Which Black Oil Color Should I Paint With?
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MSDS for #00686 - HEAVY BODY ACRYLIC Page 1 of 10
MSDS for #00686 - HEAVY BODY ACRYLIC Page 1 of 10 MATERIAL SAFETY DATA SHEET SECTION 1 – COMPANY AND PRODUCT IDENTIFICATION Golden Artist Colors, Inc. Date Revised: 4/5/2013 188 Bell Road Phone: (607)847-6154 New Berlin, NY 13411 Prepared by: Ben Gavett HAZARDOUS COMPONENTS (See Sec. 3) COLOR LINES GOLDEN Airbrush Colors 1,29 GOLDEN Acrylics 1,29 GOLDEN Fluid Acrylics 1,29 GOLDEN High Flow Acrylics 1,29 GOLDEN High Load Acrylics 1,5,20,29 GOLDEN Glazes 1,5,29 GOLDEN Matte Acrylics 1,5,20,29 GOLDEN Matte Fluid Acrylics 1,5,20,29 GOLDEN OPEN Acrylics 1,29 Individual Colors Alizarin Crimson Hue - Anthraquinone Blue - Anthraquinone Red - Aurolein Yellow Hue 24 Azurite Hue 19,34 Bismuth Vanadate Yellow 8.5 Bone Black 13 Bright Orange - Bright Red Orange - Bright Yellow-Green - Burnt Sienna 20,24 Burnt Sienna Hue - Burnt Umber & Burnt Umber Light 20,24,25 Cadmium Red Medium Hue - Cadmium Yellow Medium Hue 6,28 Carbon Black 13 Cerulean Blue, Chromium 14,18 Cerulean Blue Deep 14,18 Cerulean Blue Hue 3,5,19,33 Chrome Oxide Green (all) 14 C.P. Cadmium Orange 7,9,10 C.P. Cadmium Red (all) 7,9,10 C.P. Cadmium Yellow (Dark, Lt., Med.) 7,9,35 C.P. Cadmium Yellow Primrose 7,9,35 Coarse Alumina 4,33 Cobalt Blue 18 Item Numbers: 00686-2129 Page 1 of 101 MSDS for #00686 - HEAVY BODY ACRYLIC Page 2 of 10 Cobalt Blue Hue 19,33 Cobalt Green 14,18 Cobalt Teal 18 Cobalt Titanate Green 6,18,28 Cobalt Turquoise 14,18 Cobalt Violet Hue 34 Deep Violet - Diarylide Yellow - Dioxazine Purple - Fluorescent (all colors) 22 Graphite Gray 23 Green Gold 8,28 Hansa Yellow (Lt., Med. -
Tucson Art Academy Online Skip Whitcomb
TUCSON ART ACADEMY ONLINE SKIP WHITCOMB PAINTS WHITE Any good to professional quality Titanium or Titanium/Zinc White in large tubes(150-200ML) size. Jack Richeson Co., Gamblin, Vasari, Utrecht, Winsor & Newton are all good brands, as are several other European manufacturers. I strongly recommend staying away from student grade paints, they do not mix or handle the same as higher/professional grade paints. YELLOWS Cadmium Yellow Lemon Cadmium Yellow Lt. (warm) Cad. Yellow Medium or Deep Indian Yellow ORANGES Cadmium Yellow Orange (optional) Cadmium Orange REDS Cadmium Red Light/ Pale/ Scarlet (warm) Cadmium Red Deep Permanent Alizarin Crimson Permanent Rose (Quinacridone) BLUES Ultramarine Blue Deep or Dark Cobalt Blue Prussian Blue or Phthalo Blue GREENS Viridian Viridian Hue (Phthalo Green) Chrome Oxide Green Olive Green Sap Green Yellow Green VIOLETS Mauve Blue Shade (Winsor&Newton) Dioxazine Violet or Purple EARTH COLORS Yellow Ochre Raw Sienna Raw Umber Burnt Sienna Terra Rosa Indian Red Venetian Red Burnt Umber Van Dyke Brown BLACKS Ivory Black Mars Black Chromatic Black Blue Black MARS COLORS Mars Yellow Mars Orange Mars Red Mars Violet IMPORTANT TO NOTE!! Please don’t be intimidated by this list! You will not be required to have all these colors on hand for our class. This is intended to be a recommendation for the studio. Specific colors on this list will come in handy for mixing in certain color plans. I will be happy to make suggestions along the way A good working palette for the studio would be: Cad. Yellow Lemon, Cad. Yellow Pale(warm), and/or Cad. -
Color Gamut of Halftone Reproduction*
Color Gamut of Halftone Reproduction* Stefan Gustavson†‡ Department of Electrical Engineering, Linkøping University, S-581 83 Linkøping, Sweden Abstract tern then gets attenuated once more by the pattern of ink that resides on the surface, and the finally reflected light Color mixing by a halftoning process, as used for color is the result of these three effects combined: transmis- reproduction in graphic arts and most forms of digital sion through the ink film, diffused reflection from the hardcopy, is neither additive nor subtractive. Halftone substrate, and transmission through the ink film again. color reproduction with a given set of primary