Book summary “Dead men do tell tales”: summary

Introduction

You often look at bones as silent relics of the distant past, but skeletal remains actually speak volumes about how a person lived and died.

Forensic anthropology recovers the hidden history of violent crimes, historical mysteries, and tragedies from human skeletal remains.

William R. Maples takes you behind the scenes of forensic science to reveal how experts distinguish natural pathology from traumatic injuries. The book follows a journey from active crime scenes and grim exhumations to historic investigations involving royalty and presidents. You learn how to read the physical truth locked inside human bones through a systematic examination of anatomy, tool marks, and trauma.

• How do bones survive extreme heat and deliberate dismemberment?
• What secrets do military laboratories and historical graves hide?
• How can you decode the silent testimony of a skeleton?

1. The Nature of Skeletal Evidence

Bones outlast soft tissues to provide an indestructible physical witness to violent crimes and historical identities. When soft tissues vanish, the skeleton remains as the longest-surviving remnant and the most trustworthy physical witness to violent crimes.

The human skeleton is the strongest, hardest, and least destructible part of the body, surviving when all other tissues are destroyed.

Forensic anthropology is distinct from forensic pathology because anthropologists focus specifically on the human skeletal system rather than soft tissues and medical causes of death. Pathologists possess medical degrees and residency training focusing on internal organs and soft tissues. Forensic anthropologists hold Ph.D.s and specialize in identifying skeletal changes, trauma marks, and variations across populations and lifetimes.

Medical examiners often feel out of place when confronted with pure bones, such as one examiner who admitted he was not used to looking at remains without meat on them. When bodies are burned, crushed, commingled, or dissolved, the skeleton endures all these destructive forces.

William R. Maples spent a year and a half extricating and reassembling thousands of burned and commingled bone fragments from a single body bag belonging to a couple named Meek and Jennings at the C. A. Pound Human Identification Laboratory.

2. Decomposition and Exhumation

Bodies decompose rapidly under warm conditions through autolysis and putrefaction, while burial environments drastically alter decay rates.

Total skeletonization of a human corpse can occur much faster than traditional estimates suggest under optimal warm-weather conditions. Open-air skeletonization can happen in approximately nine days under optimal conditions due to insect activity.

Dr. T. D. Stewart cited a case of a 12-year-old girl in Mississippi whose body was nearly skeletonized in just over ten days under a discarded vinyl-covered sofa in late summer.

Human decomposition is driven by two main biological processes: autolysis and putrefaction. Autolysis occurs when digestive juices and stomach acids gnaw through the gastrointestinal tract hours after death. Putrefaction results from bacterial activity, producing methane gas, skin slippage, color changes, and the release of butyric acids.

A colleague demonstrates putrefaction by thrusting a needle into a swollen corpse in a dark room, creating a blue jet of flame when ignited.

The environment surrounding a corpse significantly dictates its rate and degree of decomposition. A general rule of thumb states that one week in open air equals two weeks in water, which equals eight weeks underground. Sealed burial containers and septic tanks create unique microenvironments that can dramatically retard decay or preserve specific body parts.

An old man in Miami murdered his son-in-law and threw his body into a septic tank, where the skull and bones of the hands and feet were preserved in oxygenless clay and sand for fifteen years.

Excavating clandestine mass graves requires archaeological stratigraphic methods to determine the exact sequence of homicides. By analyzing the layering of bodies, ropes, and ballistic evidence such as plastic buckshot wrappers within a grave pit, forensic anthropologists can reconstruct the precise chronological order in which victims were killed and buried.

In 1981, Maples and archaeologist Brenda Sigler-Eisenberg excavated a mass grave in La Belle containing three kidnapped Northeastern businessmen stacked vertically. Ballistic evidence and an informant proved the bottommost man was shot last after begging to die first.

3. Tool Marks and Dismemberment

Taking apart a human body is physically exhausting and messy. Killers use dismemberment to destroy a victim's identity.

Dismemberment is an effective method used by killers to destroy a victim's identity, but the act leaves unavoidable forensic evidence on the bones regardless of the tool used.

