Having worked on a number of German and American clock movements recently, I began reflecting on the differences in design philosophy, construction methods, and overall durability between modern German movements from the past 30 to 40 years and American movements made over a century ago.

These comparisons reveal not just technical contrasts but also shifting attitudes toward repair, longevity, and manufacturing priorities.

In the early stages of any product’s history, things are often built better than necessary—if only because the technology was so new that no one had yet figured out how to make it cheaper and less durable.

The cost and production methods of clocks have evolved significantly over time. Originally, antique clocks were handcrafted with great skill and time investment, which made them expensive and exclusive. Later, industrial advances like assembly line manufacturing lowered production costs and made clocks more affordable and accessible to a wider audience.

So, when comparing antique and modern clocks, it’s important to keep in mind these differences in how they were made and priced.

Is Every Clock Reparable?

Do modern movements wear out faster? I often see estimates of 25 to 30 years as the economic lifespan of a modern movement. Of course, mileage may vary, but most would agree that this is a reasonable average.

Is every clock repairable? Most are. It is perfectly feasible to tear down, clean, and rebush/repivot a modern German movement, provided the manufacturer has not used automated assembly techniques that make disassembly very difficult, if not impossible.

Maintenance is time-consuming and, consequently, costly. A skilled clockmaker can tear down, clean, rebush, and rebuild most movements in a few days—and may charge around several hundred dollars for their work. Of course, if you are proficient in clock repair, you can absorb the costs even though you contribute the time needed to fix the clock.

Replacement rather than repair has pushed modern manufacturing into the ‘it’s cheaper to buy a new one than to fix it’ category. This trend mirrors the auto repair industry, where many vehicle owners find that repair costs often approach or exceed the value of their car, prompting them to purchase a new or used vehicle instead. Clocks are not exempt from this pattern. Most common clocks—unless they have special provenance—are far more expensive to repair than they are worth.

If the inflation-adjusted estimates are accurate, the price of mass-produced clocks from the past isn’t significantly different from that of today’s clocks. This may be due, at least in part, to economies of scale that allowed manufacturers of the time to offer higher-quality clocks at relatively lower prices.

You can buy a brand-new Hermle movement for about half the cost of repair, so most customers and clock repairers opt for replacement after discussing the options with the owner.

The Wear-out Factor

Do modern movements actually “wear out” faster than those made one hundred years ago, or is it just that the manufacturing efficiencies have made modern ones so cheap they are uneconomic to repair?

I’ve compiled a chart to illustrate the differences between American clocks manufactured over 100 years ago and German clocks produced between the 1950s and 1980s, based on my observations and research into clock repair.

Feature/Aspect	American Clocks (1880–1930)	German Clocks (1930–1980)
Typical Brands	Typically, Seth Thomas, Ansonia, Ingraham, Gilbert, Waterbury	Hermle, Kienzle, Junghans, HAC, Urgos
Materials	Thick brass plates, large & strong steel pivots	Thinner brass plates, higher zinc content*, smaller pivots
Build Quality	Heavy-duty, rugged, simple	Lightweight, more delicate components, tiny pivots, plated pivots, temporarily
Tolerance for Wear	High—can run even when bushings are very worn	Wear develops quickly, multiple bushings are often needed
Pivot Hole Wear	Slow to develop, sometimes bushing is not required	Increased pivot wear made for a shorter lifespan, made serviceable by the factory
Design Philosophy	Long-lasting, serviceable by owners	Increased pivot wear made for a shorter lifespan, making it serviceable by the factory
Mechanism Complexity	Simple strike/spring trains, easy to diagnose and remedy	Self-correcting chime/strike, more moving parts, greater chance of malfunction
Mainsprings	Powerful, overbuilt, are often reusable	Narrower, tightly wound, sometimes prone to breakage, often reusable
Service Requirements	Can go years without a service	Sensitive to dry oil or dirt; must be oiled regularly, shorter period between services
Common Issues	Dirty oil, broken mainsprings, worn bushings	Worn bushings, broken chime hammers, gear slop
Longevity (w/o service)	25 to 50 years	20–30 years
Ease of Repair Today	High – parts are widely available, with forgiving tolerances	Pre-war German clocks were very robust, and post-war had a designed lifespan
Intended Lifespan	Generational/heirloom use	Pre-war German clocks were very robust, post-war had a designed lifespan
Notable Exceptions	Cheaper “kitchen clocks” with thinner plates	Some plastic gears are used, cheaper components

*Increasing the amount of zinc in brass can make the metal more cost-effective and easier to machine, but it also tends to make the alloy less durable and more prone to dezincification (where zinc leaches out, weakening the metal).

Final Thoughts

Understanding the history and evolution of clock manufacturing helps us appreciate the balance between craftsmanship, durability, and affordability.

While antique clocks showcase the skill and time invested by individual makers, modern movements benefit from advances in manufacturing that make quality clocks more accessible, though often at the cost of durability and repairability. These factors allow collectors and enthusiasts to make informed decisions and better appreciate the unique value each era of clockmaking offers.