WIST (New Hampshire Women in Science, Technology, Engineering and Math)

05/27/2026

Interesting graphic about % of state populations with a Bachelors degree or higher. NH is above average along with all of New England.

Here is a short, engaging Facebook caption along with an in-depth, detailed analysis (around 1,000 words) tailored for a US audience, highlighting the trends, economic impacts, and regional shifts in American higher education.

​Facebook Pos
​🎓 Which US states have the highest rcentage of college grads?

​From coast to coast, the educational landscape of America is shifting! While the national average for adults (25+) with a Bachelor’s degree or higher sits at 34.94%, some states are absolutely soaring past the 40% mark, while others are facing unique regional challenges.
​Check out this freshly updated, high-contrast map to see where your state ranks! Are you living in an education hotspot? Let us know in the comments below! 👇

​Detailed Analysis: Mapping Higher Education Across the United States
​Introduction

​Higher education has long been considered a cornerstone of the American Dream, serving as a primary driver of socioeconomic mobility, innovation, and regional economic health. Recent data from the 5-year American Community Survey (ACS) estimates reveals a fascinating and deeply nuanced picture of educational attainment across the United States. Nationwide, 34.94% of adults aged 25 and older hold a Bachelor’s degree or higher. However, this national average masks sharp geographic, economic, and cultural disparities between different states and regions.
​By analyzing the distribution of college graduates, we can gain valuable insights into regional labor markets, the centralization of knowledge economies, and the evolving demographics of the American workforce. From the highly dense, tech- and finance-driven corridors of the Northeast to the rural, industrial, and agricultural landscapes of the South and Midwest, the "degree gap" highlights the complex challenges and opportunities facing the nation today.
​The Powerhouses of Higher Education: Top Performers
​When looking at the top-performing regions, the Northeast and select pockets of the West and Mid-Atlantic stand out as major hubs for higher education.
​1. The District of Columbia (63.6%)

​While technically a federal district and not a state, Washington D.C. leads the nation by a massive margin. Over 63% of its adult population holds at least a Bachelor's degree. This hyper-concentration is driven by the unique nature of the D.C. economy, which revolves around the federal government, international embassies, massive defense contractors, prestigious universities, national non-profits, and powerhouse lobbying firms. These sectors almost universally require advanced credentials, drawing highly educated professionals from all over the globe.
​2. Massachusetts (46.6%)

​Long regarded as the educational capital of the United States, Massachusetts boasts a legendary concentration of elite higher education institutions, including Harvard, MIT, Boston College, and Tufts. The state’s economy has successfully transitioned into a premier global hub for biotechnology, medical research, artificial intelligence, and venture capital. This "brain gain" phenomenon ensures that graduates from its world-class universities often stay in the state, while simultaneously attracting top-tier talent from other regions.

​3. Colorado (44.7%)

​Colorado stands out as a massive Western success story. Cities like Denver, Boulder, and Colorado Springs have become magnets for millennials and Gen Z professionals. Driven by a booming tech sector, aerospace engineering industries, environmental sciences, and a highly desirable outdoor lifestyle, Colorado actively imports college-educated individuals. Its high ranking demonstrates that quality of life, combined with a robust job market, is a powerful tool for attracting an educated workforce.

​4. New Jersey (42.9%) & Maryland (42.7%)

​Both New Jersey and Maryland benefit heavily from their proximity to major economic epicenters (New York City and Washington D.C., respectively). New Jersey houses major pharmaceutical, telecommunications, and financial services corporate headquarters. Maryland, home to Johns Hopkins University and numerous federal research facilities like NIH and NASA Goddard, maintains an incredibly high demand for specialized STEM professionals.
​Understanding the Regional "Degree Gap": The Bottom 5 States

​On the other side of the spectrum, several states fall significantly below the national average, with fewer than 30% of adults holding a four-year degree. The states with the lowest percentages include West Virginia (23.3%), Mississippi (24.2%), Arkansas (25.1%), Louisiana (26.6%), and Kentucky (27%).

​To understand these numbers, it is crucial to avoid stereotypes and instead look at historical, structural, and economic realities:
​Generational Reliance on Blue-Collar Industries: For decades, the economies of states like West Virginia and Kentucky were anchored by coal mining, manufacturing, and agriculture. These industries historically provided stable, middle-class incomes without requiring a college degree. As these sectors automated or declined, transitioning to a knowledge-based economy proved structurally difficult..