You will find that bones retain characteristic marks, tooth patterns, or paint smears from the tools. Investigators examine upper leg bones like the femur where thick walls preserve clear evidence. William R. Maples saw 4 to 5 dismemberment cases per year.

In 1987, a headless, armless, and legless torso wearing a detailed Grim Reaper tattoo was found, but despite publishing photos in biker bars, the body was never identified.

Microscopic analysis of saw marks on bone can definitively identify the specific type of tool used in a crime. Maples created a reference library of cut patterns by sawing through fresh soup bones with various saws.

Different saws leave unique tooth patterns under microscopic inspection:

• hacksaws create skewed tic-tac-toe patterns of overlapping marks;
• Stryker saws leave circular arcs of short radius;
• chain saws go straight through bone;
• table saws leave an 8-inch rotating blade producing parallel curves.

Maples had a technician at the Florida Museum of Natural History use kitchen saws, table saws, wood saws, band saws, hacksaws, crosscut saws, pruning saws, chain saws, and Stryker saws on soup bones to catalog their distinct marks.

4. Skeleton Anatomy and Dynamics

Bones are living, dynamic structures that constantly remodel themselves rather than remaining hard and unchanging. They record an individual's personal history, ancestry, and labor patterns.

Bones are living structures that constantly remodel, recording individual histories, ancestries, labor patterns, and sexual dimorphism.

Bone cells are continuously created and destroyed by the periosteum and living marrow cells. Throughout your life, bones change, fuse, and become more brittle, preserving an intimate diary of illnesses, injuries, and habits that forensic anthropologists can read after death.

Bone derives its strength and flexibility from a balance between organic collagen and inorganic mineral components. Collagen provides elasticity and prevents bones from shattering, while inorganic minerals like calcium carbonate provide rigidity. When acid leaches out the minerals, the remaining collagen allows a bone like the fibula to be tied into an overhand knot. Conditions like osteomalacia or calcined burning leave bones brittle or rubbery.

Circus sideshow performers known as "The India-Rubber Man" or "The Boneless Wonder" suffered from osteomalacia, a disease characterized by a superabundance of collagen.

Skeletons display distinct aesthetic and structural differences between sexes, categorized as gracilis for females and robustus for males. Female skeletons are generally smoother, less knobbly, and evenly surfaced with gracefully planed edges. Male skeletons feature thick, pitted bones with rough irregularities, heavy brows, square jaws, and prominent muscle anchorage bumps.

Touching material to the tongue provides a reliable method to distinguish small bone fragments from rocks because bone is naturally porous. Anthropologist Larry Angel astonished law enforcement agents by tasting bone samples to quickly separate true skeletal material from mixed rock debris.

• Touch the small lump of material to your tongue.
• Determine if the material sticks; bone will adhere due to its porous nature, while rock will not.

5. Weapons and Cremation

Everyday objects serve as lethal weapons, while extreme heat in cremations destroys organic matter but leaves durable medical hardware and calcined bones intact.

Murderers frequently utilize everyday, improvised objects as lethal weapons rather than exotic items. You find that homicides involve household and common items such as glass bottles, two-by-fours, wrenches, and even frozen hams because perpetrators generally avoid heavy lifting and prefer light, maneuverable objects.

A woman was beaten to death with a Pepsi bottle, leaving the distinctive spiral fluting visible on the broken margins of her skull.

The cremation process destroys organic material but leaves calcined bones and certain medical implants intact, preserving identifying characteristics. Natural gas retorts reach about 1,700 degrees Fahrenheit, reducing bodies to calcined white bones that shrink, warp, and check. Trained osteologists can determine race, sex, and age from emerging remains before they are processed down to a typical adult cremains weight of 2.2 to 8.8 pounds and run through a processor with 5-millimeter holes.

Silicone breast implants tend to melt messily inside the retort if not removed beforehand, whereas gems and dental gold withstand the extreme heat.

