Milky Way will be visible over Memorial Day weekend. Where to see our galaxy from Ohio
The Milky Way could be coming to a sky near you.
The billions of stars comprising our home galaxy should appear especially vibrant in late May as the band arcs across the night sky. The reason has much to do with the cycle of the moon, but it also has to do with how high in the sky the Milky Way should appear from our perspective here on Earth, specifically in the United States.
Here's everything to know about our Milky Way, including how to see the stunning natural phenomenon and the best places to see it from Ohio.
While the Milky Way is generally always visible from Earth, certain times of year are better for stargazers to catch a glimpse of the band of billions of stars comprising our galaxy.
"Milky Way season," when the galaxy's bright center becomes easier to see from Earth, typically runs from February to October, according to Milky Way photography website Capture the Atlas. However, the best time to see the Milky Way in the Northern Hemisphere is from March to September.
And for several days in May, the Milky Way may be even more visible than usual.
The peak days to view the Milky Way will be from Tuesday, May 20, to Friday, May 30, according to science news website LiveScience. That's the period between the last quarter moon and the new moon, when skies should be darker.
Those who live in the Northern Hemisphere, which includes the entire continental United States, could have spectacular views of the Milky Way on clear nights with a new moon.
Typically, the sky is darkest between about midnight and 5 a.m., according to Capture the Atlas.
Stargazers can observe the Milky Way galaxy by looking for the Summer Triangle, "a shape formed by three bright stars" that spans across the Milky Way, according to LiveScience.com.
In the Northern Hemisphere, the Milky Way rises in the southeast, travels across the southern sky and sets in the southwest, according to Weather.com.
Spectators will have the best luck on cloud-free nights and in locations away from city light pollution. DarkSky International maintains a website that lists all designated dark sky communities around the world, including 159 locations in the U.S.
So where's the best place to go in Ohio to see the Milky Way shining overhead? The International Dark Sky Places (ISDP) program, an internationally recognized organization that certifies communities, parks and protected areas around the world that preserve dark skies, has two suggestions. The IDSP-designated dark sky places in Ohio are:
Geauga Observatory Park: Located in Montville Township in Geauga County, this park was selected as a dark sky park in 2011, the Columbus Dispatch reports. The park is centered around the Nassau Observatory, which moved from Cleveland to Geauga County in 1957 due to light pollution. It fell out of routine use in the 1990s.
Fry Family Park: Located in Magnolia, about 10 miles south of Canton, the park also earned the distinction of being an IDSP-certified urban dark sky area, which means stargazers still get a good view of the night sky despite its proximity to a city.
Other dark sky destinations around Ohio, according to Ohio Magazine, include:
Burr Oak State Park: The nearest village is four miles away, and has a population of less than 2,000 so it produces little light pollution.
Stonelick State Park: The night skies here are some of the darkest in Ohio, according to the magazine, and it's a common destination for Cincinnati-area stargazers.
Wayne National Forest: Per the magazine, the isolated Lamping Homestead Recreation Area is arguably the darkest site in Ohio's only national forest.
Timing up your viewing experience with a new moon phase will also help so that light reflected off our celestial neighbor doesn't drown out the billions of stars lighting up the Milky Way, astronomers say.
Just like Earth, half of the moon is always illuminated by the sun, while the other half remains dark. A new moon represents the start of a new lunar cycle, when the illuminated side of Earth's natural satellite is facing away from our planet, rendering it effectively invisible to us.
As the moon orbits around Earth and Earth orbits around the sun, the amount of sunlight that reflects off the moon and travels to our eyes changes every day until the moon appears full.
The next new moon happens late in the evening on Monday, May 26 (Memorial Day), according to the website TimeAndDate.
The Milky Way is our home galaxy with a disc of stars that spans more than 100,000 light-years. Because it appears as a rotating disc curving out from a dense central region, the Milky Way is known as a spiral galaxy.
Our planet itself is located along one of the galaxy's spiral arms, about halfway from the center, according to NASA.
The Milky Way sits in a cosmic neighborhood called the Local Group that includes more than 50 other galaxies. Those galaxies can be as small as a dwarf galaxy with up to only a few billion stars, or as large as Andromeda, our nearest large galactic neighbor.
The Milky Way got its name because, from our perspective on Earth, it appears as a faint band of white light stretching across the entire sky.
