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Charles F. Avila

From Wikipedia, the free encyclopedia

Charles F. Avila
Born(1906-09-17)September 17, 1906
DiedOctober 29, 2000(2000-10-29) (aged 94)
AwardsIEEE Edison Medal (1968)

Charles Francis Avila (September 17, 1906 – October 29, 2000) was an American electrical engineer and a Vice President and a member of the Executive Committee of the Yankee Atomic Electric Company.[1]

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Transcription

(bouncy piano music) >> A few hundred yards after Sant'Andrea Al Quirinale, we've come to another busy intersection in Rome, and this is the church of San Carlo, St. Charles. Known as San Carlino, little St. Charles because it's a small church. Alle Quattro San Fontane The Church of St. Charles of the four fountains because we have at this intersection four fountains. Like Bernini's St. Andrews Church, Sant'Andrea Al Quirinale, this has a very limited space and the great architect, Borromini, Francesco Borromini, who was the exact contemporary of Bernini. A great friend, colleague and then rival built this basically for free. He was so grateful to this order of religion, the Trinitarians who were his first clients in Rome that he said I will waive my fee. Of course, he allowed himself full creative freedom as well. >> (laughs) Well, that's what you get when you work for free. >> When you work for free. Michaelangelo also worked for free when he was consulted architect of St. Peters, so he couldn't get sued either. The exterior, what strikes me first is it's a wave. It's this undulating surface. >> Yes, I think that's the key word for one of them anyway, for Borromini. Mathematics perhaps before everything, the pure science of mathematics, but then undulation, curving and in particular, a balance between convex and concave and this is a well-known feature of his architecture. This is a very pure example of his work. >> Let's go inside. For Borromini, more than Bernini, the science of mathematics. You have to read what Galileo wrote about this too. The idea of nature and geometry being inseparably connected and just pure light and shapes comes to the fore. What we have here is an oval shape, but it's an undulating oval. >> The basic concept doesn't really come from an oval, but from the main theme of the order of religion, that this church was owned by at this time and it still owns it, the Trinitarians, that is the followers of the Holy Trinity. Now the Trinity is a triad, God the Father, the Son and the Holy Spirit. If you think of it as a triangle and make two triangles, draw them on a piece of paper, put them side by side, that is one of the flat sides against one of the other flat sides and you have a diamond shape or a lozenge shape. If you then inscribe around that, it becomes an oval. If you inscribe within each triangle a circle and then start to draw lines from one point to another, those are the lines of the architecture of this church. From the minute we walk in, we see one series of circles intersected by the beginning of a line at what appears to be a right angle. Then we realize that this is not a right angle because it's a curve, we have a very sophiticated inter-connection of geometrical shapes. >> But there's a unity here. >> Of course all of this geometrical complexity resolves and this is also very musical and mathematical. That is a complicated equation that ends up resolving itself in a perfect number. When the eye is drawn up by these great, white columns and again a series of undulating lines that divided the lower part of the church from the upper part, we go into a purer oval and then above that, the pure white light of the real sunlight coming in through the latern and the ceiling is made of inter-connected square shapes, crosses, hexagons and octagons. These are derived by Borromini from the early Christian church of Santa Costanza outside the walls of Rome which was built in the 4th Century and has exactly this series of inter-connected geometrical shapes. This is the early Christian fascination, we could say even the Byzantine one at that point, with inter-connecting shapes that then resolve because they all fit together. >> This reminds me of Renaissance architecture in its appeal to the intellect. You have to sit and think and pay attention visually. >> Yes. I think that apparent paradox of on the one hand imagination and fantasy and emotion, on the other intelluct actually do resolve here because in the end it's this question of numbers that is so mysterious and yet it resolves in the end. Returning to music, we have to think of a great piece of music by Bach, let's say. Now the counterpart, you do not have to be an expert in counterpoint to appreciate the music of Bach, to appreciate the extraordinary melodies and harmonies and yet of course if you deconstruct, if you analyze it, we have something highly intellectual and mathematical, but we don't feel that we have to be at that level because the impact of that music is emotional. This is where we get the crossing of those two worlds. Just as when we entered this church, we feel the impact of it immediately visually without having, again as I say, to involve ourselves too intellectually. >> Yes. >> I love the decorative elements here above the entrance, foliage. >> His decorations is again symmetrical, but they all look different to begin with but actually it's one rosette. That is a rose or flower shaped piece of architectural decoration flanked by two others that are different, but they are symmetrical to each other and two more. The other thing that Borromini was very fond of and we find it throughout his architecure is, well first of all carving. I should say that he's a stone cutter by trade and his passion for detailed painstaking stone cutting is visible in every single detail of these capitols and flowers and in particular, the cherubs. Now if we look at any of his churches, we see very ornate cherubs. These are from the words in Judaism, Cherubim and Seraphim, those are the plural words, bodiless creatures who are closest to God. We might just call them angels, but they're something slightly different. They have a head and wings, but really no body. He makes an endless variation on that theme with very broad wings spreading out and the wings become like curly brackets that enclose another piece of architecture and sculpture. >> Fill those spaces, those complex spaces, beautifully. >> Yes. >> When you were saying that carving is critical, it actually made me think of some of the ornate rosary beads that come out of the Medieval period. The entire interior space almost feels as if it was carved out. Light unifies this entire space beautifully. As you were speaking of light, a shaft of sunlight came right down through the latern. >> It's brilliant and this is the advantage, of course, having white architecture as we see it now. (bouncy piano music)

