After the Portuguese discovered the Cape Verde Islands in AD 1456 they divided its main island, Santiago, into two governing captaincies. The founding settlement in the south-west, Cidade Velha, soon became the Islands’ capital and a thriving trade centre; in contrast, that in the east, Alcatrazes, only lasted as an official seat from 1484–1516 and is held to have ‘failed’ (see Richter 2015).

This list contains analyses completed between January, 1976 and April, 1977. Details of laboratory operation are contained in our first list (R, 1975, v 18, p 205). Samples submitted for analysis are reviewed by a committee consisting of W DeBoer, E Hansen, Anthropology; L Marcus, Biology; W S Newman, D L Thurber, Earth and Environmental Sciences; and Richard Pardi, Radiocarbon Laboratory.

The following list includes radiocarbon analyses of samples related to studies of Holocene sea levels completed since the publication of the last list (R, 1980, v 22, p 1073–1083). Sample preparation and counting for liquid scintillation samples remain the same. However, an additional gas-proportional facility was added in 1981 to handle the analyses of small samples, some of which are included in this list. The new system consists of two 660cc OFHC copper counters built at Queens College. Samples are counted over at least two 2800 minute intervals alternating with backgrounds and standards counted over 1400 minute intervals. Ages are based on the Libby half-life of 5568 years and include 1σ standard deviations of sample, standard, and background activities.

Objectives: Following pediatric moderate-to-severe traumatic brain injury (msTBI), few predictors have been identified that can reliably identify which individuals are at risk for long-term cognitive difficulties. This study sought to determine the relative contribution of detailed descriptors of injury severity as well as demographic and psychosocial factors to long-term cognitive outcomes after pediatric msTBI. Methods: Participants included 8- to 19-year-olds, 46 with msTBI and 53 uninjured healthy controls (HC). Assessments were conducted in the post-acute and chronic stages of recovery. Medical record review provided details regarding acute injury severity. Parents also completed a measure of premorbid functioning and behavioral problems. The outcome of interest was four neurocognitive measures sensitive to msTBI combined to create an index of cognitive performance. Results: Results indicated that none of the detailed descriptors of acute injury severity predicted cognitive performance. Only the occurrence of injury, parental education, and premorbid academic competence predicted post-acute cognitive functioning. Long-term cognitive outcomes were best predicted by post-acute cognitive functioning. Discussion: The findings suggest that premorbid factors influence cognitive outcomes nearly as much as the occurrence of a msTBI. Furthermore, of youth with msTBI who initially recover to a level of moderate disability or better, a brief cognitive battery administered within several months after injury can best predict which individuals will experience poor long-term cognitive outcomes and require additional services. (JINS, 2016, 22, 1–8)

This paper is the second part of a two part sequence on multiphysics algorithms and software. The first [1] focused on the algorithms; this part treats the multiphysics software framework and applications based on it. Tight coupling is typically designed into the analysis application at inception, as such an application is strongly tied to a composite nonlinear solver that arrives at the final solution by treating all equations simultaneously. The application must also take care to minimize both time and space error between the physics, particularly if more than one mesh representation is needed in the solution process. This paper presents an application framework that was specifically designed to support tightly coupled multiphysics analysis. The Multiphysics Object Oriented Simulation Environment (MOOSE) is based on the Jacobian-free Newton-Krylov (JFNK) method combined with physics-based preconditioning to provide the underlying mathematical structure for applications. The report concludes with the presentation of a host of nuclear, energy and environmental applications that demonstrate the efficacy of the approach and the utility of a well-designed multiphysics framework.

There is a growing trend within energy and environmental simulation to consider tightly coupled solutions to multiphysics problems. This can be seen in nuclear reactor analysis where analysts are interested in coupled flow, heat transfer and neutronics, and in nuclear fuel performance simulation where analysts are interested in thermomechanics with contact coupled to species transport and chemistry. In energy and environmental applications, energy extraction involves geomechanics, flow through porous media and fractured formations, adding heat transport for enhanced oil recovery and geothermal applications, and adding reactive transport in the case of applications modeling the underground flow of contaminants. These more ambitious simulations usually motivate some level of parallel computing. Many of the physics coupling efforts to date utilize simple code coupling or first-order operator splitting, often referred to as loose coupling. While these approaches can produce answers, they usually leave questions of accuracy and stability unanswered. Additionally the different physics often reside on distinct meshes and data are coupled via simple interpolation, again leaving open questions of stability and accuracy.

Commercial excavators often find that their way back to the past runs through relatively recent structures. What should we do with them? Intellectually sensitive modern excavators, like our authors, are beginning to convince us that these recent constructions not only matter in themselves, but may have interesting links to what lies beneath. Here they introduce us to the foundations of an early telescope, a monument that takes its context both from the much-investigated lands of West Cambridge, and the more abstract landscape of early science. Forcing archaeology to ask fresh questions and make ambitious connections is only proper in a place heavy with the aroma of investigative scholarship.

