In the summer of 1906, Italian laborers dug the concrete foundations for a railroad bridge in New York’s Modena Creek valley, pouring the footings for towers that would rise 193 feet above the…

In the summer of 1906, a laborer on the concrete foundation crew in Moodna Creek valley, Orange County, New York, was laying the footing for one of the towers of an overhead bridge that would cross the valley at 193 feet above the floor when completed. Moodna Creek at the crossing point was not a large river. It was a tree-covered valley stream passing through the cut-up highlands of the Hudson Highlands. Its banks were so steep that the railroad originally built through this region had been paying a grade penalty to cross it since 1851.

Thumbnail

The worker pouring concrete in the summer of 1906 was working at the bottom of that creek, in the pit the foundation crew had opened to reach load-bearing material beneath the gravel and clay, in the heat that the wooded valley trapped at the creek bottom through July and August, and in the conditions provided by the construction camps that the contractor maintained along the Erie Railroad main line for a temporary workforce. He was laying the foundation that would carry the tallest railroad bridge in New York State. The name of the worker pouring that concrete in the summer of 1906 exists in the construction records of the Erie Railroad’s Moodna Bridge project at the level those records required to track the cost of his labor. It does not exist in those records at the level required to track him as a human being.

This distinction between cost and person, between what 1906 accounting required to be recorded and what would have been required to record an individual, is not incidental in the history of the Moodna Bridge. It is structural to it. It runs through the project the way the creek runs through the valley beneath everything built above it. The Moodna Bridge was built because the Erie Railroad had a grade problem, and it had that grade problem because it had built its main line across terrain that the engineering capacity of 1845 had treated differently than the engineering capacity of 1900 would have.

The Erie Railroad received its charter from New York State in 1832 and completed its main line from Piermont on the Hudson River to Dunkirk on Lake Erie in 1851. The route chosen by the surveyors ran west from the Hudson through the highlands of Orange County, crossing the Delaware River at Port Jervis, passing through the upper Delaware River valley over the Pocono Plateau, and heading west across the Southern Tier of New York to the lake. It was a route chosen to avoid competition from the older Erie Canal corridor to the north and to serve the southern counties of New York that the canal had entirely bypassed. It was also a route across terrain that imposed operating costs on the railroad that the original construction decisions had not fully absorbed.

The highlands of Orange County, between the Hudson Valley and the Delaware crossing at Port Jervis, are not a mountain range in the sense of the Alleghenies or the Blue Ridge. They are a dissected plateau, where the hills and valleys of the Reading Prong, part of the New England Highlands, run roughly northeast to southwest across the path the railroad had to follow westward. Moodna Creek drains a large watershed west of the Hudson Highlands and cuts its valley through the ridge line before turning south to empty into the Hudson River near Newburgh. The location of the Erie main line’s crossing of Moodna Creek determined the grade the locomotives would climb on both sides of the crossing.

The crossing at valley level was cheap to build. It was extremely expensive to operate. The crossing at high level required building a massive bridge. That required capital the railroad had not spent in 1851.

The original Erie main line crossed Moodna Creek at a point where the valley was accessible enough to build without a large bridge. The grade penalty the early surveyors accepted was the slopes on both sides of the crossing—descending from the highlands to creek level, then climbing back up the other side. The locomotives of 1851 weighed between twenty and thirty tons. The grades they could handle at reasonable speed while pulling trains were manageable grades.

The operating costs of those grades for those locomotives and for the traffic the Erie ran in 1851 were the costs the railroad accepted when it built down into the valley and up the other side rather than spending capital on a high bridge. The locomotives the Erie Railroad used in freight service on its main line by 1900 weighed between eighty and 120 tons. The freight the Erie carried between Jersey City and the industrial cities of the Ohio Valley across the Orange County highlands in 1900 was the product of an economy that had seen continuous industrialization over five decades. The grades the early surveyors had accepted to save capital in 1845 now confronted heavier locomotives pulling longer and heavier trains, requiring extra costs in helper engines dedicated to pushing freight up the slopes, reduced operating speeds over the grade sections, and continuous maintenance expense for the helper locomotive fleet that the grade demanded.

The grade at Moodna Creek was not the only grade problem on the Erie main line across the highlands. It was one of several. Together they represented the operating cost of a railroad whose infrastructure had been designed for the traffic conditions of 1851 while being asked to carry the traffic conditions of 1900. The Erie Railroad in 1900 was not in a position where capital investment in grade reduction was easy.