Biography

Charles Francis Avila was born in Taunton, Massachusetts, on September 17, 1906. His facility for resolving seemingly insoluble problems and his vigorous leadership have contributed much to the electrical power industry. There is much in the tradition of Thomas A. Edison in the way he has worked, for Avila has the same far-reaching curiosity, the same unflagging interest in basic principles and the same unremitting perseverance. His early penchant for an engineering career became evident during his pre-high school days through his interest in the care, rebuilding, and refinishing of bicycles. He was recognized as a leader by and was a consultant to his boyhood friends in the numerous areas of model building and mechanical and electrical gadgetry.

In high school, Avila was most interested in the science courses and became an enthusiastic builder of amateur radio equipment. His limited budget made him constantly aware of the economic aspects of his projects. This combination of technological interest and economics led him to enter an integrated five-year program in Electrical Engineering and Business Administration at Harvard University from which Avila graduated in 1929 with a bachelor's degree.

Immediately after graduation, Avila entered the employ of the Boston Edison Company. During these years, he took the initiative in analyzing and solving the many problems inherent in the operation of the utility system. His contributions included a method of laying a half-mile length of cable across a lake without a barge to carry the reel; the development of a formula for safe pulling tensions to permit extra long cables between manholes; the design of a metal bellows as a flexible insert in sheaths to allow cable motion; the invention of a thermometer probe to measure accurately the temperature of cable conductors in ducts; the improvement of cable reliability by investigating the complex causes of faults under varying conditions. From this work he derived formulas whereby the combined cost of testing and the cost of outages were made a minimum.

Avila designed tanks for transformers applying a zinc spray of bituminous coating to prevent their deterioration when salt water was present. He devised slots in unfastened manhole covers to prevent them from flying up. He was a pioneer in the use of neoprene-jacketed cables to eliminate stray currents and corrosion by electrolysis. He engineered the installation of the first high voltage aluminum conductor cable in this country. As Vice President and a member of the Executive Committee of the Yankee Atomic Electric Company and as a Director of the Connecticut Yankee Atomic Power Company, he has done much to develop atomic power in New England.

Avila's method of dealing with cable failures led to his leading authority on cable design and operation. When a failure occurred, he was soon at the scene tracing the cause and minutely dissecting the faulty section to determine the source of failure. From these analyses, with the assistance of the engineers of cable companies, notable improvements in cable manufacture were developed.

Avila's interests were not confined to electrical engineering. While at Harvard, he read Ritchey's treatise on optics and telescopes and before long began grinding and mounting optical lenses which in turn led to the construction of a 6-inch telescope of excellent precision in definition and mounting. His enthusiasm influenced others and resulted in the formation of The Amateur Telescope Makers of Boston (ATMOB), a club which continues today. This club, with the assistance of Avila's expertise in optics and with the collaboration of James G. Baker of the Harvard Optical Research Laboratory and Harlow Shapley, worked on the design of an aerial camera for the National Defense Research Committee. Avila did the entire engineering work on the camera with automatic focusing for altitudes up to flying limits and self-adjustments for ground speed and distance, air density, temperature and plane rocking. This camera was used extensively in the Pacific and Korean Wars and is still in use today for tracking missiles and satellites.

Avila advanced through a series of positions with the Boston Edison Company until in 1960 he became President and General Manager and, in 1967, Chairman of the Board and Chief Executive Officer.

Avila was most interested in public affairs and contributes generously of his time. He played a large part in the conception and shaping of the New Boston and was a director of many civic and business organizations including the Greater Boston Chamber of Commerce, the John Hancock and Liberty Mutual Insurance Companies, the National Shawmut Bank of Boston, the Raytheon Company, and the New England Council.

Avila has also made considerable contributions to the field of education. As a member of the Executive Committee of the Society of Harvard Engineers and Scientists, he maintained close contact with the educational program of his Alma Mater; he was a member of the IEEE Committee on Relations with Educational Institutions. As a member of the Corporation and a Trustee of Northeastern University, he was instrumental in establishing the Power System Engineering Program, a five-year course sponsored by local utilities, designed to stimulate the interests of electrical engineering students in power engineering.

Avila was a Fellow of the IEEE. He was President of the Edison Electric Institute and he was a member of the Executive Committee of the Association of Edison Illuminating Companies. He has served on numerous committees of the IEEE and of the EEI. He received the honorary LL.D. degree from the University of Massachusetts in 1963. He received the 1968 IEEE Edison Medal; "For his early contribution to underground transmission, for his continuing guidance in the field of electrical research and for his positive leadership in the development of the electrical utility industry."

He died on October 29, 2000, in Westwood, Massachusetts.

References

  1. ^ "Charles Francis Avila". IEEE Global History Network. IEEE. Retrieved 25 July 2011.

External links

This page was last edited on 3 March 2024, at 05:33
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