Corrosion of Ceramic and Composite Materials, Second Edition
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United States Patent (19) 11 Patent Number: 6,114,039 Rifqi (45) Date of Patent: Sep
USOO611.4039A United States Patent (19) 11 Patent Number: 6,114,039 Rifqi (45) Date of Patent: Sep. 5, 2000 54 PROCESS FOR TREATING GLASS FOREIGN PATENT DOCUMENTS SUBSTRATES 0579.399 1/1994 European Pat. Off.. O O O 592 237 4/1994 European Pat. Off.. 75 Inventor: Francoise Rifai, Paris, France 96 11888 4/1996 WIPO. 73 Assignee: Saint Gobain Vitrage, Courbevoie, OTHER PUBLICATIONS France Database WPI, Week 30, Derwent Publications Ltd., Lon don. GB: AN 96-292416, XPOO2O17839 & JP 08 124153 21 Appl. NoNo.: 08/930,2781930, A (Nippons a 1-1s Sheet Glass Ltd)s May 17, 1996, see abstract. 22 PCT Filed: Feb. 6, 1997 Chemical abstracts, vol. 114, No. 4, Jan. 28, 1991, Colum bus, Ohio, US; abstract No. 28896t, p. 299; P002017838, see 86 PCT No.: PCT/FR97/00233 abstract & JP 02 153847 A (Murase Glass Co Ltd) Jun. 13, S371 Date: Dec. 19, 1997 1990. Data Base WPI, Week 47, Derwent Publications Ltd., Lon S 102(e) Date: Dec. 19, 1997 don GB; AN 88-336490, XP002017840 & SU 1395597 A 87 PCT Pub. No.: WO97129058 (Buraev AMI), May 15, 1998, see abstract. 87) U O / Database WPI, Week 43, Derwent Publications Ltd., London PCT Pub. Date: Aug. 14, 1997 GB; AN 82–91185e; XP002017841 & JP 57 149 850 A 30 Foreign Application Prioritv D (Tokyo Shibaura Elec Ltd), Jun. 29, 1989, see abstract. 30 oreign Application Priority Data Database WPI, Week 14, Derwent Publications, Ltd., Lon Feb. 7, 1996 FR France ................................... 96 01484 don GB; AN95-102849, XPOO2017842, & JP 07 129 169 51 Int.Ill. -
The American Ceramic Society 25Th International Congress On
The American Ceramic Society 25th International Congress on Glass (ICG 2019) ABSTRACT BOOK June 9–14, 2019 Boston, Massachusetts USA Introduction This volume contains abstracts for over 900 presentations during the 2019 Conference on International Commission on Glass Meeting (ICG 2019) in Boston, Massachusetts. The abstracts are reproduced as submitted by authors, a format that provides for longer, more detailed descriptions of papers. The American Ceramic Society accepts no responsibility for the content or quality of the abstract content. Abstracts are arranged by day, then by symposium and session title. An Author Index appears at the back of this book. The Meeting Guide contains locations of sessions with times, titles and authors of papers, but not presentation abstracts. How to Use the Abstract Book Refer to the Table of Contents to determine page numbers on which specific session abstracts begin. At the beginning of each session are headings that list session title, location and session chair. Starting times for presentations and paper numbers precede each paper title. The Author Index lists each author and the page number on which their abstract can be found. Copyright © 2019 The American Ceramic Society (www.ceramics.org). All rights reserved. MEETING REGULATIONS The American Ceramic Society is a nonprofit scientific organization that facilitates whether in print, electronic or other media, including The American Ceramic Society’s the exchange of knowledge meetings and publication of papers for future reference. website. By participating in the conference, you grant The American Ceramic Society The Society owns and retains full right to control its publications and its meetings. -
Systematic Code
So r a id a r e t h e s t r ide s made b ,, p y s c ie nc e in t h is p r o g r e s s ive ag e a nd s o bo u ndle s s is it s r a ng e th a t t h o s e wh o vi e w it s c a r e e r fr o m wi t h o u t find g r e a t diffic u lty in fo llo wi ng it s dive r s e a nd int r ic a t e p a t h -ways ; wh i le t h o s e wh o h a ve s e c u r e d a fo o ting with in t h e s a me r o a d a r e o f t en q u i t e u na bl e t o ke e p p a c e with it s fle e t mo ve me nt s a nd wo u ld fa in r e t ir e r t h u a l nt es t I t is no t s u r f o m e u neq c o . pr is i ng t h en t h a t t h o s e a c t u a lly c o nt r i dva n e me nt o s c ie nc e bu t ing t o th e a c f , ‘ p r es s ing e ag e r ly u pwa r d a nd o nwar d ' s h o u ld neg le c t t o lo o k ba c k u p o n t h e labo r s o f t h o s e wh o p r e c e de th e m a nd s h o u ld s o me t ime s l o s e s igh t o f th e o bli g a t i o ns wh ic h s c ie nc e o wes t o fo r g o t t en r t “ g e ne a io ns . -
