muscle

Muscle strength and growth are modulated by aging and hormones. Big data approaches and stem cell engineering approaches provide new insights.

Heart

Heart disease is the leading cause of death. Novel imaging approaches provide a first look at cardiac cells and blood flow inside the muscle of the beating heart.

Cancer

Research using tissue engineering and traditional models explores breast cancer’s spread to bone, informing women’s hormone therapy choices that balance cancer risk and bone health.

Reproductive and urinary health

Development of cutting-edge, in vitro, tissue engineered models with revolutionize studies of uterine and urinary tract health.

Illustration depicts a silhouette of the female human body, highlighting the various systems--brain, breast, bone & cartilage, reproductive system, muscle, and heart-- relevant to Cornell's menopause health engineering initiative.

Innovative Methods & Technologies

We’re developing and applying innovative models and cutting-edge tools to advance women’s health research.

The iDISCO technique makes an entire mouse brain transparent, allowing scientists to label and visualize specific proteins with fluorescent markers. Using this method, we can create 3D reconstructions of the whole brain and zoom into precise regions, such as the cerebral cortex, to track cellular activity. In this experiment, iDISCO was used to label cFos, a protein that signals when neurons are active, providing powerful insights into how brain circuits function in health and disease. Source: Marongiu lab.

Research image of a cross-section of a perfusable uterine microvascular channel on-chip.
Cross-section of a perfusable uterine microvascular channel on-chip, developed to understand fibroblast markers.
Orange, yellow, and green colors light up as image rotates
This short gif from the Lewis Lab shows the end of a tiny mouse toe bone that was made transparent so it could be imaged in 3D. The green and red lines mark two different types of nerve fibers inside the bone. Researchers used special software to trace these nerves, helping reveal how the nervous system connects with the skeleton.

Engineered tissues and organoids

Tissue engineering and stem cell technologies can reproduce the complex structure of human organs.

Blood vessels infiltrating mineral-containing bone scaffolds in chick chorioallantoic membrane (CAM) assay. 
Blood vessels infiltrating mineral-containing bone scaffolds in chick chorioallantoic membrane (CAM) assay. 

Imaging

Multiphoton (two- and three-photon) microscopy was invented at Cornell in the 1990s. It now enables studies of cells behavior in the living animal.

Adipose stromal cell spheroid invading into collagen.
An adipose stromal cell spheroid invading into collagen.

Animal models of perimenopause and menopause

 
Improved models that include a perimenopause period enable studies of memory and cognition.

Histology of an ovary from a mouse study on blood flow in the brain that includes models of menopause.
Histology of an ovary from a mouse study on blood flow in the brain that includes models of menopause.

Biomechanics

The mechanical properties of tissues and health are intricately  related. In addition to bone and muscle performance, diseases like cancer react to stiffness.

Nerve fibers, labeled by CHaT driven expression of GCaMP, are shown with bright green fluorescent signal and osteocytes andblood vessels are shown with fluorescent red signal (labeled by RGD-functionalized nanoparticles from the Wiesner Group). These in vivo images highlight direct connections between nerves and osteocytes in bone.

Multiomics

Single cell, molecular, and network analysis approaches combine to provide quantitative tools for biomedical insights.  

Combined transcriptomic and epigenomic analysis of mouse ovarian aging with single-cell resolution identifies dysregulation underlying ovarian insufficiency.
Combined transcriptomic and epigenomic analysis of mouse ovarian aging with single-cell resolution identifies dysregulation underlying ovarian insufficiency.