colors is The left-hand side of Fig. 2 shows an exploded view of heavily influenced not only by the colorimetric proper- the ink layer and the substrate, with the diffused reflected ties of the full-tone primaries, but also by effects such pattern shown on the substrate. The final viewed image as optical and physical dot gain and the halftone geom- is a view from the top of these two layers, as shown to etry. We demonstrate that such effects not only distort the right in Fig. 2. The dots do not really increase in the transfer characteristics of the process, but also have size, but they have a shadow around the edge that makes an impact on the size of the color gamut. In particular, a them appear larger, and the image is darker than what large dot gain, which is commonly regarded as an un- would have been the case without optical dot gain. wanted distortion, expands the color gamut quite con- siderably. -
Brochure Colour Chart New Masters Classic Acrylics
New Master Classic Acryllic Colours NEW MASTERS C L S A I C S S L I C A C R Y Pigment Identification A601 TITANIUM WHITE PW6 B682 INDIGO EXTRA PB15:2 - PR177 - PBL7 B826 IRIDESCENT SILVER MICA - PBL7 - PW6 NEW MASTERS A602 ZINC WHITE PW4 B683 CYAN BLUE PW4 - PB15:2 - PB29 B827 IRIDESCENT PEWTER MICA - PBL7 - PB15:2 - PW6 C A603 TITANIUM WHITE EXTRA OPAQUE PW6 A684 OLD HOLLAND BLUE LIGHT PW6 - PB15:2 B828 IRIDESCENT BRIGHT GOLD MICA - PW6 L S A604 MIXED WHITE PW6-PW4 C685 MANGANESE BLUE EXTRA PB15 - PB35 - PG50 B829 IRIDESCENT ROYAL GOLD MICA - PW6 A C A605 OLD HOLLAND YELLOW LIGHT PW6-PY184 E686 CERULEAN BLUE PB35 B830 IRIDESCENT BRONZE MICA - PW6 S L I A606 TITANIUM BUFF LIGHT PW6-PY42 A687 OLD HOLLAND BLUE MEDIUM PW6 - PB29 - PB15:2 B831 IRIDESCENT LIGHT COPPER MICA - PW6 S Y A607 TITANIUM BUFF DEEP PW6-PY42-PBR7 B688 OLD HOLLAND BLUE-GREY PW6 - PB29 - PBL7 B832 IRIDESCENT DEEP COPPER MICA - PW6 I C C R B608 OLD HOLLAND YELLOW MEDIUM PW6-PY184 F689 CERULEAN BLUE DEEP PB36 A B609 OLD HOLLAND YELLOW DEEP PW6-PY43 B690 PHTHALO BLUE TURQUOISE PB15:6 - PG7 ‘EXTRA’ means: Traditional colour made from lightfast pigment B610 BRILLIANT YELLOW LIGHT PW6-PY53 C691 PHTHALO BLUE GREEN SHADE PB16 B611 BRILLIANT YELLOW PW6-PY53 D692 COBALT BLUE TURQUOISE PB36 Chemical Composition B612 BRILLIANT YELLOW REDDISH PW6-PY53-PR188 E693 COBALT BLUE TURQUOISE LIGHT PG50 B613 NAPLES YELLOW REDDISH EXTRA PW6-PO73-PY53 B694 PHTHALO GREEN TURQUOISE PG7 - PB15:2 PW 4 ZINC OXIDE B614 FLESH TINT PW6-PR122-PR101 B695 PHTHALO GREEN BLUE SHADE PG7 PW 6 TITANIUM DIOXIDE -
Color Mixing Ratios
Colour Mixing: Ratios Color Theory with Tracy Moreau Learn more at DecoArt’s Art For Everyone Learning Center www.tracymoreau.net Primary Colours In painting, the three primary colours are yellow, red, and blue. These colors cannot be created by mixing other colours. They are called primary because all other colours are derived from them. Mixing Primary Colours Creates Secondary Colours If you combine two primary colours you get a secondary colour. For example, red and blue make violet, yellow and red make orange, and blue and yellow make green. If you mix all of the primary colours together you get black. The Mixing Ratio for Primary Colours To get orange, you mix the primary colours red and yellow. The mixing ratio of these two colours determines which shade of orange you will get after mixing. For example, if you use more red than yellow you will get a reddish-orange. If you add more yellow than red you will get a yellowish-orange. Experiment with the shades you have to see what you can create. Try out different combinations and mixing ratios and keep a written record of your results so that you can mix the colours again for future paintings. www.tracymoreau.net Tertiary Colours By mixing a primary and a secondary colour or two secondary colours you get a tertiary colour. Tertiary colours such as blue-lilac, yellow-green, green-blue, orange-yellow, red-orange, and violet-red are all created by combining a primary and a secondary colour. The Mixing Ratios of Light and Dark Colours If you want to darken a colour, you only need to add a small amount of black or another dark colour. -
