Request for Implementation Authorization


Provide a plan for assessing intended student outcomes



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Provide a plan for assessing intended student outcomes.

The intended student outcomes include; developing, technical and scientific skills which will be assessed in coursework; integrative skills which must be demonstrated in a project or internship experience; and people and value skills which are best demonstrated in a clinical, interdisciplinary team setting that brings together people with the broad range of backgrounds that comprise this new discipline. Direct assessment of the student learning will be tailored to each skill and competency:

  • For traditional classes, course outcomes will be evaluated by individual and team performance demonstrated in course activities, projects and examinations

  • For clinical skills, such as the Theory of Informatics in Clinical Practice*, performance in exercises and projects and clinical mentor evaluations. (*This course is designed to place students in a clinical setting working in teams.)

  • Final project or thesis. The student will use the project or thesis topic proposal to describe a summative assessment of the program outcomes. Faculty, mentors and the committee will evaluate the project or thesis to assess the ability of the student to demonstrate competencies and integrative capabilities commensurate with the degree.

On the other hand, program assessment will be done using periodic surveys (each semester in the early delivery of the program, later annually) of the clinical partners to learn where improvements can be made. Current clinical partners include the Mayo Clinic and Hospital, Barrow Neurological Institute, Banner Health, the Biodesign Institute at ASU, and TGen. The immersive experiences outlined within the curriculum, along with internships and placements at these and other health care and research facilities will provide both opportunities to teach and learn, and a context for assessment of student behavior and output. The success rate of graduates of the program who apply for doctoral programs, job placement, and professional contribution (research and publications where appropriate) will also be monitored and used to measure success and guide future development of the program. Surveys of alumni and of their employers will also be undertaken to assess the long term impact of graduates, and to provide data to inform the evolution of the curriculum and research agenda of the BMI Masters program.

Currently projected assessments by outcome include:


Organizational

Lead and organize projects and Teamsmentor observation, team evaluations, project evaluations, surveys

Integrate and bridge” within cross disciplinary project teams – mentor observation, team evaluation, project evaluations, surveys, thesis



Communicate across disciplines – course participation, exams, mentor observation, team evaluation, project evaluations, thesis

Project Management – mentor observation, project evaluations, surveys, thesis
Value Systems/Ethics

Patient-centric thinking / safety and service – course participation, exams, mentor observation, project evaluations

Design and implement research - mentor observation, project evaluations, peer reviews, publications/presentations

Privacy and security policy and practice - exams, mentor observation, project evaluations
Problem Solving

Conceptual problem solving - mentor observation, team evaluations, project evaluations

Recognize effective solutions within context - course participation, exams, mentor observation, team evaluations, project evaluations, thesis

Workflow analysis in project design - course participation, exams, mentor observation, team evaluations, project evaluations

Systems scale approaches to problem solving - course participation, exams, mentor observation, team evaluations, project evaluations, thesis

Computer Science

Software design and project management - course participation, exams, mentor observation, project evaluations, thesis

Core concepts of programming, data structures and algorithms - exams, mentor observation, team evaluations, project evaluations, thesis

Apply the basic concepts of computability and intractability - exams, mentor observation, team evaluations, project evaluations, thesis

Understanding declarative programming paradigms - exams, mentor observation, team evaluations, project evaluations, thesis

Understanding cyber-infrastructure and systems architecture - course participation, exams, mentor observation, team evaluations, project evaluations, thesis

Understand and apply modeling and visualization tools and techniques- course participation, exams, mentor observation, project evaluations, thesis

Health Care

Understanding patient care processes - course participation, exams, mentor observation,

Understanding healthcare policy, business practices and law - course participation, exams, mentor observation, thesis

Understanding data and electronic medical records - course participation, exams, mentor observation, team evaluations, project evaluations, thesis

Understanding “evidence based” and “customized “ medicine - course participation, exams, mentor observation, thesis

Understanding individualized/customized health care - course participation, exams, mentor observation, thesis

Biology

Working understanding of the fundamentals of molecular biology - course participation, exams, mentor observation, team evaluations, project evaluations

Working understanding of the fundamentals of functional and/or comparative genomics - course participation, exams, mentor observation, team evaluations, project evaluations

Probability/Statistics

Perform trials, experiments; proper analysis - course participation, exams, mentor observation, team evaluations, project evaluations, thesis

Apply statistics to sampling and data mining - course participation, exams, mentor observation, team evaluations, project evaluations, thesis


  1. STATE'S NEED FOR THE PROGRAM




  1. HOW DOES THIS PROGRAM FULFILL THE NEEDS OF THE STATE OF ARIZONA AND THE REGION?

The M.S. Program being proposed is designed to address two significant needs, and these are represented in the two concentrations proposed for the program:




  1. Clinical Concentration: There is a need for professionals with working skills in biomedical informatics to contribute to clinical practice. While the department will also contribute to medical school and nursing programs preparing the next generation of professionals, at the same time it must also educate professionals coming from other disciplines to work in the informatics side of the healthcare industry. Moreover, there is significant demand for such a program that will provide the continuing education needed by those already practicing but in need of more advanced training in biomedical informatics.