​The "Brain Drain" Effect: Many rural or economically depressed states suffer from brain drain—a phenomenon where local students graduate from state universities but immediately move to major metropolitan areas out-of-state (like Atlanta, Austin, or Chicago) in search of higher wages and diverse career paths.
​Socioeconomic Barriers: Lower funding for K-12 public education, higher poverty rates, and a lack of local corporate infrastructure create fewer incentives and pathways for residents to pursue expensive four-year degrees.

​The Massive "Middle": 30% to 40% Attainment
​The vast majority of the American population lives in states that fall into the middle tiers, ranging from 30% to 40%. This includes economic titans like California (36.5%), Texas (33.1%), and Florida (33.2%).

​Because these states possess massive, highly diverse economies, their statewide averages can be deceiving. For example, California includes Silicon Valley and San Francisco (where degree attainment is astronomically high), but it also includes vast agricultural regions like the Central Valley, where degree attainment is much lower. Similarly, Texas features highly educated tech and corporate hubs in Austin, Dallas, and Houston, contrasted against vast rural oil-producing and agricultural counties.

​Economic and Societal Implications for the US
​The disparities shown on this map carry heavy implications for the future of the United States:
​1. Real Estate and Cost of Living
​States with higher degree attainment almost always experience surging real estate markets and higher costs of living. The influx of high-earning tech, finance, and medical professionals drives up housing demands in places like Colorado and Massachusetts, often pricing out non-degree-holding locals.

​2. Political Polarization

​In modern American politics, educational attainment has become one of the strongest predictors of voting behavior. States with higher percentages of college graduates increasingly lean towards the Democratic party, while states with lower percentages of college degrees have steadily shifted towards the Republican party. This map closely mirrors the political geography of the country..
​3. The Rise of Alternative Pathways

​As the cost of traditional four-year degrees continues to skyrocket, many states in the 20%–30% range are heavily investing in trade schools, community colleges, vocational training, and tech certifications. With major tech companies removing strict degree requirements for certain roles, the definition of a "skilled worker" is beginning to evolve beyond just a Bachelor's degree.

​Conclusion

​This map is more than just a collection of percentages; it is a blueprint of America’s shifting economic landscape. While high-degree states continue to pull ahead as innovation hubs, the challenge for the future will be ensuring that states with lower attainment are not left behind in an increasingly digital and automated world. Balancing traditional higher education with robust vocational alternatives will be key to thriving in the decades to come.

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05/26/2026

05/26/2026

The mass production of penicillin was deemed impossible. In 1943, the military gave a female engineer the job anyway.
Margaret Hutchinson Rousseau sat at a drafting table in Brooklyn, New York. She was thirty-two years old. Five years earlier, she had become the first woman in the United States to earn a doctorate in chemical engineering from the Massachusetts Institute of Technology. Now she worked for Pfizer. Her tools were slide rules, heavy paper, and graphite.
The military had a mathematical problem. Alexander Fleming had discovered a mold that killed bacteria in 1928. Biologists knew it could save lives. But the mold was notoriously fragile. It only grew on the surface of a liquid. To get enough of the drug to treat a single patient, laboratory technicians had to cultivate thousands of tiny glass flasks.
The math did not scale.
As the United States entered the 1940s, the military began preparing for a massive land invasion of Europe. They knew the casualty rates would be staggering. Soldiers surviving bullets would die of infected wounds in the field hospitals. They needed millions of doses.
The scientific consensus was that cultivating the mold in deep vats wouldn't work. The mold needed oxygen to survive. If you submerged it, it suffocated.
At the time, the War Production Board estimated that treating the expected casualties of a European invasion would require two hundred billion units of the drug per month. The combined output of every laboratory in the country was a fraction of a percent of that number. The bottleneck was no longer biological. It was structural.
Margaret began designing something that did not exist. A deep-tank fermentation plant.
Her blueprints detailed massive, multi-story steel vats holding thousands of gallons of liquid. To keep the mold alive, she designed a system to pump sterile air through the bottom of the tanks, creating a continuous churn of oxygen.
The margin for error was zero. If a single stray microbe from the outside air entered the ventilation system, it would multiply and destroy the entire ten-thousand-gallon batch.
The early prototypes failed. The agitators chewed up the fragile mold. The first test vats smelled like rotting garbage. She had to recalibrate the air pressure valves while men in uniform paced the factory floor, waiting for a timeline.
She worked fourteen-hour days through the winter of 1943. She checked the pressure gauges herself. The cooling jackets required constant adjustment. The sterile seals had to be completely redrawn. The work was deafening, physical, and relentless.
In March 1944, the commercial plant in Brooklyn went online.
Fourteen massive steel tanks filled the warehouse. The air pumps engaged. The sterile seals held. The mold did not suffocate.
It multiplied.
In a single month, the plant produced more of the drug than the entire world had created in the previous fifteen years.
A cure in a petri dish saves nobody.
By June 1944, Allied forces landed in Normandy. Millions of doses of the drug traveled with them. The death rate from infected battle wounds dropped to a fraction of what it had been in previous wars.
Alexander Fleming received the Nobel Prize in Medicine in 1945. The men who isolated the chemical structure stood beside him on the stage.
Margaret Hutchinson Rousseau did not attend the ceremony. Her blueprints went into a corporate filing cabinet. The deep-tank fermentation process she designed is still how the pharmaceutical industry manufactures antibiotics today.
Margaret Hutchinson Rousseau: the woman who built the miracle.
Source: American Institute of Chemical Engineers (AIChE) archives.
Verified via: MIT Institute Archives and Special Collections, National WWII Museum records.

