Download PDF - Carl Zeiss
Download PDF - Carl Zeiss
Download PDF - Carl Zeiss
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Formulas for Success...<br />
Formulas describe the functions and processes of what<br />
happens in the world and our lives. It is often the small,<br />
insignificant formulas in particular that play a decisive<br />
role in what we know and in the functionality of modern<br />
instruments and examination methods.<br />
for the large...<br />
The fiftieth anniversary of the death of Albert Einstein<br />
(1879-1955) also marks the centennial of his theory of<br />
relativity; a theory that revolutionized perceptions, made<br />
the processes of life more understandable and began to<br />
explain the dimensions of time and space. The short formula,<br />
E =m·c 2, expresses the infinite complexity of our<br />
world. Einstein had contact with <strong>Zeiss</strong> throughout the<br />
course of his scientific activities. In 1925 he wrote to the<br />
company Anschütz in Kiel about producing a gyrocompass:<br />
“The difficulties of manufacturing are so great –<br />
accuracies of 10 -4 have to be achieved – that <strong>Zeiss</strong> is<br />
currently the only company capable of meeting the requirements.“<br />
... and small things in life.<br />
2005 also marks the 100th anniversary of the death of<br />
Ernst Abbes (1840-1905). Numerous events throughout<br />
2005 honor his many great achievements. His extensive<br />
examinations within the scope of his activities at <strong>Carl</strong><br />
<strong>Zeiss</strong>’ optical workshop also resulted in the formula for<br />
the resolution of a microscope: �<br />
d =<br />
2n sin �<br />
Innovation 15, <strong>Carl</strong> <strong>Zeiss</strong> AG, 2005<br />
Editorial<br />
It clearly and concisely describes the resolution of optical<br />
instruments using the visible spectrum of light and contributed<br />
to the improvement of optical devices.<br />
The same year also saw the passing of another German<br />
microscope manufacturer with connections to Abbe and<br />
<strong>Zeiss</strong>: Rudolf Winkel (1827-1905). During Abbe’s times,<br />
good microscopes were also built at Winkel’s workshop<br />
which was founded in Göttingen in 1857. Abbe visited<br />
Winkel’s workshop while he was a student in Göttingen.<br />
His visit in 1894 led to closer cooperation. In 1911, <strong>Zeiss</strong><br />
became Winkel’s chief partner. In October 1957, the<br />
firm R. Winkel GmbH became part of the <strong>Carl</strong> <strong>Zeiss</strong><br />
Foundation.<br />
The same year that Abbe died, Robert Koch (1843-<br />
1919) received the Nobel Prize for Medicine for his examinations<br />
and discoveries while researching tuberculosis. In<br />
1878, Robert Koch used the Abbe oil immersion system<br />
for the first time and was impressed by the “quantum<br />
leap“ made by the “<strong>Carl</strong> <strong>Zeiss</strong> Optical Workshop using<br />
Professor Abbe’s ingenious advice.“ In 1904, <strong>Carl</strong> <strong>Zeiss</strong><br />
management presented Robert Koch with the 1000 th<br />
1/12 objective lens for homogenous oil immersion.<br />
Many articles in this issue are dedicated to Ernst Abbe<br />
and his times. We reflect on what Ernst Abbe meant to<br />
<strong>Carl</strong> <strong>Zeiss</strong> and what he did for optics, and we take a special<br />
look at developments that were and continue to be<br />
significantly influenced by Ernst Abbe and his scientific<br />
results. This is emphasized by the image on the cover<br />
pages: an historical tribute to the more than 150 years of<br />
optical development with a focus on microscopy.<br />
July 2005<br />
Dr. Dieter Brocksch<br />
Scientist<br />
Entrepreneur<br />
Social Reformer<br />
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