Porcelain a Diverse Medium for Modern Times
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7 Great Pottery Projects
ceramic artsdaily.org 7 great pottery projects | Second Edition | tips on making complex pottery forms using basic throwing and handbuilding skills This special report is brought to you with the support of Atlantic Pottery Supply Inc. 7 Great Pottery Projects Tips on Making Complex Pottery Forms Using Basic Throwing and Handbuilding Skills There’s nothing more fun than putting your hands in clay, but when you get into the studio do you know what you want to make? With clay, there are so many projects to do, it’s hard to focus on which ones to do first. So, for those who may wany some step-by-step direction, here are 7 great pottery projects you can take on. The projects selected here are easy even though some may look complicated. But with our easy-to-follow format, you’ll be able to duplicate what some of these talented potters have described. These projects can be made with almost any type of ceramic clay and fired at the recommended temperature for that clay. You can also decorate the surfaces of these projects in any style you choose—just be sure to use food-safe glazes for any pots that will be used for food. Need some variation? Just combine different ideas with those of your own and create all- new projects. With the pottery techniques in this book, there are enough possibilities to last a lifetime! The Stilted Bucket Covered Jar Set by Jake Allee by Steve Davis-Rosenbaum As a college ceramics instructor, Jake enjoys a good The next time you make jars, why not make two and time just like anybody else and it shows with this bucket connect them. -
Porcelain Cíqì 瓷 器
◀ POLO, Marco Comprehensive index starts in volume 5, page 2667. Porcelain Cíqì 瓷器 Porcelain was first made in China about 850ce . The essential ingredient is kaolin, a white clay that when fired at an extremely high temper- ature acquires a glassy surface. Porcelain wares were first exported to Europe during the twelfth century. By 1700 trade in Chinese porcelain was immense, with Ming dynasty wares, characterized by cobalt-blue-painted motifs, highly prized. orcelain is ceramic material made with kaolin, which is a fine, white clay. Porcelain wares were first made in China about 850ce during the Tang Ornately painted porcelain bowl. Potters of the dynasty (618– 907 ce). An Islamic traveler who had vis- Ming dynasty concentrated more on painted ited China in 851 saw clay vessels that resembled glass. design and less on form. Photo by Berkshire Evidence indicates that fine, white stoneware (pottery Publishing. made from high-firing clay other than kaolin) was made in China as early as 1400 bce, and potters appear to have been familiar with kaolin during the Han dynasty rather than gray or brown or rust colored) and high fusion (206 bce – 2 2 0 ce). But the forerunner of modern-day por- temperature (the high heat required to turn the ingredi- celain was not made until the Tang dynasty. Tang dynasty ents into porcelain). Chemically kaolin is made up of kao- porcelain is known as “hard-paste” or “true porcelain” and linite, quartz, feldspar, muscovite, and anastase. Kaolin was made by mixing kaolin, which is formed by the decay and petuntse are fused by firing in a kiln at 980º C, then of feldspar, a chief constituent of granite, with petuntse, dipped in glaze and refired at about 1,300º C. -
Phase Evolution of Ancient and Historical Ceramics
EMU Notes in Mineralogy, Vol. 20 (2019), Chapter 6, 233–281 The struggle between thermodynamics and kinetics: Phase evolution of ancient and historical ceramics 1 2 ROBERT B. HEIMANN and MARINO MAGGETTI 1Am Stadtpark 2A, D-02826 Go¨rlitz, Germany [email protected] 2University of Fribourg, Department of Geosciences, Earth Sciences, Chemin du Muse´e 6, CH-1700 Fribourg, Switzerland [email protected] This contribution is dedicated to the memory of Professor Ursula Martius Franklin, a true pioneer of archaeometric research, who passed away at her home in Toronto on July 22, 2016, at the age of 94. Making ceramics by firing of clay is essentially a reversal of the natural weathering process of rocks. Millennia ago, potters invented