Ceramic Engineering Building
CERAMIC ENGINEERING BUILDING UNIVERSITY OF ILLINOIS URBANA CHAMPAIGN, ILLINOIS Description of the Building and Program of Dedication, December 6 unci 7, 1916 THE TRUSTEES THE PRESIDENT AND THE FACULTY OF THIS UNIVERSITY OF ILLINOIS CORDIALLY INVITE YOU TO ATTEND THE DEDICATION OF THE CERAMIC ENGINEERING BUDUDING ON WEDNESDAY AND THURSDAY DECEMBER SIXTH AND SEVENTH NINETEEN HUNDRED SIXTEEN URBANA. ILLINOIS CERAMIC ENGINEERING BUILDING UNIVERSITY OF ILLINOIS URBANA - - CHAMPAIGN ILLINOIS DESCRIPTION OF BUILDING AND PROGRAM OF DEDICATION DECEMBER 6 AND 7, 1916 PROGRAM FOR THE DEDICATION OP THE CERAMIC ENGINEERING BUILDING OF THE UNIVERSITY OF ILLINOIS December 6 and 7> 1916 WEDNESDAY, DECEMBER 6 1.30 p. M. In the office of the Department of Ceramic Engineering, Room 203 Ceramic Engineering Building Meeting of the Advisory Board of the Department of Ceramic Engineering: F. W. BUTTERWORTH, Chairman, Danville A. W. GATES Monmouth W. D. GATES Chicago J. W. STIPES Champaign EBEN RODGERS Alton 2.30-4.30 p, M. At the Ceramic Engineering Building Opportunity will be given to all friends of the University to inspect the new building and its laboratories. INTRODUCTORY SESSION 8 P.M. At the University Auditorium DR. EDMUND J. JAMBS, President of the University, presiding. Brief Organ Recital: Guilnant, Grand Chorus in D Lemare, Andantino in D-Flat Faulkes, Nocturne in A-Flat Erb, Triumphal March in D-Flat J. LAWRENCE ERB, Director of the Uni versity School of Music and University Organist. PROGRAM —CONTINUED Address: The Ceramic Resources of America. DR. S. W. STRATTON, Director of the Na tional Bureau of Standards, Washington, D. C. I Address: Science as an Agency in the Develop ment of the Portland Cement Industries, MR. -
Reduction of Lead Leaching from Lead Crystal Glass
Ceramics - Silikaty 37, s. 193-197 (1993) 193 REDUCTION OF LEAD LEACHING FROM LEAD CRYSTAL GLASS LUDMILA RYBARIKOVA Institute of Chemical Technology, Department of Glass and Ceramics, Technicka 5, 166 28 Praha 6 Received 8. 6. 1993 The surfaces of lead crystal glass ware containing 24 wt.% PbO were dealkalized with products of decompo ° sition of ammonium chloride at temperntures of 250 - 500 C. The deposit formed 011 the glris,q surface WClS f our1d to contain also lead, apart from potassium and sodium. The lead co11ter1t was low compm·ed to that of the alkalies. Tests of surf(lre chemical dumbility with respect to W(lter by the autoclave method (IS well as long-term surface lmching with acetic acid solution showed that dealkalization reduced considernbly the leaching of alkalies c1s well as that of lead. The efficiency of the treatment increased with tempernture, but even the glass surfaces dealkalized at the lowest temperntur·es, far below the Tg of the glass, crhibitcd a very satisfactory durnbility also 011 the long-term basis. INTRODUCTION The dissociation degree depends on temperature. Both 1-ICI and NH4 CI rnay take part in the dealka A low extraction of lead from the surface is re lization. quested in the case of lead crystal ware corning into It is assumed that apart from other alkalies, also contact with foodstuffs. Although most of the current other components are extracted from the glass surface glasses so far conform to the existing standard spe to a lesser degree, mostly calcium in the case of soda cifications, extensive research aimed at reducing the lime-silicate glasses [3]. -
School of Materials, Energy, and Earth Resources
