Copyright transferring

Copyright transfer. From now on our copyright release form should read as follows ... 

Reminder When you submit yourfinal manuscript,you should include the final versions of text, tables, and illustrations, as well as any necessary permissions correspondence and a signed copyright transfer form. 

It is important to have a working knowledge of copyright law, and it is helpful to have some familiarity with contracts. Publishers and authors need to read contracts and copyright transfer forms thoroughly before signing and be certain that they understand what they are agreeing to. 

If an author s paper appeal s in an ACS division s preprint publication, contact the author first to determine whether he or she has transferred copyright in writing to the ACS division. Some divisions (e.g., Rubber Division) do require copyright transfer, so it is mandatory to contact either the author or the division to obtain the necessary permission to reuse an author s work. Other divisions do not require copyright transfer, so an author can present a paper at an ACS meeting, the preprint can be made available by an ACS division, and the full paper can be published by another publisher. 

Print or Type Author s Name and Address [ J COPYRIGHT TRANSFER BE REPRODUCED]... 

SIGN HERE FOR COPYRIGHT TRANSFER I hereby certify that 1 am authorized to sign this document either m my own right or as an agent for my employer. 

ATP copyright transferred to Can/Am ATP User Group. BPA joined Can/Am User Group... 

Figure C1.5.12.(A) Fluorescence decay of a single molecule of cresyl violet on an indium tin oxide (ITO) surface measured by time-correlated single photon counting. The solid line is tire fitted decay, a single exponential of 480 5 ps convolved witli tire instmment response function of 160 ps fwiim. The decay, which is considerably faster tlian tire natural fluorescence lifetime of cresyl violet, is due to electron transfer from tire excited cresyl violet (D ) to tire conduction band or energetically accessible surface electronic states of ITO. (B) Distribution of lifetimes for 40 different single molecules showing a broad distribution of electron transfer rates. Reprinted witli pennission from Lu andXie [1381. Copyright 1997 American Chemical Society.

Joint Ownership. Joint ownership of copyright occurs when there is joint authorship, but it may also occur in other ways, for example, by transfer of a copyright to two or more individuals, such as when an author bequeaths a copyright to two children. 

Because the circumstances under which an independendy commissioned work is considered a work made for hire are limited, the commissioning party is likely to seek a transfer of copyright in the form of an assignment or Hcense. 

Transfers and Licenses of Copyright. Like other forms of property, copyright may be freely transferred. However, there are certain special rules governing the transfer of copyrights, and certain aspects of the law concerning transfer of property are of special importance to copyright. 

Ownership of the copyright in a work is distinct from ownership of the material object, ie, the copy or phonorecord, in which the copyrighted work is embodied. The transfer of one does not constitute transfer of the other. Eor example, if a painter sells his or her painting, ie, the material object, such as canvas and oils, the painter does not automatically transfer the copyright in it sale of that copyright, so as to allow reproduction of the oil painting in printed posters, does not transfer the material object. 

In the case of joint ownership of works, where the joint owners are treated as tenants in common, each co-owner may only transfer his or her own interest in the copyright and not the co-owner s interest. Thus a co-owner may not grant an exclusive Hcense, which constitutes a transfer of copyright ownership, without the co-owner s permission. However, any co-owner may grant a nonexclusive Hcense to use the copyright without the co-owner s permission. In this case, the co-owner granting the Hcense must account to all other co-owners for their proportional shares of any profits realized by the nonexclusive Hcense. 

The Copyright Law provides a termination right to authors or, if they are dead, to their surviving spouses and children (11). Any transfer of copyright made after January 1, 1978, by an author maybe terminated between 35 and 40 years after the transfer is made, and the copyright recaptured. The technical formalities concerning such terminations are intricate. 

The Right of Public Distribution. The exclusive right to reproduce the copyrighted work also entails pubHc distribution of copies, by sale or other transfer of ownership. This right, too, is the copyright owner s. 

Fig. 5. Transfer of adsorbate moleeules to adsorbent. Repnnted from [29] with permission, copyright 1984 The McGraw Hill Companies.

Figure 9.3 Schematic illustration of the electrophoretic transfer of proteins in the chromatophoresis process. After being eluted from the HPLC column, the proteins were reduced with /3-mercaptoethanol in the protein reaction system (PRS), and then deposited onto the polyacrylamide gradient gel. (PRC, protein reaction cocktail). Reprinted from Journal of Chromatography, 443, W. G. Button et al., Separation of proteins by reversed-phase Mgh-performance liquid cliromatography , pp 363-379, copyright 1988, with permission from Elsevier Science.

Figure 13.7 Selectivity effected by employing different step gradients in the coupled-column RPLC analysis of a surface water containing 0.40 p-g 1 bentazone, by using direct sample injection (2.00 ml). Clean-up volumes, (a), (c) and (d) 4.65 ml of M-1, and (b) 3.75 ml of M-1 transfer volumes, (a), (c) and (d), 0.50 ml of M-1, and (b), 0.40 ml of M-1. The displayed cliromatograms start after clean-up on the first column. Reprinted from Journal of Chromatography, A 644, E. A. Hogendoom et al, Coupled-column reversed-phase liquid chromatography-UV analyser for the determination of polar pesticides in water , pp. 307-314, copyright 1993, with permission from Elsevier Science.