simple pyrotechnologies to recombine the chemical compounds once separated by weathering in order to obtain what is more or less a rock-like product shaped and decorated according to need and preference. Whereas Nature reconsolidates clays by long-term diagenetic or metamorphic transformation processes, potters exploit a ‘short-cut’ of these processes that affects the state of equilibrium of the system being transformed thermally. This ‘short-cut’ is thought to be akin to the development of mineral-reaction textures resulting from disequilibria established during rapidly heated pyrometamorphic events (Grapes, 2006) involving contact aureoles or reactions with xenoliths. In contrast to most naturally consolidated clays, the solidified rock-like ceramic material inherits non-equilibrium and statistical states best described as ‘frozen-in’. The more or less high temperatures applied to clays during ceramic firing result in a distinct state of sintering that is dependent on the firing temperature, the duration of firing, the firing atmosphere, and the composition and grain-size distribution of the clay. -
The Exploration of Sr Isotopic Analysis Applied to Chinese Glazes: Part Oneq
Journal of Archaeological Science xxx (2013) 1e8 Contents lists available at ScienceDirect Journal of Archaeological Science journal homepage: http://www.elsevier.com/locate/jas The exploration of Sr isotopic analysis applied to Chinese glazes: part oneq Hongjiao Ma a, Julian Henderson a, *, Jane Evans b a Department of Archaeology, University of Nottingham, University Park, Nottingham NG7 2RD, UK b NERC Isotope Geosciences Laboratory, British Geological Survey, Keyworth, Nottingham NG12 5GG, UK article info abstract Article history: Ash glaze and limestone glaze are two major glaze types in southern Chinese ceramic technology. In this Received 4 March 2013 study strontium isotope compositions were determined in ash glaze samples from the Yue kiln dated to Received in revised form between the 10th and 12th centuries AD, limestone glaze samples from Jingdezhen dated to between the 26 July 2013 15th and 18th centuries AD and ceramic raw materials from Jingdezhen. The Sr isotopic characteristics of Accepted 12 August 2013 limestone glaze and ash glaze are completely different. The Sr isotope characteristics of limestone glaze is characterised by low Sr concentrations, large 87Sr/86Sr variation, and a two component mixing line. On Keywords: the other hand the strontium isotope characteristic of ash glaze samples is characterised by a consistent Chinese glaze 87 86 Raw materials Sr/ Sr signature and high Sr concentrations with a large variation. The different Sr isotope composi- fl Strontium isotopes tions for the two types of glazes are a re ection of the various raw materials involved in making them. TIMS The Sr isotopic composition has been altered by the refinement process that the raw material was subjected to. -
Color in Salt Glaze
Portland State University PDXScholar Dissertations and Theses Dissertations and Theses 8-1-1967 Color in salt glaze Daniel Lee Stevens Portland State University Follow this and additional works at: https://pdxscholar.library.pdx.edu/open_access_etds Let us know how access to this document benefits ou.y Recommended Citation Stevens, Daniel Lee, "Color in salt glaze" (1967). Dissertations and Theses. Paper 561. https://doi.org/10.15760/etd.561 This Thesis is brought to you for free and open access. It has been accepted for inclusion in Dissertations and Theses by an authorized administrator of PDXScholar. Please contact us if we can make this document more accessible: [email protected]. AN ABSTRACT OF THE THESIS OF Daniel Lee Stevens for the Master of Science in teaching in Cerami~s 'presented 0:0 August 7, 1967. Title: COLOR IN SALT GLAZE. , Abs tract approved: This thesis endeavors to bring a brief history of salt glaze to the reader, following i~s ge~esisin Germany to England and the American colonies and its continuation to the prese~t day. In order to conduct research on color in salt glaze~ a kiln had to be built for this purpose, meeting all the requirements 'that this tech- nique demands. Studies were ~ade on clay bodies to determine their throwing qualities as well as their ability to take a salt glaze. Finally, research was carried out 'in many serfes of tests studying the reactions of'various engobes and other coloring materials when ,fired in the salt glaze kiln. \ .' COLOR IN SALT GLAZE by Daniel Lee Stevens A THESIS submitted to .Portland State College, in partial fulfillment of the requirements for the degree of Master of Science in Teaching August 1967 \ I PORTLAND STATE COL~EGE LIBRARY' . -