School of Materials, Energy, and Earth Resources •Ceramic Engineering •Geological Engineering •Geology & Geophysics •Metallurgical Engineering •Mining Engineering •Nuclear Engineering •Petroleum Engineering 202 — Ceramic Engineering riculum, which emphasizes fundamental principles, Ceramic Engineering practical applications, oral and written communication Bachelor of Science skills, and professional practice and ethics. The depart- ment is distinguished by a nationally recognized gradu- Master of Science ate program that emphasizes research of significance to Doctor of Philosophy the State of Missouri and the nation while providing a stimulating educational environment. The Ceramic Engineering program is offered under The specific objectives of the ceramic engineering the Department of Materials Science and Engineering. program are to: Ceramic engineers produce materials vital to many • Provide a comprehensive, modern ceramic engi- advanced and traditional technologies: electronic and neering curriculum that emphasizes the application optical assemblies, aerospace parts, biomedical compo- of fundamental knowledge and design principles to nents, nuclear components, high temperature, corro- solve practical problems; sion resistant assemblies, fuel cells, electronic packag- • Maintain modern facilities for safe, hands-on labo- ing. Ceramic engineers generally work with inorganic, ratory exercises; nonmetallic materials processed at high temperatures. • Develop oral, written, and electronic communication In the classroom, ceramic engineering -
Dupont™ Ligasep™ CO2 Removal by Dealkalization with Weak Acid
Tech Fact Removal of CO2 in Dealkalization with Weak Acid Cation Resin Application Carbon dioxide (CO2) in water is present as an equilibrium mixture of the dissolved − 2− Description gas CO2, the weak acid H2CO3, and the HCO3 and CO3 anions associated with bicarbonate and carbonate alkalinity. The exact equilibrium ratio of these four species depends on the pH and temperature of the water. In a dealkalization system using a weak acid cation (WAC) resin in the H-form, the system removes alkalinity and partially softens the water. The WAC resin exchanges hydrogen ions for hardness ions associated with alkalinity. The resulting low pH converts bicarbonate and carbonate alkalinity to dissolved CO2 gas, which is then removed by degasification. Reliably and effectively removing as much CO2 as possible by degasification reduces the amount of alkalinity that could form posttreatment due to equilibrium conversion of CO2 and protects sensitive downstream processes and equipment from potential CO2-related corrosion. Solution DuPont™ Ligasep™ Degasification Modules use a proprietary polymethylpentene (PMP) hollow fiber membrane that provides an efficient transfer of gases between a liquid and a gas. The membrane does not allow water to pass through the membrane but freely allows gas to pass through. Equilibrium between the liquid and gas phase is offset when a vacuum and a strip gas is applied to one side of the membrane. This creates a driving force to move dissolved gases from the water to the gas side of the membrane. Ligasep™ Degasification Modules offer a clean, efficient and stable process to decarbonate water to concentrations of 5 mg/L or less of CO2 (8.35 mg/L as CaCO3) to reduce the load on downstream ion exchange equipment. -
Materials of Engineering
Copyright (C) 1999 by The McGraw-Hill Companies, Inc. All rights reserved. Use of this product is subject to the terms of its License Agreement. Click here to view. Section 6 Materials of Engineering BY HOWARD S. BEAN Late Physicist, National Bureau of Standards HAROLD W. PAXTON United States Steel Professor Emeritus, Carnegie Mellon University JAMES D. REDMOND President, Technical Marketing Resources, Inc. MALCOLM BLAIR Technical & Research Director, Steel Founders Society of America ROBERT E. EPPICH Vice President, Technology, American Foundrymen's Society L. D. KUNSMAN Late Fellow Engineer, Research Labs, Westinghouse Electric Corp. C. L. CARLSON Late Fellow Engineer, Research Labs, Westinghouse Electric Corp. J. RANDOLPH KISSELL Partner, The TGB Partnership FRANK E. GOODWIN Vice President, Materials Science, ILZRO, Inc. DON GRAHAM Manager, Turning Programs, Carboloy, Inc. ARTHUR COHEN Manager, Standards and Safety Engineering, Copper Development Assn. JOHN H. TUNDERMANN Vice President, Research & Technology, INCO Alloys International, Inc. JAMES D. SHEAROUSE, III Senior Development Engineer, The Dow Chemical Co. PETER K. JOHNSON Director, Marketing & Public Relations, Metal Powder Industries Federation JOHN