Sifting through pulverized cremated remains with specialized tools and x-rays can uncover medical hardware to resolve lawsuits. Surgical clips, dental posts, and stainless steel sutures survive cremation and resist the pestle magnet because they are nonferrous. A forensic team including William R. Maples, Clyde Snow, Doug Ubelaker, Lowell Levine, Bob Kirschner, and Robert Fitzpatrick proved that a beloved family member's cremains were indeed inside an urn by recovering 18 tantalum Hemaclips that matched 18 inches of stacked medical records.

• Superimpose a grid over the outpoured cremains.
• Take an x-ray and study the grid to quickly localize objects.
• Cross-check recovered surgical clips and dental posts against hospital surgical and purchasing records.

6. Burned Bones and Commingling

Intense structural fires shatter and commingle bones into chaotic fragments that require meticulous screening, color analysis, and hot spot x-rays to resolve.

Improper initial recovery of human remains from a fire scene can result in an overwhelming and commingled chaos of bone fragments. When an investigator collected all bone fragments into a single body bag without mapping them in situ, the remains were jumbled by both the fire and careless handling, creating a massive challenge for forensic reconstruction. In the Meek-Jennings case, approximately 10,000 bone fragments mixed together in a single body bag, presenting an unprecedented forensic puzzle involving 2 sets of human remains and a dog found in the ashes.

Bones burned inside a body with high fat content undergo specific physical and color transformations distinct from naked bones burned in a dry oven. As soft tissue melts away, bones change color progressively from creamy white-yellow through dark yellow, black from carbonized organic matter, dark gray, light gray, and finally pure white. Furthermore, different bone types exhibit unique surface cracking patterns under fire. The thin surface of a tibia splits into a crisscross checkerboard pattern, while the thicker outer layer of a femur cracks up into little crescent moons during a structural fire.

You can organize calcined human skeletons by following these steps:

• Look for fragments that can be identified as coming from particular bones.
• Gauging the thickness of the bone walls.
• Measure the curvature of fragments to indicate bone shaft circumference.
• Examine the size of the cavity within the shaft versus wall thickness.
• Scrutinize joint surfaces and special protuberances indicating muscle attachment.
• Use bone color progression from cream, dark yellow, black, dark gray, gray, light gray, to white to determine coherence.

Specialized lighting equipment can reveal critical anatomical details hidden in the dark edges of historical medical x-rays. By using a high-intensity reflecting bulb known as a hot spot, an investigator can pierce the deepest shadows of old films to match unique skeletal contours and irregularities against burned bone fragments. An old x-ray of Glyde Earl Meek's back taken by an Arizona chiropractor was illuminated with a hot spot to reveal a distinctive first top rib with a calcified cartilage nubbin, which matched the burned male rib fragment from the fire.

Recovering durable high-melting-point artifacts from disturbed archaeological or forensic sites requires ultra-fine mesh screening. Standard coarse sifting can miss small, dense objects like dental gold. Passing debris through fine wire mesh screens ensures the recovery of durable evidence that withstands intense fires. After initial coarse screening failed to find Glyde Earl Meek's gold dental inlay, researchers re-sifted spoil piles through a 1/16-inch fine mesh, successfully recovering the filling.

You can recover dental gold that withstands intense structural fires up to 2,300 degrees Fahrenheit, far above the 1,945 degrees Fahrenheit melting point of pure gold, by following these procedures:

• Enlist archaeologists and use protective gear including leather gloves and dust masks.
• Screen debris through standard coarse mesh first if applicable.
• Bring soil and debris back to the laboratory to put through a 1/16-inch fine mesh screen.

7. Military Identification and Labs

The U.S. Army Central Identification Laboratory in Hawaii, known as CILHI, is a specialized, secure military facility dedicated to forensic identification of missing service members. The laboratory occupies about 5,000 square feet of floor space containing 20 work tables arranged in rows inside the lab, analytical tables, microscopes, and a secure records room. It typically keeps 100 unsolved boxes of remains at any given time.

Military identification laboratories use independent dental and anthropological analysis alongside DNA testing to resolve missing service member cases.