In 1943, the United States had only 21 pounds of penicillin — while millions of doses were needed before the Normandy invasion of World War II.This is the fo...

05/19/2026

Jessica Urlage, a student researcher at the University of New Hampshire and a former seasonal intern at LWA, recently completed a research project focused on the seasonal succession of plankton communities in Lake Winnipesaukee’s “Broads,” the deepest part of the lake.
“Last summer, the Lake Winnipesaukee Alliance conducted weekly plankton tows at the deepest site in Lake Winnipesaukee, “The Broads,” from June through August. Combined with concurrent water quality monitoring, this work helped provide a more cohesive understanding of overall lake health. I analyzed each sample under a microscope to identify and quantify both phytoplankton and zooplankton species throughout the season.
My research project, “The Seasonal Succession of Plankton Communities in the Broads of Lake Winnipesaukee: The Importance of Continued Monitoring in the Wake of the Invasion of Bythotrephes longimanus,” provides a baseline for future monitoring efforts and helps improve understanding of how invasive species such as the spiny water flea may be impacting freshwater ecosystems.
Seasonal succession generally followed expected patterns, indicating good water quality consistent with a low-productivity system. However, the absence of Daphnia and other cladocerans after mid-June raises concern and may be linked to the invasive spiny water flea. This is significant because Daphnia are key grazers that help regulate phytoplankton biomass, including algae and cyanobacteria, while also serving as an important food source for organisms such as rainbow smelt. Their absence could create cascading effects throughout the lake food web, ultimately impacting long-term ecosystem health and water quality.
This research was presented at the UNH College of Life Sciences and Agriculture Undergraduate Research Conference (URC). This work would not have been possible without the support of Dr. Amanda McQuaid, the Lakes Lay Monitoring Program, UNH Extension, Delilah Smock for conducting the weekly plankton tows, and Richard Cram for providing access to the lake and assisting with field sampling."
— Jessica Urlage

05/17/2026

05/17/2026

05/17/2026

05/17/2026

Join us for the McLane Center’s first annual Pollinator Fest! Previously known as the Native Plant Sale and Craft Fair, this year the event is taking place outdoors in our […]

05/17/2026

Ocean Discovery Day provides visitors with an opportunity to explore the wonders of the ocean through interactive exhibits and demonstrations. Visitors can make a fish print, band a lobster, touch a horseshoe crab and see the plankton that form the b

05/17/2026

This Armed Forces Day, we’re proud to be participating in Blue Star Museums again!⭐

Through this nationwide partnership, we’re thrilled to offer FREE admission to active-duty military personnel and their families, including National Guard and Reserve members.

The 2026 Blue Star Museums program runs from Armed Forces Day through Labor Day (Monday, September 7, 2026).

Thank you to the service members and families who do so much for our communities! We look forward to welcoming you this summer!