Manufacturer of the World's Finest Artists' Paints
Manufacturer of the World’s Finest Artists’ Paints MADE IN THE USA SINCE 1976 Meet the Owner of DANIEL SMITH John Cogley John Cogley, the owner of DANIEL SMITH Artists’ Materials, joined the company in the Information Technology Department in 1988. With almost three decades of leading the company as President, CEO and Owner, John has been the driving force behind making DANIEL SMITH Watercolors and other products recognized as the world’s best. Because of John’s commitment to innovation and in manufacturing the highest quality paints and other products, artists worldwide can rely on the performance and continuity of DANIEL SMITH products year after year. DANIEL SMITH is the Innovative Sticks, artist-quality Water Soluble Oils Manufacturer of Beautiful Watercolors and inspiring Hand Poured Half Pan sets and Oils for Artists Worldwide. DANIEL SMITH has been the leader in From being the first manufacturer developing creative tools for Artists. to make the high-performance Making beautiful, innovative, and high Quinacridone pigments into artists’ quality artists paints, which perform paints, to the development of the exciting consistently from tube to tube, year after PrimaTek and Luminescent Watercolors year, makes DANIEL SMITH products the and Oils, Watercolor Grounds, Watercolor choice for artists worldwide. Stay connected with DANIEL SMITH online! INSTAGRAM FACEBOOK @danielsmithartistsmaterials @DanielSmithArtSupplies REGIONAL ACCOUNTS REGIONAL ACCOUNTS ASIA ASIA @danielsmithasia @Danielsmithartsupplies_asia EUROPE EUROPE @danielsmitheurope -
Color Mixing Challenge
COLOR MIXING CHALLENGE Target age group: any age Purpose of activity: to experiment with paint and discover color combinations that will make many different shades of the basic colors Materials needed: copies of the pattern page printed onto heavy card stock paper, small paint brushes, paper towels, paper plates to use as palettes (or half-sheets of card stock), a bowl of water to rinse brushes, acrylic paints in these colors: red, blue, yellow, and white (NOTE: Try to purchase the most “true” colors you can-- a royal blue, a true red, a medium yellow.) Time needed to complete activity: about 30 minutes (not including set-up and clean-up time) How to prepare: Copy (or print out) a pattern page for each student. Give each student a paper plate containing a marble-sized blob of red, blue, yellow and white. (Have a few spare plates available in case they run out of mixing space on their fi rst plate.) Also provide a paper towel and a bowl of rinse water. If a student runs out of a particular color of paint, give them a dab more. This will avoid wasting a lot of paint. (If you let the students fi ll their own paints, they will undoubtedly waste a lot of paint. In my experience, students almost always over-estimate how much paint they need.) What to do: It’s up to you (the adult in charge) how much instruction to give ahead of time. You may want to discuss color theory quite a bit, or you may want to emphasize the experimental nature of this activity and let the students discover color combinations for themselves. -
Computational RYB Color Model and Its Applications
IIEEJ Transactions on Image Electronics and Visual Computing Vol.5 No.2 (2017) -- Special Issue on Application-Based Image Processing Technologies -- Computational RYB Color Model and its Applications Junichi SUGITA† (Member), Tokiichiro TAKAHASHI†† (Member) †Tokyo Healthcare University, ††Tokyo Denki University/UEI Research <Summary> The red-yellow-blue (RYB) color model is a subtractive model based on pigment color mixing and is widely used in art education. In the RYB color model, red, yellow, and blue are defined as the primary colors. In this study, we apply this model to computers by formulating a conversion between the red-green-blue (RGB) and RYB color spaces. In addition, we present