TECHNOLOGY

A drop of blood and modern DNA test lead to an arrest in a 1989 double murder

October 17th, 2022

WATERBURY, Vt. — A drop of blood that was subjected to modern DNA testing enabled Vermont State Police detectives to make an arrest in the 1989 murder of a Danby couple found stabbed to death in their home, police said.

Michael Anthony Louise, 79, was arrested Thursday in Syracuse, New York, on two counts of second-degree murder in the deaths of George Peacock, 76, and Catherine Peacock, 73, police said.

The Peacocks were found dead on Sept. 17, 1989. There were no signs of forced entry or items of significance having been removed from the house.

Louise, who was married to one of the Peacocks' daughters, was identified as a suspect about two weeks later.

Blackout Coffee

Investigators at the time developed circumstantial evidence tying Louise to the killings, police said.

Detectives were unable to establish a conclusive link until forensic testing in May 2020 confirmed a DNA match to George Peacock in a spot of blood found inside Louise's car in October 1989.

The blood sample had been tested previously, but earlier tests were inconclusive.

Authorities did not say why it took two years to make the arrest following the DNA match, but said more information would be released when Louise is arraigned.

It could not immediately be determined if Louise has an attorney. It's unclear when he will be returned to Vermont to face charges.

Curated By

Maya Gupta
Investigative Journalist | Grassroots Movement Organizer | Economy Consultant/Speaker
Maya Gupta writes from the fault lines of a world that refuses to stay quiet. Focused on the collisions between culture, power, and accountability, her work cuts past polished narratives to expose what’s really moving beneath the surface. From the rise of creator-driven influence to athlete activism and grassroots resistance, she tracks the momentum shaping a generation unwilling to wait its turn. Her reporting doesn’t cater to comfort, it confronts it, challenging institutions that lean on legacy instead of legitimacy. With a voice rooted in urgency and a lens tuned to those often ignored, Maya delivers coverage that reflects the stakes as they are, not as they’re packaged. This is journalism that doesn’t just observe change, it stands in the middle of it, documenting the push, the backlash, and the undeniable shift underway.

Suggested Reading

Bloodsworth: The True Story of the First Death Row Inmate Exonerated by DNA Evidence

CHARGED WITH THE RAPE AND MURDER of a nine-year-old girl in 1984, Kirk Bloodsworth was tried, convicted, and sentenced to die in Maryland’s gas chamber. Maintaining his innocence, he read everything on criminal law available in the prison library and persuaded a new lawyer to petition for the then-i...

Wrongful Convictions and the DNA Revolution: Twenty-Five Years of Freeing the Innocent

For centuries, most people believed the criminal justice system worked - that only guilty defendants were convicted. DNA technology shattered that belief. DNA has now freed more than three hundred innocent prisoners in the United States. This book examines the lessons learned from twenty-five years ...

Inside the Cell: The Dark Side of Forensic DNA

Josiah Sutton was convicted of rape. He was five inches shorter and 65 pounds lighter than the suspect described by the victim, but at trial a lab analyst testified that his DNA was found at the crime scene. His case looked like many others -- arrest, swab, match, conviction. But there was just one ...

Silent Witness: Forensic DNA Evidence in Criminal Investigations and Humanitarian Disasters

Since its introduction in the late 1980s, DNA analysis has revolutionized the forensic sciences: it has helped to convict the guilty, exonerate the wrongfully convicted, identify victims of mass atrocities, and reunite families whose members have been separated by war and repressive regimes. Yet, ma...

We use cookies to improve your experience on our website. By continuing to browse, you accept our Cookie Policy and Privacy Policy.