  1. Analytical Concentration: There is a need for scientists and engineers to advance research and development in health information systems, medical imaging, genome analysis, and the modeling of biological systems. Graduates from this concentration will have the ability to assemble and perform more sophisticated analysis of mountains of previously unstudied information, developed more sophisticated techniques for personalized medical care, and use simulations to perform experiments that shorten the time to make and validate new discoveries in human care. Graduates will work for organizations like TGEN, pharmaceutical companies, and in the public health sector.

The hallmark of this program, however, is its emphasis in integrating theory and practice. It is designed to build team relationships between those with deep scientific understanding in computing, mathematics, biosciences AND the doctors, nurses, and technicians to put discovery to work in providing enhanced care of real people. The goal is to promote more rapid transition of new knowledge into use, and will also promote the ”use inspired” research that can have an immediate impact on individual health and quality of life, and on our communities.


Recent reports by the Arizona Department of Commerce and the Battelle Technology Partnership Practice cite the need for increased capacity in bioscience to respond to need and foster economic development in Arizona. Nearly all other Western states (notably California, New Mexico, Oregon, Texas, Utah, and Washington) have at least one strong biomedical informatics department. These academic departments play vital support roles to health care professionals, scientists and the bioscience industry in realizing the promise of the genomic revolution. Considering President Bush’s call for a national health information technology infrastructure, electronic medical records, and interoperability among healthcare providers within the next decade, there will be an even greater need among hospitals, health care providers, and bioscience businesses for information technology scientists and professionals, and for medical providers skilled in biomedical informatics. Moreover, with the prospect of eleven new hospitals being built in the Phoenix area alone, Governor’s electronic medical record initiative, and the emerging regional bioscience industry the need for BMI expertise in Arizona could not be greater. These initiatives specifically require the kind of preparation in biomedical informatics that this program is being designed to provide.

The proposed M.S. program is the first step by the Department of Biomedical Informatics at Arizona State University toward producing the kind of graduates necessary to yield the benefits to the local and regional economy for which it was created. After the faculty, curriculum, and research agendas are in place for the Masters, we plan to develop and implement a Ph.D. program to address the need for advanced educational opportunities and research collaborations. A recent industry survey found that the market for bioinformatics is estimated to be as high as $37 billion in 2006. Those companies will employ workers, creating jobs for Arizonans. A recent Battelle analysis found that university research is having a significant impact on Bioscience in Arizona, giving rise to 11 bioscience companies in 2004, up from 2 on 2002 and 6 in 2003. Biomedical informatics tools and applications developed in Arizona by university researchers and graduates of this program are necessary to foster development of new companies in Arizona.

Bioscience jobs in Arizona have grown 11.9% since 2000, to 73,433 jobs in 2004. The Bioindustry in Greater Phoenix already employs nearly 10,000 people in over 550 firms, a growth of over 335% since 1990. Bioindustry jobs generate high wages, which have grown over 50 percent to $50,086 per worker - more than $15,000 above the Greater Metropolitan Phoenix average. The M.S. Program in Biomedical Informatics will play a key role in providing the biomedical informatics knowledge essential to prepare new clinicians, scientists and researchers for jobs in these industries, and in continuing education for the growing health care and bioscience sector of the Arizona economy.

The new University of Arizona College of Medicine, Phoenix Program will depend on content developed for the biomedical Informatics curriculum, and the proximity of BMI researchers on the Phoenix Biomedical Campus of the Arizona State University System (PBCAUS). Fluency in with information technology in the medical arena will be essential under President Bush’s plan to establish a national health information technology infrastructure. Furthermore, the medical school has the potential to become a leader in medical education by training a new type of physician who is participate in and lead teams utilizing and developing information technology. Graduates of the MS Program at ASU will contribute to the new “ecosystem” necessary for this new kind of medical practice to thrive. An informatics-based curriculum has implications for customization of diagnosis and treatment, and improved patient safety. For example, students can practice surgery using computer simulations before attempting risky procedures on live patients.



  1. IS THERE SUFFICIENT STUDENT DEMAND FOR THE PROGRAM?

The MS Program in Biomedical Informatics at ASU will be attractive to students coming from a broad range of disciplines including Computer Science, Biological Sciences, Computational Biosciences, Healthcare, Statistics and Public Health Management. Because the program has a wide appeal and graduates will be in high demand in the job market, it is anticipated that student demand will be sufficient to meet the goals set forth in this document.