Fast Fossils Carbon-Film Transfer on Saggar-Fired Porcelain by Dick Lehman
March 2000 1 2 CERAMICS MONTHLY March 2000 Volume 48 Number 3 “Leaves in Love,” 10 inches in height, handbuilt stoneware with abraded glaze, by Michael Sherrill, Hendersonville, North FEATURES Carolina. 34 Fast Fossils 40 Carbon-Film Transfer on Saggar-Fired Porcelain by Dick Lehman 38 Steven Montgomery The wood-firing kiln at Buck Industrial imagery with rich texture and surface detail Pottery, Gruene, Texas. 40 Michael Sherrill 62 Highly refined organic forms in porcelain 42 Rasa and Juozas Saldaitis by Charles Shilas Lithuanian couple emigrate for arts opportunities 45 The Poetry of Punchong Slip-Decorated Ware by Byoung-Ho Yoo, Soo-Jong Ree and Sung-Jae Choi by Meghen Jones 49 No More Gersdey Borateby JejfZamek Why, how and what to do about it 51 Energy and Care Pit Firing Burnished Pots on the Beach by Carol Molly Prier 55 NitsaYaffe Israeli artist explores minimalist abstraction in vessel forms “Teapot,” approximately 9 inches in height, white 56 A Female Perspectiveby Alan Naslund earthenware with under Female form portrayed by Amy Kephart glazes and glazes, by Juozas and Rasa Saldaitis, 58 Endurance of Spirit St. Petersburg, Florida. The Work of Joanne Hayakawa by Mark Messenger 62 Buck Pottery 42 17 Years of Turnin’ and Burnin’ by David Hendley 67 Redware: Tradition and Beyond Contemporary and historical work at the Clay Studio “Bottle,” 7 inches in height, wheel-thrown porcelain, saggar 68 California Contemporary Clay fired with ferns and sumac, by The cover:“Echolalia,” San Francisco invitational exhibition Dick Lehman, Goshen, Indiana. 29½ inches in height, press molded and assembled, 115 Conquering Higher Ground 34 by Steven Montgomery, NCECA 2000 Conference Preview New York City; see page 38. -
9. Ceramic Arts
Profile No.: 38 NIC Code: 23933 CEREMIC ARTS 1. INTRODUCTION: Ceramic art is art made from ceramic materials, including clay. It may take forms including art ware, tile, figurines, sculpture, and tableware. Ceramic art is one of the arts, particularly the visual arts. Of these, it is one of the plastic arts. While some ceramics are considered fine art, some are considered to be decorative, industrial or applied art objects. Ceramics may also be considered artifacts in archaeology. Ceramic art can be made by one person or by a group of people. In a pottery or ceramic factory, a group of people design, manufacture and decorate the art ware. Products from a pottery are sometimes referred to as "art pottery".[1] In a one-person pottery studio, ceramists or potters produce studio pottery. Most traditional ceramic products were made from clay (or clay mixed with other materials), shaped and subjected to heat, and tableware and decorative ceramics are generally still made this way. In modern ceramic engineering usage, ceramics is the art and science of making objects from inorganic, non-metallic materials by the action of heat. It excludes glass and mosaic made from glass tesserae. There is a long history of ceramic art in almost all developed cultures, and often ceramic objects are all the artistic evidence left from vanished cultures. Elements of ceramic art, upon which different degrees of emphasis have been placed at different times, are the shape of the object, its decoration by painting, carving and other methods, and the glazing found on most ceramics. 2. -
Etch Imitation System for Porcelain and Bone China (One-Fire-Decal-Method)