You will find that the facility operates under strict protocols where remains are covered with white sheets and headgear must be removed as a sign of respect. Forensic dentists and anthropologists work independently to cross-verify identifications and prevent biased conclusions. Dentists use dental records and computer software called Computer Assisted Post Mortem Identification, or CAPMI, which stores 2,500 dental records in its data banks to compare postmortem and antemortem data based on dental restorations. Simultaneously, anthropologists study the bones blindly without name information to determine age, sex, race, and height, ensuring their findings remain objective because teeth don't heal.

On December 21, 1972, an AC-130A gunship carrying 15 crew members, which was the normal number aboard plus one extra resulting in 16 men, was shot down over Pakse, Laos, resulting in two survivors and 14 fatalities, triggering a major investigation decades later. The 1985 investigation of this downed AC-130A gunship in Laos exposed overconfident and scientifically flawed identifications at CILHI. Prompted by the persistent inquiries of a pilot's widow, an evaluation commission consisting of Dr. Ellis Kerley, Dr. Lowell Levine, and the author reviewed CILHI's work after 50,000 bone and tooth fragments were recovered from the Pakse crash site. They discovered that senior anthropologist Tadao Furue had claimed positive identifications for 13 crew members based on extremely meager bone and dental fragments, a practice the author termed voodoo science, which also featured in Mrs. Hart receiving 500,000 dollars in her initial lawsuit against the government before it was overturned.

As recovered skeletal fragments continue to diminish in size and availability, future identifications will increasingly depend on dedicated DNA analysis. Physical examination of microscopic bits of bone and scarce teeth is reaching its limits. Establishing a dedicated DNA laboratory at CILHI to compare remains with living relatives would allow definitive identifications in weeks rather than years.

8. Historical Cases and Toxicology

Historical skeletal analysis and toxicological testing of metallic poisons verify long-standing accounts of assassinations and presidential deaths.

You can examine centuries-old human remains to verify historical records. Traumatic bone injuries confirm whether past accounts of assassinations or misidentifications are accurate.

William R. Maples examined the bones of Francisco Pizarro in Lima's cathedral in 1977. Workmen had discovered the true hidden lead casket containing Pizarro's skull, while an 1891 examination had inspected the wrong mummy. The skull showed extensive sword wounds that matched historical accounts of his 1541 assassination.

Metallic poisons deposit in the skeletal system and hair of victims who survive for a few days. Rapidly fatal massive doses leave no trace in the body. If a poisoned victim lives for more than twenty-eight to thirty hours, minute traces remain permanently embedded in the hair, nails, and bones.

William R. Maples and his team exhumed President Zachary Taylor to test his hair, nails, and bone samples for arsenic. Historical theories suggested that proslavery conspirators had poisoned the sixty-six-year-old president, known as Old Rough and Ready, who died in 1850 after surviving five days with fatal symptoms.

Unembalmed bodies decomposing inside sealed lead containers generate butyric acids that can perforate the metal over time. The team observed several perforations caused by butyric acids when opening Zachary Taylor's lead liner. This confirmed the body was packed in ice rather than embalmed, ruling out nineteenth-century embalming fluids as a source of arsenic contamination.

9. The Romanov Family Mystery

Skeletal trauma analysis and mitochondrial DNA matching definitively identified the remains of the last Russian tsar and his family.

The execution of the last Russian tsar and his family took place in July 1918 in a basement room in Ekaterinburg, followed by two clandestine burial attempts by the Bolsheviks. On the night of July 16-17, 1918, eleven people were shot in a small guard room while a Fiat truck engine ran at full throttle to mask the noise. Commander Jacob Yurovsky led a death squad that executed Tsar Nicholas II, Tsarina Alexandra, their five children, and four servants in the Ipatiev house. The bodies were initially dumped into the Four Brothers Mine located twelve miles from Ekaterinburg and pelted with hand grenades. They were later exhumed, doused in sulfuric acid, and hastily buried in a shallow bog due to approaching White Russian armies.

William Maples and his team independently determined the age, sex, and identity of nine skeletons discovered in Russia by analyzing skeletal growth patterns, joint wear, and severe trauma consistent with historical execution accounts. The nine skeletons displayed fractured faces from rifle butt blows, acid etching on teeth and crania, and bullet holes from small-caliber weapons mixed with fourteen recovered bullets. Body No. 1 showed ankle joint surface extensions from kneeling or crouching, indicating it belonged to the Tsarina's maid, Anna Demidova. Body No. 3 measured an estimated 64.9 inches in height, which helped identify it as Olga.

