In his writings over the past decade, Brad Allenby has proposed (at least) 16 principles of sustainable engineering (see references) that are collectively known as the Earth Systems Engineering and Management (ESEM) principles. These principles have merit and applicability in many disciplines and domains of discourse, but are sometimes awkward to use due to the quantity of words required to accurately express their meaning. In light of this, it has become necessary to formulate a simplified list of “abbreviated tags” for ease of reference in conversation and concise writing. This list of tags also makes the principles immediately accessible to those who may want to pursue the more thorough definitions offered by Allenby. The following tags have been proposed for use when a concise phrasing is required. The citation provided after the tag is, in my opinion, the most complete expression of Allenby’s thought on this principle. It can be used when citing the principle in written assignments or publications.

This study seeks to examine how the introduction of residential solid oxide fuel cells (SOFC) will affect urban air quality. Both the life-cycle and operations emissions profiles of an SOFC are compared with the baseload electricity generating technologies that widespread adoption of SOFCs would replace – coal fired, natural gas combined cycle, and nuclear. The monetary impacts from use phase emissions are then assessed in five water-vulnerable cities in which SOFCs would likely be adopted in order to increase local resilience to electricity failures as a result of water shortages. The SOFC system under study is a 1 kWe system of planar design intended for residential CHP. The excess heat from the SOFC is used to heat domestic hot water. Analysis of the SOFC system life-cycle includes raw materials extraction and processing, component manufacturing, SOFC manufacturing, natural gas fuel processing and distribution, SOFC use, as well as energy used in these processes. Life-cycle analysis of the baseload power systems is bounded similarly. Emissions tracked for this study include SOx, NOx, VOCs, PM10, and PM2.5.

Sustainable mobility policy for long-distance transportation services should consider emerging automobiles and aircraft as well as infrastructure and supply chain life-cycle effects in the assessment of new high-speed rail systems. Using the California corridor, future automobiles, high-speed rail and aircraft long-distance travel are evaluated, considering emerging fuel-efficient vehicles, new train designs and the possibility that the region will meet renewable electricity goals. An attributional per passenger-kilometer-traveled life-cycle inventory is first developed including vehicle, infrastructure and energy production components. A consequential life-cycle impact assessment is then established to evaluate existing infrastructure expansion against the construction of a new high-speed rail system. The results show that when using the life-cycle assessment framework, greenhouse gas footprints increase significantly and human health and environmental damage potentials may be dominated by indirect and supply chain components. The environmental payback is most sensitive to the number of automobile trips shifted to high-speed rail, and for greenhouse gases is likely to occur in 20–30 years. A high-speed rail system that is deployed with state-of-the-art trains, electricity that has met renewable goals, and in a configuration that endorses high ridership will provide significant environmental benefits over existing modes. Opportunities exist for reducing the long-distance transportation footprint by incentivizing large automobile trip shifts, meeting clean electricity goals and reducing material production effects.

Objective: to explore currently available Open Educational Resources related to Health Sciences programs to increase available options for free, high quality, online educational materials to support Health Sciences faculty, researchers, and students in online, hybrid, and in-person courses at Arizona State University.

Background/Methods: Following the successful Open Access movement, the Open Education movement is expanding free, online access to Open Educational Resources (OERs), beyond research published in scholarly journals. Similar to the Open Access movement, Open Educational resources are of high quality, available for free, online, with minimal or no licensing restrictions. They include, but are not limited to: syllabi and course modules, open textbooks, and massive open online courses (MOOCs). Arizona State University (ASU) has many fully online degree programs from undergraduate to graduate level, as well as supplemental and continuing education certificates. ASU also has many hybrid programs and in-person courses that include online components. Instructors are often searching for online videos or other high quality, online educational materials that they can incorporate in their courses. OERs may provide some useful options. ASU Libraries became involved in Open Education Week in March 2013. To expand on our involvement and increase resource options at ASU, the presenters decided to begin identifying useful OERs for health sciences. To do so, the presenters searched for and evaluated 2-3 sources for OERs each and noted the advantages and/or disadvantages of each, as well as any highly useful specific OERs.

Results: The presenters will discuss the advantages and/or disadvantages of evaluated sources for Open Educational Resources and any highly useful specific OERs identified. We will also provide a brief overview of open source tools related to citation management.

Conclusion: Come to this presentation to explore the Open Education movement: hear about one research university library system's start with Open Education Week, and get an overview of free, online options for high quality Open Educational Resources in the Health Sciences.

As health information professionals we are familiar with specialized resources such as PubMed and CINAHL but less familiar with general freely available tools such as Google, Google Scholar, and other open Google tools. We wondered:

1. What Google tools are Health Sciences Researchers and Healthcare Professionals using, and how are they using them?
2. How effective are Google and/or Google Scholar for literature searching?
3. What other research is needed in this area?