The Erie had suffered financial difficulties through most of its existence. The railroad’s board and financial managers had devoted considerable attention during the 1860s and 1870s to manipulating the company’s stock rather than maintaining its infrastructure. The years between 1866 and 1872 were the years of Jay Gould, Daniel Drew, and Jim Fisk—the years when the Erie Railroad was used as an instrument of financial speculation on a scale that left the railroad in worse physical condition than any comparable competitor. The tactics used in those years—printing convertible bonds to dilute the holdings of shareholders seeking control, bribing legislators in Albany to legitimize that dilution retroactively, and using operating revenues to support speculative positions in the company’s own stock rather than replacing worn-out track and obsolete equipment—were profitable for the men who ran them and devastating for the railroad they operated.

The Erie underwent reorganization in 1875, was reorganized again in 1878, was placed in receivership in 1893, and was finally reorganized as the Erie Railroad Company in 1895. Each reorganization addressed the railroad’s financial structure without fully addressing the infrastructure deficiencies that had accumulated from years of underinvestment. The management that took over after the 1895 reorganization recognized that the Erie main line would require substantial capital investment in its infrastructure to compete with the New York Central and Pennsylvania Railroads in the east-west freight traffic they were also carrying. The New York Central’s water-level route from New York to Chicago via Albany and Buffalo carried similar traffic on grades no mountain route could match.

The Pennsylvania Railroad’s main line from Philadelphia to Pittsburgh and beyond carried the densest freight traffic in the United States. The Erie’s main line through the Orange County highlands and the Southern Tier carried important freight. But it carried it on grades that impaired the railroad’s operating efficiency compared to its competitors with every train movement over the mountain sections. The grade reduction program developed by the Erie’s engineering department in the late 1890s and early 1900s was that department’s answer to an operating problem the railroad’s financial history had postponed for thirty years.

It was not a single project. It was a systematic relocation of the main line in several sections where the original design imposed the highest operating costs. The Moodna Creek section was central to that program. The solution the engineering department developed for the Moodna Creek crossing was a high bridge that carried the main line across the valley at the height the design required, eliminating the descent and ascent and the need for helper engines that had been part of the Erie’s operating costs since 1851.

The design produced by the engineering department of the Erie Railroad for the Moodna Creek crossing called for a steel bridge with a maximum height of 193 feet and a length of 3,200 feet from east abutment to west abutment. The decision to build in steel rather than stone was not a considered institutional choice as the Pennsylvania Railroad had made at Rockville in 1899, when it determined the use of granite stone arches for the Susquehanna crossing and committed to a structure built once. The Erie Railroad in 1905 did not resemble the Pennsylvania Railroad of 1899 in its institutional philosophy, financial position, or operating culture. Pennsylvania in 1899 was the largest corporation in the United States, calling itself the Standard Railroad of the World, preferring stone because it intended to build the Susquehanna crossing once and in materials capable of withstanding any future requirement beyond any planning horizon its engineering department might set.

In 1905, the Erie was a railroad reorganized to rebuild infrastructure degraded by decades of financial mismanagement, operating within a capital budget constrained by its recent financial history to create the grade reductions needed to compete. Building high steel railroad bridges in 1905 was the method American engineering had mastered with efficiency, which the structural steel industry could fabricate and supply at a price that fit the Erie’s capital program, and which the contractors bidding on the work had already built in similar structures. The mountain railroads of the West had been building high steel bridges since the 1880s. The technique was proven.

The economic feasibility was known. The contractors understood the nature of the work. The design department divided the crossing into tower bents spaced at regular intervals across the valley floor. Each tower bent was a self-contained steel structure—four columns rising from a concrete footing to track level, braced horizontally and diagonally against lateral movement, carrying the truss that connected it to adjacent bents and supported the track above.

The integrated structural system—concrete footings below, steel tower columns rising 193 feet, deck trusses spanning between tower tops, and the train track on top—was the system developed for high bridge construction on the western mountain railroads, applied by the Erie’s engineering department to Moodna Creek valley with appropriate modifications for the span lengths, heights, and load requirements specific to this crossing. The engineering analyses conducted by the department determined the dimensions of every component. The concrete footings had to reach load-bearing material sufficient to support the tower weights without settlement under the weight of the heaviest locomotives the Erie operated. The tower columns had to carry the dead weight of the steel above them plus the live load of trains passing at operating speed, without dynamic amplification of that live load creating stresses exceeding the allowable capacity of the steel.