Etch Imitation System for Porcelain and Bone China (One-Fire-Decal-Method) 1 General Information Etched decorations belong to the richest, most valuable precious metal designs to be found on tableware. However, etched decorations are not only work-intensive and expensive but they also require working with aggressive acids. Instead, producers work with etching imitation systems in which first a decal with a matt underlay and a bright relief on top is produced, applied onto the substrate to be decorated, and fired. Secondly, a liquid precious metal is applied by brush on top of the relief and the item is fired for a second time. With this Technical Information, Heraeus Ceramic Colours introduces a one-fire-etch imitation system for decals. The new decoration system consists of carefully adjusted components: special underlay, special medium, relief, precious metal paste. The perfect harmony of these components allows the production of an imitation etching in one decal, which only needs to be transferred and fired once! 2 Firing Conditions Substrate Firing Condition s Porcelain 800 - 820°C (1470-1508°F), 2 to 3 hours cold/cold Bone China 800 - 820°C (1470-1508°F), 2 to 3 hours cold/cold Worldwide there are many different glazes. The firing conditions differ from producer to producer. Pre-tests under own individual conditions are absolutely necessary. 3 Characteristics of the Products The product composition and the production process determine the major product characteristics of the components of the decoration system. Testing each production lot guarantees a constant product quality. With regard to the bright precious metal pastes of the system we regularly check the viscosity, the printing characteristics, the outline of printed test decorations as well as the precious metal colour shade and the brightness of the decoration after firing on a defined test substrate. -
Clay Minerals Soils to Engineering Technology to Cat Litter
Clay Minerals Soils to Engineering Technology to Cat Litter USC Mineralogy Geol 215a (Anderson) Clay Minerals Clay minerals likely are the most utilized minerals … not just as the soils that grow plants for foods and garment, but a great range of applications, including oil absorbants, iron casting, animal feeds, pottery, china, pharmaceuticals, drilling fluids, waste water treatment, food preparation, paint, and … yes, cat litter! Bentonite workings, WY Clay Minerals There are three main groups of clay minerals: Kaolinite - also includes dickite and nacrite; formed by the decomposition of orthoclase feldspar (e.g. in granite); kaolin is the principal constituent in china clay. Illite - also includes glauconite (a green clay sand) and are the commonest clay minerals; formed by the decomposition of some micas and feldspars; predominant in marine clays and shales. Smectites or montmorillonites - also includes bentonite and vermiculite; formed by the alteration of mafic igneous rocks rich in Ca and Mg; weak linkage by cations (e.g. Na+, Ca++) results in high swelling/shrinking potential Clay Minerals are Phyllosilicates All have layers of Si tetrahedra SEM view of clay and layers of Al, Fe, Mg octahedra, similar to gibbsite or brucite Clay Minerals The kaolinite clays are 1:1 phyllosilicates The montmorillonite and illite clays are 2:1 phyllosilicates 1:1 and 2:1 Clay Minerals Marine Clays Clays mostly form on land but are often transported to the oceans, covering vast regions. Kaolinite Al2Si2O5(OH)2 Kaolinite clays have long been used in the ceramic industry, especially in fine porcelains, because they can be easily molded, have a fine texture, and are white when fired. -
How to Add Color to Your Ceramic Art
ceramic artsdaily.org how to add color to your ceramic art a guide to using ceramic colorants, ceramic stains, and ceramic oxides www.ceramicartsdaily.org | Copyright © 2010, Ceramic Publications Company | How to Add Color to Your Ceramic Art | i How to Add Color to Your Ceramic Art A Guide to Using Ceramic Colorants, Ceramic Stains, and Ceramic Oxides Adding color to your ceramic art can be a tricky proposition. Unlike working with paints, what you put on your prize pot or sculpture can be very different from how it looks before and after firing. As a general rule, ceramic stains and ceramic pigments look pretty much the same before and after firing while ceramic oxides like iron oxide, cobalt oxide, and copper oxide as well as cobalt carbonate and copper carbonate all look very different. In this