Methods:
We searched for: ‘Google’ across five health sciences and health sciences related databases (CINAHL, Cochrane, PsycInfo, PubMed, Web of Science) and in Google Scholar (*For Google Scholar we searched: health AND google). We reviewed the first 100 citations from each database and selected results that: 1. Mentioned use of a Google tool, or 2. Discussed the effectiveness of Google or Google Scholar in scholarly literature searching. Out of the second group, we selected and read the 10 most relevant articles discussing the effectiveness of Google and/or Google Scholar for literature searching. We tried out recommended best practices to search for topics we had previously searched only in subject specific databases.

Results:
Health Sciences Researchers and Healthcare Professionals use many Google tools for a variety of purposes. Each tool was used in different ways by authors writing in the Health Sciences (see pie charts and examples in poster). Regarding literature searching the poster includes Google Scholar content sources, Top Search Strategies for Google Scholar, and Considerations for using Google Scholar for literature searching.

Conclusions:
Health Science researchers use a variety of Google tools to gather and manipulate data, and to visualize and disseminate results. Health care professionals use Google tools to facilitate interventions and for interactive educational materials. For Literature searching our results encourage using Google Scholar to complement subject specific databases. Its unique content makes it a valuable resource for finding additional documents.

Background & Objective:
Over the past several decades, systematic reviews have become a major part of the biomedical research literature landscape. While systematic reviews were originally developed for medicine and its related fields, they are now published in other disciplines. Our initial goal was to broadly investigate and describe the non-health sciences subject areas and disciplines that are publishing systematic reviews. Specifically, our research questions were,“What disciplines outside of the health sciences are adopting systematic reviews as a research method?” and “What implications may this have for health sciences librarianship?” Based on our initial findings, we will propose avenues for future research.

Methods & Discussion:
We conducted a search in the Scopus database to serve as a representative sample of the research literature. We searched for the phrase “systematic review*” in the article title or abstract, and limited the results to review articles from journals. We filtered out articles published in health sciences disciplines using the Scopus subject categories, and examined the articles that remained. The resulting set of titles was screened by two independent reviewers in a stepwise fashion. First we read the titles, then the abstracts, then the full text of remaining articles to determine if each was a systematic review and addressed a topic outside of the health sciences. We reconciled any differences for citations on which there was not initial consensus between reviewers. Lastly, we examined each remaining article to categorize its subject area or discipline. Our initial search included a number of systematic reviews outside the health science disciplines, and will yield data that has implications for librarians in the health sciences and in disciplines outside the health sciences field.

Objectives: With more and more of our students enrolling in online degree programs and attending class virtually we as librarians must ensure that we are providing the same level of education, content, and service to these online students as we do to our in-person students. This poster will describe the development and implementation of multiple library modules across a 100% online RN-BSN nursing program at a large public institution.

Methods: The librarian met with and worked with instructors across three courses in the online RN-BSN program to discuss and examine current library content and instruction that already existed in these classes, as well as the need for new content and modules. An instructional scaffolding approach was settled on, where new content would be introduced progressively to students over the course of three semesters in three separate consecutive courses. In previous semesters, many faculty simply chose their own library content, linked only to the general tutorials page, or lacked any library content at all, making a new structured approach even more necessary. This poster will describe the development of these library modules in more detail, including software used and best practices, and will also focus on the implementation and lessons learned.

Results: A total of five new modules were implemented in the first two classes, while current library tutorials were kept in the third class in the sequence. The modules focused on teaching the students information literacy and database searching skills.

Conclusion: Sequencing library modules over the course of multiple semesters allowed students to build upon core knowledge that is necessary to successfully complete increasingly advanced assignments and gain research skills that can be applied in their future careers as nurses.

Patron Driven Acquisition (PDA) is a growing method of collection development in academic libraries that follows a Just-In-Time model versus the more traditional Just-In-Case model. Arizona State University (ASU) implemented our current PDA plan and profiles in 2009 with minimal changes occurring since this initial implementation date. Our PDA model of collection development involves purchasing print and e-books when users select them in the online catalog, rather than receiving items on an approval plan or by librarian selection. After an initial investigation concluded that several major health sciences publications had not been loaded into the catalog for potential patron selection, we began a more thorough examination of our PDA profile.

ASU serves over 6,500 students, faculty, and staff in Nursing and Allied Health fields in a range of programs requiring a robust collection. This poster details the process we used to determine whether the profiles created by previous librarians in 2009 have succeeded in uploading records for publications that appear on the 2014 nursing texts from Doody’s Core Titles into our catalog. Specifically, our poster will present on the number of Doody’s titles that were excluded from the PDA plan due to our profile settings and analyze why these titles were excluded. Our findings will allow us to order titles that are currently missing from our collection as well as tailor our PDA profiles to include key texts in nursing and allied health subjects in the future. We will also provide recommendations and considerations for other libraries considering or using a PDA model for purchasing texts in the health sciences.