The deck trusses spanning between tower tops had to carry the same combined dead and live loads in bending and shear, without deflecting enough to affect the track alignment geometry above them. The engineers performing this analysis in 1905 were working with structural mechanics tools that bridge engineers of the 1850s had not possessed, drawing on test data on structural steel behavior under repeated loads produced by laboratories in the intervening decades, and on the operating experience of a railroad system that had been building and carrying steel bridges for thirty years. The specifications they wrote determined the quantities and dimensions of every component. The purchasing department took those specifications to the structural steel mills of Pennsylvania and the Ohio Valley, to the concrete aggregate suppliers, and to the lumber suppliers for the forms and shoring.

Construction contracts went to contractors capable of providing the workforce and equipment to build what the specifications required, on the schedule the Erie’s operational needs required. The foundation work in Moodna Creek valley preceded the steel erection by a full construction season. The concrete footing for each tower bent had to be excavated to load-bearing material, formed with lumber, poured with Portland cement concrete mixed on site, and left to cure to sufficient compressive strength before the first sections of steel columns were placed upon it. The construction window was subject to the same seasonal constraints as foundation work in any northern river valley.

The ground had to be unfrozen, the creek water level controllable, and the work advanced far enough before winter ended the construction season to protect fresh concrete from frost damage. The labor that performed the foundations at Moodna Creek in 1906 was of the same class as the labor that had built the Rockville Bridge pier foundations in Harrisburg six years before. It was Italian immigrant labor organized through the padrone system that had been supplying American railroad construction projects with Italian men since the mid-1880s. The men who dug the foundations and mixed and poured the concrete at Moodna Creek in 1906 had come to Orange County, New York, from the same agricultural communities in southern Italy and Sicily that had been losing their population to the American construction labor market for twenty years.

They came from Calabria, Campania, and Sicily, from communities where an agricultural economy that had sustained rural populations for generations had been collapsing since the 1880s under combined pressures of land consolidation, the phylloxera blight that devastated the vineyards of the Mezzogiorno throughout that decade, and the structural poverty of a region that the unified Italian state had absorbed economically without integrating in any other meaningful way. They moved toward the wages that American railroad construction work paid the way men move toward wages when the means of livelihood at home have stopped, by the most direct route available, regardless of the cost of the journey. The wages that foundation, excavation, and concrete crews in the United States paid in 1906 to men willing to do work the labor market classified as unskilled were wages that men with strong bodies, no American language, and no American capital could earn. They were enough to survive on.

They were enough to send something home. They were not enough to save in any meaningful way while their bodies were being worn down in the work. The padrone who organized the foundation crews at Moodna Creek contracted with the Erie’s construction contractor at a fixed daily rate per man. He recruited them from the Italian neighborhoods of the Atlantic port cities and, through his connections in the home regions of the men he supplied, arranged transportation to the construction site, lodging in the construction camps the contractor maintained along the Erie main line in Moodna Creek valley, and supplies from the camp store where the men bought food, tools, and the necessities of living at a construction site in rural New York.

The wages the construction contractor paid went to the padrone. The padrone paid the men what remained after the cost of camp lodging deducted from their wages, after the profit margin on goods supplied from the camp store, and after the fees he retained for organizing and managing the arrangement. The net amount reaching the individual worker was what remained of the market rate after the middleman had taken his share. The construction camps the padrone maintained for his men in Moodna Creek valley in 1906 were the housing that railroad construction companies provided for temporary workforces in rural New York in the early twentieth century.

They were sufficient to keep the men near the work and fit to do it. Moodna Creek valley in Orange County was not a hostile climate in summer. It was a wooded highland valley, milder than the coastal cities, with a stream running through it. But the construction camps were not designed for comfort.

They were designed to extract labor at the lowest possible housing cost. The men in them were not in a desolate wilderness. They were in a working rural region twenty miles northwest of Newburgh, beside a major railroad line. They were also in that region in a specific social circumstance—men who had arrived without mastery of the language, without established community connections, without the documents American institutions used to determine individual status, and without the labor market alternatives that would have given them bargaining power over the conditions the padrone arrangement imposed.