R. SCHLEY Manager, Technical Marketing, RMI Titanium Co. ROBERT D. BARTHOLOMEW Engineer, Powell Labs, Ltd. DAVID A. SHIFLER Metallurgist, Naval Surface Warfare Center HAROLD M. WERNER Consultant RODNEY C. DEGROOT Research Plant Pathologist, Forest Products Lab, USDA DAVID W. GREEN Supervisory Research General Engineer, Forest Products Lab, USDA ROLAND HERNANDEZ Research General Engineer, Forest Products Lab, USDA RUSSELL C. MOODY Supervisory Research General Engineer, Forest Products Lab, USDA JOSEPH F. MURPHY Supervisory General Engineer, Forest Products Lab, USDA ROBERT J. ROSS Supervisory Research General Engineer, Forest Products Lab, USDA WILLIAM T. -
Aerospace Engineering — 53
Aerospace Engineering — 53 There is instrumentation for Schlieren photography, Aerospace pressure, temperature, and turbulence measurements. A large subsonic wind tunnel, capable of speeds of up to Engineering 300 miles per hour, has a test section 4 feet wide by 2.7 feet high by 11 feet long and is complemented by a six- Bachelor of Science component balance system. Other facilities include Master of Science flight simulation laboratory, space systems engineering Doctor of Philosophy laboratory, aerospace structural test equipment, propulsion component analysis systems, and shock The Aerospace Engineering program is offered in tubes. the Department of Mechanical and Aerospace Engineering. In aerospace engineering, you will apply Mission Statement the laws of physics and mathematics to problems of To build and enhance the excellent public program aircraft flight and space vehicles in planetary that the Department of Mechanical and Aerospace atmospheres and adjoining regions of space. Maybe you Engineering currently is, and to be recognized as such; will design space shuttles, rockets, or missiles. Possibly to provide our students with experiences in solving you might design military, transport, and general open-ended problems of industrial and societal need aviation aircraft, or a V/STOL (vertical/short take-off through learned skills in integrating engineering and landing) aircraft. You could design a spacecraft to sciences, and synthesizing and developing useful travel to Mars or a more distant planet. products and processes; to provide experiences in You’ll be able to tackle problems in the leadership, teamwork, communications-oral, written environmental pollution of air and water and in the and graphic-, and hands-on activities, with the help of natural wind effects on buildings and structures. -
Glass Reactivity and Its Potential Impact on Coating Processes
Glass Technical Document | TD-106 Glass Reactivity and its Potential Impact on Coating Processes Dr. Paul F. Düffer's article addresses, Introduction explains, and offers practical suggestions Since the Middle Ages, flat glass products and recommendations for three significant have maintained a well deserved problem areas related to glass surface reputation for longevity and reliability in reactivity and chemistry: service for a wide variety of end-uses. From the intricate patterns of stained-glass Stage 1 Corrosion in Glass Racks cathedral windows to the design and and Cases performance challenges presented by the Damaging Effects of Glass Fines architectural and transportation markets of (Glass Particulates) from Glass more recent history, glass has been Edging Operations applauded as one of the most noble and "Hard" Water Silicates Deposits dependable of building materials. Therefore, and Their Effect on Subsequent except for occasional breakage, it is not Glass Coating Operations surprising that the archetypal consumer views glass as being essentially immutable This article will benefit all Vitro and virtually impervious to chemical attack. Architectural Glass (formerly PPG However, there are specific environments Industries) glass customers, particularly commonly encountered by flat glass distributors, fabricators and those who coat producers and fabricators wherein the glass. vitreous surface willingly reveals its unique reactive characteristics. The following Abstract discussion reviews important aspects of these special environments and the salient It is generally unknown that commercial flat features of glass surface reactivity and the glass exhibits distinct behavioral potential impact on coating operations. characteristics which warrant that it be classified as an "active" rather than "passive" substrate for coating applications. -