Body No. 4 possessed a male pelvis, broad flat palate, and protruding supraorbital brow lines matching historical photographs of the tsar, but its teeth were worn to gray nubbins with advanced periodontal disease and no fillings. Inside the braincase of Body No. 4, the team found a small, desiccated, shrunken object about the size of a pear, which was the dried brain of the tsar.

DNA testing utilizing mitochondrial DNA passed down through the maternal line definitively matched the Russian skeletal remains to living European royalty. Prince Philip submitted a blood sample because his maternal lineage traces directly back to Queen Victoria and the Tsarina Alexandra through Princess Victoria of Hesse. British scientists and Russian researchers used polymerase chain reaction to extract DNA from the bone samples and matched them against the blood sample with a 98.5 percent degree of certainty.

10. Weapons, Murders, and Academic State

Bones retain precise impressions of murder weapons far longer than soft tissue. Because bones are less elastic than skin, cut marks and blade dimensions are preserved accurately.

Comparative knife blade analysis corners violent criminals while the academic field of forensic anthropology faces ongoing institutional vulnerabilities.

In August 1990, Danny Rolling murdered five young students in Gainesville: Sonja Larson, Christi Powell, Christa Hoyt, Tracy Paules, and Manny Taboada, inflicting sixty-one wounds. He pleaded guilty on February 15, 1994, and was sentenced to death.

Maples examined bone wounds under a low-power stereo-microscope to deduce that the blade was 7 to 8 inches long, 1.25 to 1.5 inches wide, had a nonserrated edge and an elongated pentagon cross-section. Maples concluded the weapon was a Ka-Bar utility knife, which Rolling had purchased at an Army-Navy store in Tallahassee on July 17, 1990.

Conclusion

Forensic anthropology integrates anatomy, pathology, and historical investigation to extract definitive truths from human skeletal remains.

You can apply the core principles of forensic investigation to understand how physical evidence reveals hidden realities.

1. Preserve skeletal contexts by avoiding disturbance of bone positions and associated material evidence at any potential forensic site.
2. Examine hard tissue modifications such as tool marks, fractures, and thermal alterations to determine the exact mechanical forces involved in a death.
3. Consult specialists in osteology, odontology, and DNA analysis to establish positive identifications through biological profiles and comparative records.
4. Distinguish natural decomposition processes from peri-mortem trauma by analyzing bone color changes, fracture patterns, and environmental factors.
5. Apply rigorous scientific standards to historical and modern cases alike to ensure that every fragment of physical evidence contributes to an accurate narrative.

10 Key Ideas

1. The human skeleton is the strongest, hardest, and least destructible part of the body, surviving destructive forces when all other tissues are destroyed.
2. Bodies decompose rapidly under warm conditions through autolysis and putrefaction, while burial environments drastically alter decay rates.
3. Dismemberment is an effective method used by killers to destroy a victim's identity, but the act leaves unavoidable forensic evidence on the bones regardless of the tool used.
4. Bones are living structures that constantly remodel, recording individual histories, ancestries, labor patterns, and sexual dimorphism.
5. Everyday objects serve as lethal weapons, while extreme heat in cremations destroys organic matter but leaves durable medical hardware and calcined bones intact.
6. Intense structural fires shatter and commingle bones into chaotic fragments that require meticulous screening, color analysis, and hot spot x-rays to resolve.
7. Military identification laboratories use independent dental and anthropological analysis alongside DNA testing to resolve missing service member cases.
8. Historical skeletal analysis and toxicological testing of metallic poisons verify long-standing accounts of assassinations and presidential deaths.
9. Skeletal trauma analysis and mitochondrial DNA matching definitively identified the remains of the last Russian tsar and his family.
10. Comparative knife blade analysis corners violent criminals while the academic field of forensic anthropology faces ongoing institutional vulnerabilities.