a class of compositing methods in the RYB color space. Moreover, we prescribe the appropriate uses of these compo- siting methods in different situations. By using RYB color compositing, paint-like compositing can be easily achieved. We also verified the effectiveness of our proposed method by using several experiments and demonstrated its application on the basis of RYB color compositing. Keywords: RYB, RGB, CMY(K), color model, color space, color compositing man perception system and computer displays, most com- 1. Introduction puter applications use the red-green-blue (RGB) color mod- Most people have had the experience of creating an arbi- el3); however, this model is not comprehensible for many trary color by mixing different color pigments on a palette or people who not trained in the RGB color model because of a canvas. The red-yellow-blue (RYB) color model proposed its use of additive color mixing. As shown in Fig. -
Color Chart Includes Those Colors Made from Inorganic Pigments, That Is, Metal Ores Dug from the Earth
GAMBLIN ARTISTS COLORS GAMBLIN ARTISTS OIL COLORS Artists Oil mineral inorganic colors modern organic colors Colors • All colors made from metals (Cadmium, Cobalt, Iron, etc.) are “inorganic” • Carbon based pigments are “organic” • 19th century colors of the Impressionists and the colors of Classical and Renaissance era painters • 20th century colors • High pigment load, low oil absorption • Most pigments available in a warm and cool version (ex. Phthalo Green, Phthalo Emerald) • Colors easily grey-down in mixtures, excellent for painting natural colors and light • Best choice for high key painting, bright tints • Mostly opaque with a few semi-transparent and transparent colors • Mostly transparent, with some semi-transparent colors Impressionist 20th Century CADMIUM CHARTREUSE CADMIUM LEMON CADMIUM YELLOW LIGHT CADMIUM YELLOW MEDIUM CADMIUM YELLOW DEEP HANSA YELLOW LIGHT HANSA YELLOW MEDIUM HANSA YELLOW DEEP INDIAN YELLOW CADMIUM ORANGE CADMIUM ORANGE DEEP CADMIUM RED LIGHT CADMIUM RED MEDIUM CADMIUM RED DEEP PERMANENT ORANGE TrANSPARENT OrANGE NAPTHOL RED NAPTHOL SCARLET PERYLENE RED white · grey · black ALIZARIN CrIMSON MANGANESE VIOLET COBALT VIOLET ULTRAMARINE VIOLET ALIZARIN PERMANENT QUINACRIDONE RED QUINACRIDONE MAGENTA QUINACRIDONE VIOLET DIOXAZINE PURPLE TITANIUM WHITE RADIANT WHITE TITANIUM ZINC WHITE QUICK DRY WHITE FLAKE WHITE REPLACEMENT ULTRAMARINE BLUE COBALT BLUE PrUSSIAN BLUE CERULEAN BLUE COBALT TEAL INDANTHRONE BLUE PHTHALO BLUE CERULEAN BLUE HUE MANGANESE BLUE HUE PHTHALO TURQUOISE FASTMATTE TITANIUM WHITE ZINC WHITE -
Subtractive Color Mixture Computation
By Dennis Jarvis [CC BY-SA 2.0], via Wikimedia Commons (cropped) Subtractive Color Mixture Computation by Scott Allen Burns, Urbana, IL Published March 10, 2015; last updated May 3, 2015 Note: This is a PDF version of the web page http://scottburns.us/subtractive-color-mixture/ Overview I present an algorithm for computationally mixing screen colors (RGB colors) subtractively. The question it addresses is, "Given two colors specified by their RGB triplets, what RGB triplet should be used to represent the color that would arise if the two colors were mixed like paint colors, i.e., mixed subtractively?" The only way I can think of doing this in a rigorous way is to employ the math behind how a stimulus (a continuous spectral power distribution) enters our eyes and is transformed into a three-dimensional color sensation by our brain. Once this process has been adequately modeled, subtractive color mixture follows directly. The approach I present here is to convert the RGB colors to spectral reflectance curves, mix the curves using the weighted geometric mean, and then convert the result back to RGB. A Disclaimer The algorithm described here provides a representative model for subtractive color mixture. The way actual paints mix, for example, is highly dependent upon the particular pigments being used, as well as many other factors. Be aware that you can mix a blue and a yellow paint to get green in one case, and then mix another blue (that appears IDENTICAL to the first blue and has the same RGB value) and another yellow (appearing IDENTICAL to the first yellow, with the same RGB value) and get brown or some other color as a result! There is no way to differentiate between these two different outcomes based on the RGB values of the source colors. -