New York State labor law in 1906 provided these men no effective means of addressing the conditions created by the padrone system. The reform of the padrone system, which labor organizers and immigrant advocacy organizations had worked toward for two decades, had produced legislative attention and public awareness. It had not produced the structural change that would have altered the relationship between the construction contractor, the padrone, and the individual worker at the level of what actually reached the worker. The wage structure at Moodna Creek in 1906 was the wage structure produced by the labor economy of railroad construction in that year.

The steel erection that followed the foundation work during 1907 and into 1908 was a different class of construction in a different time category. The ironworkers who riveted the structural steel of the Moodna Bridge were not the same group of men who had dug the footings. They were structural ironworkers, men who had learned to connect steel at heights in previous bridge and trestle work across the American railroad system, moving from project to project as that system’s need for high bridges took them to new places. They were skilled craftsmen in a way foundation laborers were not classified as skilled, and their wages and their visibility in the construction records reflected that classification.

The work of the ironworker gangs on the steel tower bridge was to receive prefabricated structural members and connect them at the heights the design required. The column sections for the tower legs arrived at the construction site on the Erie main line. The railroad company building the bridge also provided the rail connection that transported the steel to the site, where it was unloaded and staged near the structure. A crane mounted on the growing structure itself lifted each column section from the staging area to the connection point above.

The ironworker at the connection point received the swinging section, guided it into the bolt holes in the base below, and held it in place while the riveting crews drove the rivets that secured it. The sequence repeated tower by tower, section by section, from footing level up through 193 feet of tower height to the deck truss connections at the top. The men receiving the column sections and setting the connection rivets at 150 and 190 feet above the Moodna Creek valley floor in the summer of 1907 were working under conditions no current safety standard would consider acceptable. There was no fall protection of the kind modern practice requires.

The work platforms the ironworkers used in erecting the steel structure in 1907 were limited by what the construction sequence and the geometry of the structure allowed, not by what the safety of the men on them required. The risk of a steel piece swinging into the connection point without precise control imposed by the nature of the weight and the dynamics of the ropes was a risk the ironworker at the connection point managed through experience, attention, and the particular physical confidence in high work that experienced ironworkers of that era had developed through years of exactly this kind of work. This was not a risk that New York State labor law in 1907 required the Erie construction contractor to document or mitigate in the forms a modern construction project might generate. The construction records of the Moodna Bridge reflect the ironworker gangs at a higher level than the foundation crews.

The names of the ironworker foremen are recorded. The production records of the gangs, the members installed, the connections completed, the trusses placed, are all recorded with the precision required by the accounting of skilled trades in 1907. The individual ironworkers below foreman level exist in the records at the level the accounting customs of the trades preserved for them. They are more visible than the Italian foundation laborers.

But they are not visible at a level that allows a complete list of the names of the men who connected the steel of the Moodna Bridge from footing level to bridge deck level in 1907 and 1908. The bridge was completed and opened for Erie Railroad traffic in 1908. The first trains to cross it were the through freight trains the Erie operated between Jersey City and the Ohio Valley cities. The Consolidation and Prairie locomotives that handled most of that service in 1908 crossed Moodna Creek valley on the new high line at the speed the reduced grade allowed, without the helper engine the old route had required, imposing on the new steel and the new concrete footings the loads the structural analysis had determined.

The bridge towers did not visibly deflect. The footing settlements that occurred as the structure absorbed its first live loads were within the allowable limits set by the engineering specifications. The deck trusses carried the trains without showing on the track geometry any deformations that would have resulted from insufficient stiffness of the supporting structure. The structure the engineering department had designed and the construction crews had built performed exactly as the engineering analysis had predicted.

The Erie Railroad operated its main line across the Moodna Bridge from 1908 onward through the entire development of twentieth-century railroad motive power. The heavy Mikado locomotives of the United States Railroad Administration, which the federal government assigned to the Erie and other major railroads during World War I, crossed Moodna Creek at the speed the grade allowed. The class H Berkshire locomotives the Erie developed for its main line freight service in the 1920s—the first true Berkshire, a wheel arrangement designed by the Erie’s engineering department specifically for the grades and traffic of its main line—crossed the Moodna Bridge in the service for which they were designed, outperforming the locomotives they replaced. The tower bents, supported by the concrete the foundation laborers had placed in 1906 and connected by the ironworkers column by column in 1907, carried the full development of Erie steam freight power for four decades without any structural damage attributable to overloading.