Qero cups, made from wood, ceramics and precious metals, have been used for millennia in the Andean region for ritual consumption of maize beer. From the cusp of the Inka-Colonial period, painted decoration became more common on qero cups. Most of the painted decoration actually consists of thin layers of a pigmented rubbery material that was cut and inlaid into shallow carved cavities in the wood substrate. For this project, 312 paint samples from 53 qerocups in collections of the Brooklyn Museum of Art, National Museum of the American Indian/Smithsonian Institution, Metropolitan Museum of Art, and American Museum of Natural History were analyzed. The study of paints is part of larger study of the technology of over 150 qero cups from these four collections. Samples from seven qeros in Peruvian collections have also been analyzed. Nearly two dozen pigments have been identified, including mineral, synthetic inorganic compounds, and natural dyestuffs. The binder consisted of an unusual natural resin (commonly called ‘mopa mopa’) usually mixed with a nondrying or semidrying oil. This resin, which was used at least locally during the pre-Inka period and continued to be used through the Colonial period and later, came from a tree that grows in the montana of southwest Colombia, a region that was part of the northernmost extension of the Inka empire.

Si-Ge monocrystals up to 50 mm diameter and up to 17 at% germanium were grown using a modified Czochralski technique. Pre-grown large diameter silicon seeds with various crystallographic orientations were used as templates for the alloy solidification to reduce cap crystallization time and insure monocrystallinity at desired diameters. Discussed are the influences that seed preparation, crystal growing parameters, and post-growth processing have on the material that was produced using this new technique.

Celadons--stonewares with pale green or greenish-blue glazes--have a rich and varied history in ancient China that begins in the Eastern Han period (A.D. 20-220) and extends nearly 1500 years [1]. The initial development of celadon wares in Korea probably dates to the late 9th century [2,3]. The zenith of production was in the llth-12th centuries, during the Koryŏ dynasty (918-1392); celadons continued to be produced into the 15th century. In form and type, the earliest Korean celadons were clearly based on Chinese models, although by the middle of the Koryo period uniquely Korean forms and decorative techniques had been developed, notably the use of white and black inlays. During the Koryŏ period, celadons were probably produced exclusively for court circles and for use in Buddhist temples. Some 270 Koryŏ period celadon kilns have been found to date. The greatest concentration (about 240) occurs in Chllla province in the south; the major areas of production were around Kangjin and Puan.

Scanning electron microscopy/energy-dispersive X-ray spectrometry (SEM/EDS) was used to characterize the composition of glazes found on a collection of blue glazed, white quartzite sculptures, excavated from 1913–1916 by the Harvard University–Boston Museum of Fine Arts Expedition at the site of Kerma, the capital of ancient Kush, in today's Sudan. The scientific analysis of these artifacts shows the experimental nature of this extremely rare manufacture which appears to have developed out of faience technology.

Glazes found on ancient Nubian quartzite sculpture were characterized in a previous study by scanning electron microscopy/energy-dispersive X-ray spectrometry (SEM/EDS). Now in the collection of the Museum of Fine Arts, Boston, these objects were excavated in the early 20th century by the joint Harvard University-Boston Museum of Fine Arts Expedition, in ancient Kerma, the capital of ancient Kush. The project presented here attempts to recreate the ancient technology used to glaze quartzite with compositions determined in the previous study. Raw and fritted experimental glazes were prepared, as well as an alkali paste mixed with a copper colorant. All of the samples were fired in modern kilns. After firing, samples of the glazes and their quartzite substrates were examined with SEM/EDS.

This paper reports on the excavation of a small, but high-status, later seventh-century Anglo-Saxon cemetery in Ely. Of fifteen graves, two were particularly well furnished, one of which was buried with a gold and silver necklace that included a cross pendant, as well as two complete glass palm cups and a composite comb, placed within a wooden padlocked casket. The paper reports on the skeletal and artefactual material (including isotopic analysis of the burials), and seeks to set the site in its wider social and historical context, arguing that this cemetery may well have been associated with the first monastery in Ely, founded by Etheldreda in ad 673.

The use of boron as a sintering aid reduces the sintering temperature, enhances the sintering density, and improves the microwave properties of Ba(Cd1/3Ta2/3)O3 ceramic dielectrics. Observations by transmission electron microscopy indicate that the liquid sintering mechanism contributes to the improvement in sintering density for boron concentrations exceeding 0.5 wt%. The introduction of as small as 0.01% boron also results in the production of high-density samples (∼95%), presumably indicating that a point defect mechanism may also play an important role in the sintering process. X-ray diffraction data combined with high-resolution transmission electron microscopy images show that boron-doped Ba(Cd1/3Ta2/3)O3 ceramic material has a well-ordered hexagonal structure. Annealing treatment is found to improve the microwave properties. The best sample has a dielectric constant of 32, a temperature coefficient of resonant frequency of 80 ± 15 ppm/°C, and a quality factor of >25,000 at 2 GHz.