  1. What is the anticipated student enrollment for this program?




5-YEAR PROJECTED ANNUAL ENROLLMENT




1st yr.

2nd yr.

3rd yr.

4th yr.

5th yr.

No. Student

Majors


10

10

20

20

25



  1. What is the local, regional and national need for this program? Provide evidence of the need for this program. Include an assessment of the employment opportunities for graduates of the program during the next three years.

The field of bioinformatics has expanded in recent years to become one of the fastest-growing professions in the nation. It is estimated that over 20,000 new positions for people with bioinformatics degrees will open by the end of 2005, with even more opportunities for those who receive master’s and graduate degrees. Salaries for those with bioinformatics training are high, ranging from $40,000 for those with a bachelor’s degree to over $100,000 for those with a doctoral degree. According to the trade press, biotech and pharmaceutical companies will soon expect the persons they employ to have computer expertise as well as expertise in the biological/medical/clinical sciences. Competition for these individuals will be fierce, and if Arizona can not produce sufficient graduates with these capabilities; the state will not be a competitive location for biomedical industries to relocate. The success of the program will help determine the fraction of the 20,000 new positions being placed in Arizona.

Based on interviews with health care providers and biomedical research facilities, we identified a local need for individuals with both M.S. and Ph.D. level bioinformatics training. Because of the rapid expansion of the field locally, regionally and nationally, graduates from the BMI program will be in high demand both in clinical and research settings in the foreseeable future.



  1. Beginning with the first year in which degrees will be awarded, what is the anticipated number of degrees that will be awarded each year for the first five years?





PROJECTED DEGREES AWARDED ANNUALLY




1st Year

2nd Year

3rd Year

4th Year

5th Year

No. Degrees

8

8

17

17

22

(This projection is based upon an anticipated initial attrition rate of 20%, dropping to 10% as the program matures.)


IV. APPROPRIATENESS FOR THE UNIVERSITY -- Explain how the proposed
program is consistent with the University mission and strategic direction
statements of the university and why the university is the most appropriate
location within the Arizona University System for the program.
In the August 4, 2004 Memorandum of Understanding Regarding the Expansion of Medical Education and Research in Phoenix, the Arizona Board of Regents established the Phoenix Biomedical Campus of the Arizona State University System (PBCAUS) and charged Arizona State University with developing a Department of Biomedical Informatics. In December 2005 the formation of the Department was approved. The development of the Department of Biomedical Informatics has involved the University of Arizona, ASU colleges of Liberal Arts and Sciences, Business, and Engineering, research entities including the BioDesign Institute and Translational Genomics Research Institute (TGen), and clinical partners including, Banner Health, Barrow Neurological Institute, and the Mayo Clinic. The resulting plans for the Department of Biomedical Informatics conform to the thirteen principles ABOR set forth in the MOU to “advance our university system and our two research extensive universities to the level of national prominence in biomedical teaching and research.” The proposed MS Program in Biomedical Informatics at ASU is the first of several programs being developed by the new department to fulfill the mission for which it was created. Over the next several months following proposals will be submitted for a certificate program drawing on these same courses, and a Ph.D. program that builds on the Analytical Concentration proposed in this MS Program.


  1. EXISTING PROGRAMS AT OTHER CAMPUSES




  1. EXISTING PROGRAMS IN ARIZONA

  1. For a unique (non-Duplicative) program, provide a statement to the effect that there are no existing programs at other Arizona public universities that duplicate the proposed program.

The office of Institutional Analysis reports there are no existing programs at Arizona Public universities using the CIP code for Bioinformatics (26.1103).

  1. Other Institutions

No programs in Biomedical Informatics at the Master’s level are currently offered by private institutions in the state of Arizona.


  1. Programs offered in Other WICHE States




  1. Identify WICHE institutions that currently offer this program.







PROGRAMS OFFERED IN OTHER WICHE STATES





PROGRAM


WICHE

INSTITUTION & LOCATON

NCA Accreditation?

( Y or N)

Program

Accreditation?

(Y or N)

1

Medical Informatics, Dept. of Medicine

Stanford University - CA

No

No

2

Dept. of Medical Informatics and Clinical Epidemiology, School of Medicine

Oregon Health and Science University - OR

No

No

3

Dept. of Medical Informatics, School of Medicine

University of Utah - UT

No

No

4

Medical Informatics, UC Davis Health System

University of California Health Systems – UC Davis - CA

No

No

5

Masters in Bioscience Program

Keck Graduate Institute – University of Southern California

No

No


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