Figure 13.9 Coupled-column RPLC-UV (215 nm) analysis of 100 p.1 of an extract of a spiked soil sample (fenpropimoiph, 0.052 mg Kg ). LC conditions C-1, 5 p.m Hypersil SAS (60 m X 4.6 mm i.d.) C-2, 5 p.m Hypersil ODS (150 m X 4.6 mm i.d.) M-1, acetonitrile-0.5 % ammonia in water (50 50, v/v) M-2, acetonitrile-0.5 % ammonia in water (90 10, v/v) flow-rate, 1 ml min clean-up volume, 5.9 ml transfer volume, 0.45 ml. The dashed line represents the cliromatogram obtained when using the two columns connected in series without column switcliing. Reprinted from Journal of Chromatography A, 703, E. A. Hogendoom and R van Zoonen, Coupled-column reversed-phase liquid cliromatography in envir onmental analysis , pp. 149-166, copyright 1995, with permission from Elsevier Science.

All rights reserved under International and Pan-American Copyright Conventions. By payment of the required fees, you have been granted the non-exclusive, non-transferable right to access and read the text of this e-book on-screen. No part of this text may be reproduced, transmitted, down-loaded, decompiled, reverse engineered, or stored in or introduced into any information storage and retrieval system, in any form or by any means, whether electronic or mechanical, now known or hereinafter invented, without the express written permission of HarperCollins e-books. 

FIG. 9 Silver nanoparticles capped by 4-carboxythiophenol electrostatically adsorbed to positively charged octadecylamine monolayers, (a) Mass uptake versus number of layers at subphase pH 12 and pH 9 the inset shows the contact angle of water versus the number of layers, (b) Absorbance spectra as a function of the number of layers transferred (left), with the inset showing the plasmon absorbance at 460 nm versus the number of layers. Thickness versus number of layers as determined by optical interferometry is shown on the right. (Reprinted with permission from Ref. 103. Copyright 1996 American Chemical Society.)... 

FIG. 11 TEM images of 2.8-nm-diameter silver particles capped by dodecanethiol that were horizontally transferred from the water surface at a surface pressure just below that at which the film would collapse. The top figure is a higher-resolution image of this phase of particles. (Reprinted with permission from Ref. 121. Copyright 1997 American Chemical Society.)... 

FIG. 18 Scanning force microscopy images, (a) C60 transferred horizontally onto highly oriented pyrolytic graphite (HOPG) at 25 mN m. (b) 1 1 mixed film of C60 and arachidic acid transferred horizontally onto HOPG at 25 mN m. (Reproduced with permission from Ref. 235. Copyright 1996 American Chemical Society.)... 

Figure 1. Diagram of the venom duct of Conus. The venom is produced in the venom duct, apparently expelled from the duct into the proboscis by contraction of the venom bulb. Simultaneously, a harpoon-like tooth is transferred from the radula sac to the proboscis. When injection takes place, the venom is pushed through the hollow tooth and flows into the prey through a hole at the tip of the tooth. Typically, fish-hunting cones will strike at a fish only once and grasp the tooth after injection has occurred, effectively harpooning their prey while injecting the paralytic venom. In contrast, snail-hunting cones will usually sting their prey several times before total paralysis occurs. (Reprinted with permission from the Second Revised Edition of Ref. 8. Copyright 1988 Darwin Press, Inc.)...

Figure 1.45 Coherence transfer pathways in 2D NMR experiments. (A) Pathways in homonuclear 2D correlation spectroscopy. The first 90° pulse excites singlequantum coherence of order p= . The second mixing pulse of angle /3 converts the coherence into detectable magnetization (p= —1). (Bra) Coherence transfer pathways in NOESY/2D exchange spectroscopy (B b) relayed COSY (B c) doublequantum spectroscopy (B d) 2D COSY with double-quantum filter (t = 0). The pathways shown in (B a,b, and d) involve a fixed mixing interval (t ). (Reprinted from G. Bodenhausen et al, J. Magn. Resonance, 58, 370, copyright 1984, Rights and Permission Department, Academic Press Inc., 6277 Sea Harbor Drive, Orlando, Florida 32887.)...

Figure 6.4 Three-dimensional spectrum of a three-spin system showing peak types appearing in a three-dimensional space. Three diagonal peaks, six (wi = Wj) and six (wj = w,) cross-signal peaks, six back-transfer peaks, and six cross-peaks are present in the cube, (a) The cubes (b-d) represent three planes in which crossdiagonal peaks and the back-transfer peaks appear on their respective (atj = 0)2), u>2 = cof), and ( >i = Wj) planes. (Reprinted from J. Mag. Reson. 84, C. Griesinger, et al., 14, copyright (1989), with permission from Academic Press, Inc.)...

Figure 7.3 One-dimensional COSYspectram for an AX system, (a) A common ID sjjectrum. (b) Selective excitation of spin A leads to a ID COSY spectrum with antiphase X lines and maximum transfer of magnetization from A to X. (Reprinted from Mag. Reson. Chem. 29, H. Kessler et at, 527, copyright (1991), with permission from John Wiley and Sons Limited, Baffins Lane, Chichester, Sussex P019 lUD, England.)...

---