Eric Lagatta is the Space Connect reporter for the USA TODAY Network. Reach him at elagatta@gannett.com
This article originally appeared on The Repository: Milky Way visible from Earth? How to watch in Ohio Memorial Day weekend
Hashtags

Try Our AI Features
Explore what Daily8 AI can do for you:
Comments
No comments yet...
Related Articles
Yahoo
a day ago
- Yahoo
Milky Way arcs over Kitt Peak National Observatory
When you buy through links on our articles, Future and its syndication partners may earn a commission. On a warm June evening, viewers in Arizona watched the sky burst with color from the clouds of gas and dust that help create our home galaxy, the Milky Way. The Milky Way galaxy is around 100,000 light-years in diameter, containing our solar system and many other objects. Our solar system orbits the galaxy's center, taking about 250 million years to make one revolution. The reason our galaxy is called "the Milky Way" is due to its milky white appearance in the night sky, which, according to Greek mythology, came from the goddess Hera. This image was captured at Kitt Peak National Observatory near Tucson, Arizona. Kitt Peak National Observatory, a a program of the National Science Foundation's NOIRLab, hosts the recently retired McMath-Pierce Solar Telescope. According to NOIRLab, the solar telescope honors astronomers Keith Pierce and Robert McMath. For many decades, the McMath-Pierce telescope was the largest solar telescope in the world, standing at 110 feet tall (33 meters), with a 26-foot-diameter (8 m) platform. The telescope worked by reflecting light from a mirror down a 200-foot-long (61 m) concrete optical tunnel. In 2017, the telescope was decommissioned, after decades of serving the scientific community. It is in the process of transitioning to the NOIRLab Windows on the Universe Center for Astronomy Outreach, according to NOIRLab. You can read more about solar telescopes and NOIRLab's research as humans continue to study the sun.
Yahoo
2 days ago
- Yahoo
How do migrating birds know where they're going?
When you buy through links on our articles, Future and its syndication partners may earn a commission. Every year, billions of birds migrate in and out of the United States. And across the world, birds fly thousands of miles to reach their seasonal destinations. Some birds, like the Arctic tern (Sterna paradisaea), even rack up enough miles over their lifetime to fly to the moon and back. But when birds embark on these epic journeys, how do they know where they're going? Birds have an arsenal of senses they use to orient themselves — some we're familiar with, and some are still beyond human comprehension. "We know that birds use a variety of cues to keep their migratory direction," Miriam Liedvogel, director of the Institute of Avian Research in Germany, told Live Science in an email. Sign up for our newsletter Sign up for our weekly Life's Little Mysteries newsletter to get the latest mysteries before they appear online. Sight and smell are two basic cues that birds use to find their way. If birds have already migrated once, they'll likely remember familiar landmarks, such as rivers and mountain ranges. Birds that migrate over water, on the other hand, have fewer landmarks to guide them. In these circumstances, they might rely more on their sense of smell; one study found that when researchers blocked the nasal passageways of seabirds called Scopoli's shearwaters (Calonectris diomedea), they could still fly over land but became disoriented when flying over water. Birds also can use the sun and stars as guides. To do this, birds that fly during the day use a "sun compass," which combines birds' view of where the sun is in the sky with their internal perception of what time of day it is based on their circadian rhythm. By integrating these two inputs, birds can determine the direction they're heading, like a living sundial. Research shows that disrupting a bird's circadian rhythm with artificial light prevents them from navigating accurately, showing the importance of the sun compass. However, most birds actually migrate at night, meaning the position of the sun is of little use to them. In this case, birds rely on the position and rotation of the stars to find their way. They use this star compass by learning the position of the stars around the celestial pole, which is roughly marked by Polaris (the North Star) — the same star humans have used to navigate for millennia. Related: Why don't all birds fly? But what if the sky is cloudy, and birds can't see the sun, stars or any landmarks? That's when birds' more fantastic senses come into play. Birds can find their way even with no sun or stars, partly thanks to a sense called magnetoreception. This sense allows birds to perceive Earth's magnetic fields, which are generated by the rippling molten metals in our planet's core. This feat may sound like science fiction, but research shows that messing with magnetic fields has a big effect on birds; for example, one study found that altering the magnetic fields around pigeons disrupted their homing abilities. While it's clear that birds are capable of magnetoreception, exactly how they do it is less certain. Peter Hore, a professor of chemistry at the University of Oxford, said birds must utilize some sort of chemical reaction whose outcome depends on the strength and direction of Earth's magnetic field. There are a couple of candidate theories for how