The transition from steam to diesel during the 1950s brought locomotives that imposed their loads on the structure without the reciprocating piston and connecting rod forces that steam power had transmitted to the track and through it to the bridge structure. The nature of the loads was different. They were not smaller. The freight tonnage the Erie carried across the Moodna Bridge in 1955 was heavier in total train weight than what it had carried in 1908, because the freight cars operating in 1955 were heavier and larger than the cars of 1908.

The tower bents carried what the railroad brought to them. The Erie Railroad entered receivership in 1938, was reorganized, and continued to operate as the Erie Railroad through the 1950s. It merged with the Delaware, Lackawanna and Western Railroad in 1960 to form the Erie Lackawanna Railroad. The Erie Lackawanna went bankrupt in 1972, a victim of the broader collapse of railroad profitability in the Northeast that drove the Penn Central, the Reading, the Central of New Jersey, the Lehigh Valley, and the Ann Arbor into bankruptcy within a single decade.

The federal government combined the operating assets of the bankrupt northeastern railroads under the Conrail umbrella in 1976. Conrail operated the former Erie main line through Moodna Creek valley from 1976 until 1999. Norfolk Southern acquired the tracks of the former Erie main line through the Conrail breakup in 1999 and operates the Moodna Creek crossing today. The railroad crossing the Moodna Bridge daily in the second decade of the twenty-first century is the legal heir—through generations of receivership, merger, acquisition, and federal intervention—of the Erie Railroad chartered by New York State in 1832 and completed to Lake Erie in 1851.

The bridge the reorganized Erie paid for in 1905 at the Moodna Creek crossing still stands on that main line. The Norfolk Southern freight carried today is the freight of the eastern industrial economy the Erie system was built to move: the same categories of freight, manufactured goods, raw materials, and intermodal containers carrying the products of an economy the founders of the Erie could not have anticipated, through the same main line corridor between the Hudson Valley and the interior of the Ohio Valley. If you stand in Moodna Creek valley in Orange County, New York, and look at the structure crossing it, you see a steel bridge 193 feet high, extending 3,200 feet from east abutment to west abutment. The steel has the surface it acquires after more than a century of weathering in a wooded New York valley.

The paint maintenance cycles that railroad bridges require have preserved its serviceability, but the steel itself carries a visual record of a century of Pennsylvania winter blasts and summer humidity, the slow surface oxidation of a structure that has performed its work without interruption since 1908. The concrete footings beneath the tower columns have been in the ground since 1906. The stream runs beneath the structure the same way it has run since the first Erie trains crossed it. An approaching Norfolk Southern freight on the former Erie main line gives ample warning through its sound in the valley to locate the bridge before it crosses.

The sound arrives from the east and deepens as the train approaches the valley edge and mounts the surface of the structure. The locomotive, two hundred tons of diesel power, crosses the valley stream in about two and a half minutes, the time a freight train takes at ordinary speed to cover the 3,200 feet of the steel bridge. The tower columns do not visibly respond, the concrete footings do not move, and the stream below continues at the level the season determines, indifferent to the crossing that has taken place above it for 115 years. A historical marker stands at the Moodna Bridge site.

The marker records the structure’s height and length and notes its status as the tallest railroad bridge in New York State. The Erie Railroad is named on the marker as the builder. The engineering department that designed the steel bridge is represented by the institution that built it and whose corporate successors still operate it. The Italian laborers who dug the Moodna Creek valley foundations in 1906 and mixed and placed the Portland concrete the towers rest on are not named on the marker.

The padrone contractors who organized those laborers, transported them to Orange County, housed them in construction camps along the Erie main line, supplied them from the camp store, and managed the wage flow between what the construction contractor paid per man and what reached the worker after housing deductions, store profit margins, and padrone fees, exist in the Erie construction accounts at the level those accounts required to track aggregate payments to subcontractors. The individual men below the padrone level exist in those accounts at the level required to track costs, not at the level required to track human beings. The ironworkers who connected the structural steel of the tower columns and bridge trusses at 150 and 190 feet above the Moodna Creek valley floor in 1907 and 1908—the men who guided swinging column sections into connection points on scaffold platforms with no fall protection any current safety regulation would recognize, and who drove the rivets that joined the steel together while standing on the structure they were building above the creek valley—exist in the construction records at the level their professional status in 1907 made visible. The names of their foremen are recorded.