Institute of Materials Science and Engineering : Ceramics : Technical Activities 1986
- . ^4 NBS REFERENCE PUBLICATIONS IhSE .. : - NAT L INST. OF STAND & TECH R.I.C. Institute for Materials Science and Engineering A111QM Saib2M CERAMICS -QC 100 Technical Activities .1156 86-3435 1986 1986 Cover Illustration: The Ba0-Ti0rNb 20 5 Phase Diagram, determined by Dr. R. Roth, provides key data, for understanding and processing barium titanate dielectric ceramics. Further information can be found in the High Temperature Chemistry section of this report. Courtesy of Dr. R. Roth, Phase Diagrams for Ceramists Data Center MBS am RESEARCH INFORMATION CENTER N'SS'R CICipo Institute for Materials Science and Engineering \W(* CERAMICS S.M. Hsu, Chief January 1987 NBSIR 86-3435 U.S. Department of Commerce National Bureau of Standards II III ID I f it TABLE OF CONTENTS Page INTRODUCTION. 1 TECHNICAL ACTIVITIES PROPERTIES/ PERFORMANCE GROUP Mechanical Properties , .Sheldon Wiederhorn. ........ 3 Glass and Composites , .Stephen Freiman. ........... 6 Tribology , . Ronald Munro ............... 8 Optical Materials. ..Albert Feldman............. n STRUCTURE/STABILITY High Temperature Chemistry .....John Hastie 15 Structural Chemistry. ................ .Stanley Block. 22 Ceramic Powder Characterization. ..... .Alan Dragoo. 26 Surface Chemistry and Bioprocesses. .. .Frederick Brinckman. ...... 29 PROCESSING Structural Science ..Edwin Fuller 35 Ceramic Chemistry , .Kay Hardman-Rhyne 39 RESEARCH STAFF OUTPUTS AND INTERACTIONS Selected Recent Publications Selected Technical/Professional Committee Leadership 61 Industrial and Academic Interactions. Standard Reference Materials APPENDIX Ceramics Division Organization Chart Organizational Chart National Bureau of Standards Organizational Chart Institute for Materials Science 4 Engineering in ii 0 ID II II II 1 II 0 1 a a a a R R a fl INTRODUCTION Introduction The Ceramics Division was formally named in 1985 to reflect the increasing NBS emphasis on the science and technology base associated with advanced ceramics. -
High-Level Waste Borosilicate Glass a Compendium of Corrosion Characteristics
2 of 3 United States Department of Energy Office of Waste Management HIGH-LEVEL WASTE BOROSILICATE GLASS A COMPENDIUM OF CORROSION CHARACTERISTICS VOLUME 2 U. S. Department of Energy Office of Waste Management Office of Eastern Waste Management Operations High-Level Waste Division / / G-e:ZAt 7 2 of 3 United States Department of Energy Office of Waste Management HIGH-LEVEL WASTE BOROSILICATE GLASS A COMPENDIUM OF CORROSION CHARACTERISTICS VOLUME 2 U. S. Department of Energy Office of Waste Management Office of Eastern Waste Management Operations High-Level Waste Division HIGH-LEVEL WASTE BOROSILICATE GLASS: A COMPENDIUM OF CORROSION CHARACTERISTICS, VOLUME II Compiled and Edited by: J. C. Cunnane J. K Bates, C. R. Bradley, E. C. Buck, J. C. Cunnane, W. L. Ebert, X. Feng, J. J. Mazer, and D. J. Wronkiewicz Argonne National Laboratory J. Sproull Westinghouse Savannah River Company W. L. Bourcier Lawrence Livermore National Laboratory B. P. McGrail and M. K. Altenhofen Battelle Pacific Northwest Laboratory March 1994 ACKNOWLEDGMENTS Many individuals have contributed to the preparation and review of this document. The authors would like to particularly acknowledge the contributions of the Technical Review Group (TRG), Peer Reviewers who provided technical direction during the preparation of the early drafts, and the document typists (particularly Roberta Riel) who persisted through interminable change cycles. A listing of these individuals appears below: Technical Review Group David E. Clark (Chairman) - University of Florida (USA) Robert H. Doremus - Rensselaer Polytechnic Institute (USA) Bernd E. Grambow - Kernforschungszentrum Karlsruhe (Germany) J. Angwin C. Marples - Atomic Energy Authority (UK) John M. Matuszek - JMM Consulting (USA) Steering Group Rodney C.