Opaque Colors
When glazing, it helps to know which colors are transparent and which are opaque. Whether a particular color is transparent or opaque has to do simply with its inherent chemical makeup. An opaque color will offer more coverage than a transparent one; that much is obvious. But it is important to remember that opacity and transparency have nothing to do with color saturation/intensity or color permanence. Both groups contain fugitive colors as well as powerful ones (red can fade quickly in UV light; blue used in even small quantities will turn the mixture strongly blue). This list is provided to help you determine which colors are best used for underpainting, which are best for glazing right out of the tube, and which may require the use of a glazing medium. Opaque Oil Colors Transparent Oil Colors Whites Whites lead white zinc white titanium white transparent white Yellows Yellows cadmium yellow (all tones) aureolin (cobalt yellow) Naples yellow Indian yellow yellow ochre transparent gold ochre jaune brilliant transparent oxide yellow nickel titanate yellow stil de grain jaune Reds and Oranges Reds and Oranges cadmium red (light and dark) alizarin crimson cadmium orange rose madder (light and dark) English red ultramarine red Mars red quinacridone red Venetian red quinacridone burnt orange terra rosa transparent red oxide vermillion naphthol scarlet anthraquinoid red perinone orange Greens Greens chromium green oxide viridian permanent green phthalo green cadmium green phthalo turquoise green gold terre verte Browns Browns burnt umber burnt sienna raw umber raw sienna Pozzuoli earth brown madder alizarin transparent brown stil de grain brun Blues Blues cerulean blue ultramarine blue cobalt blue phthalo blue manganese blue indanthrone blue indigo Violets Violets cadmium purple cobalt violet Mars violet manganese violet caput mortuum violet carbazole violet quinacridone violet rose dore’ dioxazine purple Blacks and Neutrals Blacks and Neutrals lamp black ivory black peach black Davy’s gray Mars black Paynes gray . -
Williamsburg Handmade Oil Colors Dry Time Chart
Williamsburg Handmade Oil Colors Dry Time Chart Fast Medium Slow Very Slow 1-2 2-7 5-14 10-21+ Bohemian Green Earth Bismuth Vanadate Yellow Persian Rose Alizarin Orange Alizarin Crimson Brown Ochre Brilliant Yellow Extra Pale Perylene Crimson Cadmium Orange Alizarin Yellow Brown Pink Brilliant Yellow Pale Provence Violet Reddish Cadmium Red Deep Carl's Crimson Brown Umber Cadmium Lemon Pyrrole Red Cadmium Red Purple Egyptian Violet Burnt Sienna Cadmium Red Light Quinacridone Goldish Brown Cadmium Red Vermilion Fanchon Red Burnt Umber Cadmium Red Medium Red Ochre Cobalt Teal Graphite Gray Cadmium Green Cadmium Yellow Deep SF Italian Terra Verte Iridescent Bronze Indanthrone Cadmium Green Light Cadmium Yellow Extra Deep SF Cerulean Blue French Iridescent Pale Gold Indian Yellow Cerulean Blue French Cadmium Yellow Light SF Cobalt Violet Light Iridescent Pewter Permanent Orange Cobalt Blue Deep Cadmium Yellow Medium SF Flake White Italian Pompeii Red Pyrrole Orange Cobalt Teal Deep Canton Rose SF French Ardoise Grey Lamp Black Zinc White Cobalt Turquoise Bluish Cerulean Blue SF Porcelain White Permanent Green Light Cobalt Turquoise Greenish Chromium Oxide SF Titanium White Permanent Yellow Deep Cobalt Yellow Cinnabar Green Light SF Ultramarine Blue Phthalo Blue Courbet Green Cobalt Blue SF Ultramarine Blue French Provence Violet Bluish Cyprus Orange Cobalt Violet Deep Sevres Blue Quinacridone Magenta Dutch Brown Cobalt Violet Light Titan Buff Quinacridone Red Earth Green Cold Black Titanium-Zinc White Quinacridone Violet French Burnt Umber