7 research outputs found
Spaces of Collapse: Psychological Deterioration, Subjectivity, and Spatiality in American Narratives
This thesis studies the relationship between spatiality and subjectivity within the context of modern and contemporary American narrative. Combining a psychoanalytic approach with phenomenological considerations, I set out to analyze the ways in which spatial structures mediate madness, paranoia, the compulsion to repeat, and uncanny anxiety. Space serves a primary focus of my analysis, and I outline the different ways that language and consciousness construct space. Considering the work of William Faulkner, Francis Ford Coppola, Paul Auster, and Mark Z. Danielewski, I argue that particular spaces, such as houses and cities, represent or contribute to particular forms of psychological psychosis and neurosis. While I use phenomenology as an important guide to understand the relationship between subjectivity and space, my primary concern is tracing out the psychoanalytic subject’s dependence on spatial orientation. Ultimately, I conclude that spatiality offers a key to understanding the basic instability that lies at the heart of the psychoanalytic subject
Toward an open cloud standard
Today's cloud ecosystem features several increasingly divergent management interfaces. Numerous bridging efforts attempt to ameliorate the resulting vendor lock-in for customers. However, as the number of providers continues to grow, the drawback of this approach becomes apparent: the need to maintain adapter implementations. The Open Cloud Computing Interface builds on the fundamentals of modern Web-based services to define a standardized interface for cloud environments while enabling service providers to differentiate their service offerings at the same time
Open cloud computing interface in data management-related setups
The Cloud community is a vivid group of people who drive the ideas of Cloud computing into different fields of Information Technology. This demands for standards to ensure interoperability and avoid vendor lock-in. Since such standards need to satisfy many requirements, use cases, and applications, they need to be extremely flexible and adaptive. The Open Cloud Computing Interface (OCCI) family of specifications aims to achieve this goal: originally developed for the deployment of infrastructure Clouds, it can also be used in different service and deployment models. This article will outline the OCCI specifications and demonstrate how they can be used in data management-related setups. Not only can OCCI be easily integrated but it can also be used to deploy data-centric applications (which are secured by SLAs), support data-awareness in scheduling, as well as directly interface with data management tools in a PaaS-based manner. To demonstrate this, three use cases are discussed in this article
Open cloud computing interface : open community leading cloud standards
The Open Cloud Computing Interface (OCCI) comprises a set of open community-lead specifications delivered through the Open Grid Forum, which define how infrastructure service providers can deliver their compute, data, and network resource offerings through a standardized interface. OCCI has a set of implementations that act as its proving-ground. It builds upon the fundamentals of the World Wide Web by endorsing the proven REST (Representational State Transfer) approach for interaction and delivers an extensible model for interacting with “as-a-Service” services
Open cloud computing interface : core
The Open Cloud Computing Interface (OCCI) is a RESTful Protocol and API for all kinds of management tasks. OCCI was originally initiated to create a remote management API for IaaS model-based services, allowing for the development of interoperable tools for common tasks including deployment, autonomic scaling and monitoring. It has since evolved into a flexible API with a strong focus on interoperability while still offering a high degree of extensibility. The current release of the Open Cloud Computing Interface is suitable to serve many other models in addition to IaaS, including PaaS and SaaS
Changes in Benthic Denitrification, Nitrate Ammonification, and Anammox Process Rates and Nitrate and Nitrite Reductase Gene Abundances along an Estuarine Nutrient Gradient (the Colne Estuary, United Kingdom)
Estuarine sediments are the location for significant bacterial removal of anthropogenically derived inorganic
nitrogen, in particular nitrate, from the aquatic environment. In this study, rates of benthic denitrification
(DN), dissimilatory nitrate reduction to ammonium (DNRA), and anammox (AN) at three sites along a nitrate
concentration gradient in the Colne estuary, United Kingdom, were determined, and the numbers of functional
genes (narG, napA, nirS, and nrfA) and corresponding transcripts encoding enzymes mediating nitrate reduction
were determined by reverse transcription-quantitative PCR. In situ rates of DN and DNRA decreased
toward the estuary mouth, with the findings from slurry experiments suggesting that the potential for DNRA
increased while the DN potential decreased as nitrate concentrations declined. AN was detected only at the
estuary head, accounting for ca 30% of N2 formation, with 16S rRNA genes from anammox-related bacteria also
detected only at this site. Numbers of narG genes declined along the estuary, while napA gene numbers were
stable, suggesting that NAP-mediated nitrate reduction remained important at low nitrate concentrations. nirS
gene numbers (as indicators of DN) also decreased along the estuary, whereas nrfA (an indicator for DNRA)
was detected only at the two uppermost sites. Similarly, nitrate and nitrite reductase gene transcripts were
detected only at the top two sites. A regression analysis of log(n plus 1) process rate data and log(n plus 1) mean
gene abundances showed significant relationships between DN and nirS and between DNRA and nrfA. Although
these log-log relationships indicate an underlying relationship between the genetic potential for nitrate
reduction and the corresponding process activity, fine-scale environmentally induced changes in rates of
nitrate reduction are likely to be controlled at cellular and protein levels