The production numbers of their gangs are recorded. The individual men below foreman level appear as they always appear in construction records of that era, at the level the labor market and accounting customs of the early twentieth century required. The historical records of the Erie Railroad passed through the Erie Lackawanna, then through federal receivership and Conrail, and now reside in several repositories. The National Museum of American History at the Smithsonian Institution holds parts of the Erie engineering archive.

Whether the daily time accounts, gang lists, and individual labor records of the Moodna Bridge construction survive in accessible form, and what level of detail was preserved in them originally, is a question the engineering histories of the structure have not fully addressed. The engineering drawings survive in good condition. The structural calculations survive. The steel purchase records survive at the level the Erie’s financial management required to track expenditures against budget.

The men who poured the concrete on which the columns of those towers stand survive in those records as the aggregate cost of their labor. They exist in those records as a line item in the construction budget. They do not exist in those records as human beings. The bridge still stands.

The trains still cross it. The concrete the Italian laborers poured into the foundation excavations of Moodna Creek valley in 1906 is still in the ground beneath the tower columns. The steel the ironworkers connected in 1907 and 1908 is still in the towers and bridge trusses above the creek. The grade problem the Erie engineering department solved with the Moodna Bridge has been solved for 115 years.

Trains cross the valley at the speed the flattened grade allows, without helper engines. The operating costs the original grade imposed since 1851 have vanished. The men who laid the basis for that solution in Moodna Creek valley in 1906, for the two construction seasons the work required, left as soon as it was finished. The name of the contractor who supplied them appears in the contractor’s records in the form the system required for documentation.

The men that contractor supplied exist in the records as the aggregate cost of their labor. They are listed in the records as one of the costs of the project. But they are not listed in the records as human beings. The concrete they poured still stands in the ground.

The tower bents still stand above it. The bridge is still there.

Related Posts

In 1900, guests at the Holloway Hotel in Newton County, Arkansas, kept vanishing from the same three rooms on the eastern wing. Seamstress Mary Carver left her sewing kit behind. Bible salesman…

The scratching started again around midnight, constant now, and Mary Ellis knew she would not sleep. She lay in her narrow room at the end of the third-floor corridor and listened to the sound working its way up through the building’s bones, a rhythmic scrape, scrape, scrape that came from somewhere below the floorboards. Mr. … Read more

In the 1980s, a high school rumor could travel through an entire building by lunchtime without a single text, group chat, or post. Someone whispered “after school, by the bleachers,” and the whole…

The whole school was already there by the time the circle closed. No one had sent a single message, no group chat existed, no one had posted anything anywhere, yet by lunchtime everyone knew the fight would happen after last bell, next to the bleachers. That was how news traveled then: whispered from locker to … Read more

In 1950, Roy Cox spent eight months building a tiny engine from scratch, holding tolerances of 25 millionths of an inch—any piston that deviated went straight in the trash. The Cox 049, a working…

The sound carried three backyards on a Saturday morning without even trying. Thin and slightly wrong, like something spinning faster than it had any right to. If you grew up anywhere in America between 1955 and 1985, you knew exactly what it was. It was the Cox 049, a working internal combustion engine machined to … Read more

In November 1909, authorities in Shannon County, Missouri, entered the Warren homestead and found the beds made, the pantry stocked, and a half-written letter on Thomas Warren’s desk. Thomas and…

Idaho Press-Tribune, October 17, 1907—that was the date stamped on the clipping, but the story itself was older, and stranger, and it began long before the newspaper ever touched it. It began, as so many things do, in the dark of a Missouri autumn. In the autumn of 1909, when the leaves turned copper and … Read more

In March 1923, Clarence Saunders cornered Wall Street itself. Working through a broker and southern banks, the Memphis grocer quietly bought nearly ev…

In the summer of 1923, on a hill at the eastern edge of Memphis, a half-finished mansion of pink Georgia marble rose against the sky. The man who ordered every stone placed there walked to the gate, handed the keys to his creditors, and never lived in the house. His name was Clarence Saunders, and … Read more

In 1848, Samuel Knap’s men dug 18 feet into a filled-in pit near Michigan’s Ontonagon River and struck a single mass of nearly pure copper—six tons of it. But the copper wasn’t lying on the floor….

The copper tool came out of a mining pit in Michigan and went to a laboratory. The lab returned a date of 8,500 years old. Hold that number, because it breaks something. That tool was already ancient when the first pyramid in Egypt was still only an idea in someone’s head. It was already old … Read more

Leave a Reply

Your email address will not be published. Required fields are marked *