Rapid Sketch Download
Albert Phelps
Two Neoclassical subjects are represented: a woman and a man wrapped in a typically classical drapery near a spring from which they take fresh water with a jar. The drawing was made with a rapid and wise line and incredible hatching.
Working with pen and pencil, learn fast and effective ways of recording scenes in the quiet picturesque village of Willersey, 5 mins drive from Broadway. You will focus on ways of rapidly capturing the scene and how to improve your drawing skills.
Church began his career by painting classic Hudson River School scenes of New York and New England, but by 1850, he had settled in New York. He exhibited his art at the American Art Union, the Boston Art Club, and (most impressively for a young artist) the National Academy of Design. His method consisted of creating paintings in his studio based on sketches in nature. In the earlier years of his career, Church's style was reminiscent of that of his teacher, Thomas Cole, and epitomized the Hudson River School's founding styles. As his style progressed he departed from Cole's approach: he painted in more elaborate detail and his compositions became more adventurous in format, sometimes with dramatic light effects.
Church quickly earned a reputation as a traveler-artist, with early domestic painting and sketching trips to the White Mountains, western Massachusetts, the Catskills, Hartford, Conn, Niagara, Virginia, Kentucky, and Maine. He made two trips to South America in 1853 and 1857 and stayed predominantly in Quito, visiting the volcanoes and cities of modern day Colombia and Ecuador, and crossing the isthmus of Panama. The first trip was with businessman Cyrus West Field, who financed the voyage, hoping to use Church's paintings to lure investors to his South American ventures. Church was inspired by Alexander von Humboldt's exploration of the continent in the early 1800s; Humboldt had challenged artists to portray the "physiognomy" of the Andes. After Humboldt's Personal Narrative of Travels to the Equinoctial Regions of America was published in 1852, Church jumped at the chance to travel and study in Humboldt's footsteps. When Church returned to South America in 1857 with painter Louis Rémy Mignot, he added to his sketches of the area. After both trips, Church had produced a number of landscapes of Ecuador and the Andes, such as The Andes of Ecuador (1855), Cayambe (1858), The Heart of the Andes (1859), and Cotopaxi (1862). The Heart of the Andes, Church's most famous painting, pictures several elements of topography combined into an idealistic, broad portrait of nature. The painting was very large, yet highly detailed; every species of plant and animal is identifiable and numerous climate zones appear at once.
In 1860, Church bought a farm near Hudson, New York and married Isabel Mortimer Carnes (born 1836, of Dayton, Ohio), whom he had met during the New York exhibition of The Heart of the Andes. They soon started a family, but their two-year-old son Herbert and five-month-old daughter Emma both died of diphtheria in March 1865. A few months later, as the Civil War came to an end, still grief stricken, Church and his wife, and a young artist friend traveled to Jamaica. Church sketched and Isabel made a collection of pressed Jamaican ferns of which there were many spectacular varieties. He and his wife started a new family with the birth of Frederic Joseph in 1866, followed by Theodore Winthrop in 1869, Louis Palmer in 1870 and Isabel Charlotte ("Downie") in 1871.
Before departing America for that trip, Church purchased the 18 acres (7.3 ha) on the hilltop above his Hudson farmland, which he had long wanted for its magnificent views of the Hudson River and the Catskills. In 1870, he began the construction of a Persian-inspired mansion on the hilltop, and the family moved into the home in the summer of 1872. Today this estate is conserved as the Olana State Historic Site. Richard Morris Hunt was consulted early on in the plans for the mansion at Olana, but after the Churches' trip, the English-born American architect Calvert Vaux was hired to complete the project. Church was deeply involved in the process, even completing his own architectural sketches for its design. This highly personal and eclectic building incorporated many of the design ideas that he had acquired during his travels. In one letter of the period, he wrote I have made about 1 3 /4 miles of road this season, opening entirely new and beautiful views. I can make more and better landscapes in this way than by tampering with canvas and paint in the studio." He devoted much of his energy during his last twenty years to Olana.
