995 resultados para Printing, Hebrew
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"Edizione di soli 150 esemplari."
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Includes bibliographical references.
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by Elkan Nathan Adler
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by David Werner Amram
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Teilw. in hebr. Schr. und Sprache
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by Aron Freimann. With a foreword by Joshua Bloch
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by Joshua Bloch
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One octavo-sized leaf containing a handwritten financial plans for printing 500 copies of the Hebrew Grammar, and, on the verso, an outline for printing 1,000 copies, signed by Judah Monis.
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A one-page handwritten computation by Judah Monis for printing the Hebrew Grammar and binding it in sheep and calf skins. The document was written on one folio-sized leaf that is torn in two pieces.
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A one-page handwritten list of instructions, in President Benjamin Wadsworth's hand, for printing, distributing, and collecting revenue on the Hebrew Grammar.
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A half-page handwritten statement compiled by Judah Monis for the Harvard Corporation listing costs between July 2, 1734 and February 17, 1734 related to the printing of the Hebrew Grammar.
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One-page handwritten itemized bill from Judah Monis listing the cost for printing a sample page of the Hebrew Grammar as well as lodging and transportation expenses for May 31-June 1, 1728.
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"First edition printed April 1894...twenty--ninth printing 1970."
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A phase shift proximity printing lithographic mask is designed, manufactured and tested. Its design is based on a Fresnel computer-generated hologram, employing the scalar diffraction theory. The obtained amplitude and phase distributions were mapped into discrete levels. In addition, a coding scheme using sub-cells structure was employed in order to increase the number of discrete levels, thus increasing the degree of freedom in the resulting mask. The mask is fabricated on a fused silica substrate and an amorphous hydrogenated carbon (a:C-H) thin film which act as amplitude modulation agent. The lithographic image is projected onto a resist coated silicon wafer, placed at a distance of 50 mu m behind the mask. The results show a improvement of the achieved resolution - linewidth as good as 1.5 mu m - what is impossible to obtain with traditional binary masks in proximity printing mode. Such achieved dimensions can be used in the fabrication of MEMS and MOEMS devices. These results are obtained with a UV laser but also with a small arc lamp light source exploring the partial coherence of this source. (C) 2010 Optical Society of America