this reaction happens, but Hore's bet is on a molecule called cryptochrome, which is present in birds' retinas. Researchers have confirmed in the lab that isolated cryptochrome responds to magnetic fields and that this reaction requires blue light, which has also been shown to be necessary for bird magnetoreception. Still, researchers aren't exactly sure how cryptochrome is sensitive enough to pick up on tiny variations in Earth's magnetic field. "We know so little about the details of how this compass might operate," Hore said. "I mean, we don't even know how many cryptochrome molecules there are in the birds' retinas." Some research also points to a magnetoreception mechanism inside birds' beaks. Studies have found receptors that interact with magnetite, an iron-based mineral, in the upper portion of birds' beaks. These receptors connect to the brain via important nerve pathways, suggesting they could be another technique birds use to gauge the intensity of the magnetic field. On top of magnetoreception, birds can gain information about their direction by detecting polarized light — a type of light in which the waves oscillate in a specific, aligned plane. Sunlight becomes polarized in predictable ways when light scatters through Earth's atmosphere. Using special cells in their retinas, birds can sense these patterns, which give them information about where the sun is in the sky, even when it's overcast. Just as we rely on our vision during the day but may use our hands to guide ourselves around a dimly lit room at night, birds employ different senses at different times. "Birds likely integrate their compass cues to navigate — and we are pretty sure that different cues are of varying importance during their journey," Liedvogel said. Hore pointed this out as well; magnetoreception, for example, is less useful during thunderstorms or periods of high solar activity, both of which can disrupt Earth's magnetic fields, he said. RELATED MYSTERIES —Are birds reptiles? —Why do hummingbirds 'hum'? —Why are there so many pigeons? Ultimately, all of these strategies are underpinned by birds' genetic drive to migrate. Birds inherit the propensity to migrate from their parents, Liedvogel explained, and the distance and direction in which they fly are primarily based on genetics. Researchers like Liedvogel are still investigating exactly which genes are responsible and how they work. Both scientists said understanding these systems will be essential to the future of bird conservation. Relocating or rewilding bird species has become a major focus of wildlife conservation efforts, but so far, outcomes have been mixed; one analysis found that in 45% of studies, the birds left their new location. "Human efforts to relocate those birds have not been very successful," Hore said. "That's partly because they are such good navigators that if you displace them, they simply fly back."
Yahoo
3 days ago
- Yahoo
Scientists Intrigued by Conical Skull Found in Ancient Burial Ground
Archaeologists in Iran have discovered an ancient cone-shaped skull that is believed to have belonged to a teen girl — and there are signs of tragedy in her bones. As Live Science reports, the skull, which was found in a prehistoric burial ground known as Chega Sofla without its corresponding skeleton, shows signs not only of intentional modification, but also possibly fatal blunt force trauma. Dated to roughly 6,200 years old, the strange cone shape of the skull appears to be the product of a practice archaeologists today call artificial cranial modification, a process similar to foot-binding in which the soft skulls of children are bandaged to deliberately deform them. Found across cultures and millennia, this type of body modification has been undertaken for various reasons, including to denote social status or adhere to beauty standards, as evidenced by it more often being seen in girls than boys. Though it's still occasionally practiced today, the practice sometimes referred to as "skull elongation" was far more common in prehistoric times. The girl with the conical skull in this study, for instance, was believed to have lived in the fifth millennium BCE. Aside from the cone-shaped cranium of the young woman, who was believed to be younger than the age of 20, archaeologists Mahdi Alirezazadeh and Hamed Vahdati Nasab of the Tarbiat Modares University in Tehran — who also authored a study about their discovery that was recently published in the International Journal of Osteoarcheology — also found a long, unhealed fracture on the back of the skull that likely killed her. "We know this woman experienced the fracture in the final moments of her life," Alirezazadeh told Live Science, "but we don't have any direct evidence to say that someone intentionally struck her." Though it's unclear whether the ancient teen in question was intentionally killed or died by accident, the researchers believe that the modified shape of her skull likely made it weaker and more susceptible to trauma than a conventional cranium. Along with pointing out that an unmodified fractured skull was found alongside the conical skull in the portion of Chega Sofia where they were working, Alirezazadeh also noted that whatever killed the latter "was so severe that it would have fractured a normal, unmodified skull as well." More on head science: Scientists Want You to Ink an Electronic Tattoo On Your Forehead So Your Boss Can Detect Your Mental State