I decided to make the rapid sketches on location in the Barbican Centre Conservatory. I used the stopwatch on my iPhone to time each drawing and made the drawings using ink pens and Sharpies. All drawings were made in an A5 sketchbook.
Constructing and refining complex reservoir models are challenging and time-consuming tasks that entail a high degree of uncertainty. Conventional modeling work flows have remained essentially unchanged for the past decade. Such work flows are poorly suited to rapid prototyping of a range of reservoirmodel concepts, well trajectories, and development options and to testing of how these might affect reservoir behavior. A new reservoir-modeling and -simulation approach, termed rapid reservoir modeling (RRM), allows such prototyping and complements existing work flows.
The aim of this work is to develop RRM software for prototyping of complex reservoir models, well trajectories, and development options by means of novel, sketch-based interaction and modeling coupled with exploratory visualization and close-to-real-time numerical analysis. The new approach does not replace existing work flows; rather, it supplements them by allowing rapid testing of geologic and development concepts and how these affect reservoir behavior.
In this work, we explore the potential of combining virtual reality (VR) visualizations of data with physical models generated via rapid 3D prototyping to provide a new style of exploratory data visualization. Holding a physical rapid prototype model in one's hand can provide an immediate and more accurate understanding of a complex 3D form than can be provided via a computer display, even a head-tracked VR display. However, physical printouts are static and only show the bounding surface (the outside) of a 3D geometry. When working with many of today's scientific datasets, for example, analyzing results of high-performance simulations of cardiovascular fluid dynamics [Simon et al. 2010], scientists need to understand both a complex bounding surface for the data and multivariate volumetric data contained within it. We present the initial design of a new interface for exploring this type of data. Our goal is to combine the intuitive shape understanding made possible by physical 3D rapid prototypes with complementary VR visualizations of the data inside the printed geometry.
N2 - In this work, we explore the potential of combining virtual reality (VR) visualizations of data with physical models generated via rapid 3D prototyping to provide a new style of exploratory data visualization. Holding a physical rapid prototype model in one's hand can provide an immediate and more accurate understanding of a complex 3D form than can be provided via a computer display, even a head-tracked VR display. However, physical printouts are static and only show the bounding surface (the outside) of a 3D geometry. When working with many of today's scientific datasets, for example, analyzing results of high-performance simulations of cardiovascular fluid dynamics [Simon et al. 2010], scientists need to understand both a complex bounding surface for the data and multivariate volumetric data contained within it. We present the initial design of a new interface for exploring this type of data. Our goal is to combine the intuitive shape understanding made possible by physical 3D rapid prototypes with complementary VR visualizations of the data inside the printed geometry.
AB - In this work, we explore the potential of combining virtual reality (VR) visualizations of data with physical models generated via rapid 3D prototyping to provide a new style of exploratory data visualization. Holding a physical rapid prototype model in one's hand can provide an immediate and more accurate understanding of a complex 3D form than can be provided via a computer display, even a head-tracked VR display. However, physical printouts are static and only show the bounding surface (the outside) of a 3D geometry. When working with many of today's scientific datasets, for example, analyzing results of high-performance simulations of cardiovascular fluid dynamics [Simon et al. 2010], scientists need to understand both a complex bounding surface for the data and multivariate volumetric data contained within it. We present the initial design of a new interface for exploring this type of data. Our goal is to combine the intuitive shape understanding made possible by physical 3D rapid prototypes with complementary VR visualizations of the data inside the printed geometry.
The critic will please remember that the post for England left Delhi on the night of the day on which the Review occurred; and that by that post the sketch thereof, were the same crude and indefinite, or sharp, well defined, and accurate to a button, had perforce to be forwarded. Over and over again among these sketches there comes to one the same surprise of conjoined swiftness of execution, spiritedness of effect, and exact accuracy of detail.
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