guide you’ll discover a little help to better understand what, how, and why ceramic colorants work in a glaze. Enjoy! The World of Ceramic Colorants by Robin Hopper The potter’s palette can be just as broad as the painter’s because there are so many ceramic colorants and combinations to choose from. By combining ceramic oxides, ceramic stains, and ceramic pigments in various proportions, you can get every color in the spectrum. The Many Faces of Iron Oxide by Dr. Carol Marians Glaze ingredients, the clay body, firing atmosphere, and even kiln-stacking techniques can all affect your firing results. Red iron oxide is one of the ceramic colorants that’s quite temperamental and affected by a lot of variables. From dark brown to unusual speckles, red iron oxide can offer a lot for a single ceramic colorant. -
Chromaphobia | Chromaphilia Presenting KCAI Alumni in the Ceramic Arts
Chromaphobia | Chromaphilia Presenting KCAI Alumni in the Ceramic Arts Kansas City Art Institute Gallery March 16 – June 3, 2016 Exhibition Checklist Chromaphobia Untitled Chromaphilia Lauren Mabry (’07 ceramics) 2015 Curved Plane Laura De Angelis (’95 sculpture) Silver plated brass and porcelain Cary Esser (‘78 ceramics) 2012 Hybrid Vigor 13 x 16 x 20 inches Chromaphilia Veils Red earthenware, slips, glaze 2012 Courtesy of the Artists 2015-2016 24 x 60 x 15 inches Ceramic, encaustic, fresh water pearls Glazed earthenware Dick and Gloria Anderson Collection, 20.5 x 16 x 9 inches Nathan Mabry (’01 ceramics) 16 x 79 x .75 inches Lake Quivira, Kansas Courtesy of Sherry Leedy Vanitas (Banana) Courtesy of Sherry Leedy Contemporary Art, Kansas City 2007 Contemporary Art, Kansas City and Fragmented Cylinder Cast rubber the Artist 2012 Teri Frame (’05 ceramics; art history) 8 x 8 x 8 inches red earthenware, slips, glaze Sons of Cain Lithophane #1 Courtesy of Cherry and Martin, Los Christian Holstad (’94 ceramics) 20 x 24 x 22 inches 2016 Angeles and the Artist Ouroboros 6 (Red with green and yellow snake) Dick and Gloria Anderson Collection, Bone china, walnut 2012 Lake Quivira, Kansas 9 x 7 x .25 inches Nobuhito Nishigawara Vintage glove, fiberfill and antique obi Courtesy of the Artist (’99 ceramics) 39 x 17 x 16 inches Pipe Form Untitled - Manual 3D Like Printer Courtesy of the Artist and Andrew 2014 Sons of Cain Lithophane #2 2013 Kreps Gallery, New York Red earthenware, slips and glaze 2016 Clay 20 x 28 x 28 inches Bone china, walnut 23 x -
The Kangaroo Island China Stone and Clay Company and Its Forerunners
The Kangaroo Island China Stone and Clay Company and its Forerunners ‘There’s more stuff at Chinatown – more tourmalines, more china clay, silica, and mica – than was ever taken out of it’. Harry Willson in 1938.1 Introduction In September 2016 a licence for mineral exploration over several hectares on Dudley Peninsula, Kangaroo Island expired. The licensed organisation had searched for ‘ornamental minerals’ and kaolin.2 Those commodities, tourmalines and china stone, were first mined at this site inland and west of Antechamber Bay some 113 years ago. From March 1905 to late 1910, following the close of tourmaline extraction over 1903-04, the Kangaroo Island China Stone and Clay Company mined on the same site south-east of Penneshaw, and operated brick kilns within that township. This paper outlines the origin and short history of that minor but once promising South Australian venture. Tin and tourmaline The extensive deposits inadvertently discovered during the later phase of tourmaline mining were of china (or Cornish) stone or clay (kaolin), feldspar (basically aluminium silicates with other minerals common in all rock types), orthoclase (a variant of feldspar), mica, quartz, and fire-clay. The semi-precious gem tourmaline had been chanced upon in a corner trench that remained from earlier fossicking for tin.3 The china stone and clay industry that was poised to supply Australia’s potteries with almost all their requisite materials and to stimulate ceramic production commonwealth-wide arose, therefore, from incidental mining in the one area.4 About 1900, a granite dyke sixteen kilometres south-east of Penneshaw was pegged out for the mining of allegedly promising tin deposits.