Air Force Civil Engineers in Joint Engineer Operations: Validating the Concept and Incorporating Lessons Learned

2009 ◽  
Author(s):  
Jr Allen ◽  
John J.
1949 ◽  
Vol 53 (463) ◽  
pp. 667-730
Author(s):  
E. A. Harrop

The 767th Lecture was read before the Royal Aeronutical Society on Thursday, 17th February 1949, at the Institution of Civil Engineers, Great Georgr Street, London, S.W.1. Dr. H. Roxbee cox, D.I.C., F.R.A.e.S., President of the Society introduced the Lecture Squadron Leader E. A. Harrop, O.B.E., A.F.R.Ae.S., R.A.F., of the Department ot the Air Member for Technical Services, Air Ministry, and a serving engineer officer of long experience in the Royal Air force.


2016 ◽  
Vol 51 (10) ◽  
pp. 1493-1524 ◽  
Author(s):  
Stephen P Engelstad ◽  
Stephen B Clay

This paper provides overall comparisons of the static results of an Air Force Research Laboratory exploration into the state of the art of existing technology in composite progressive damage analysis. In this study, blind and re-calibration bench-marking exercises were performed using nine different composite progressive damage analysis codes on unnotched and notched (open-hole) composite coupons under both static and fatigue loading. This paper summarizes the results of the static portion of this program. Comparisons are made herein of specimen stiffness and strength predictions against each other and the test data. Overall percent error data is presented, as well as a list of observations and lessons learned during this year-long effort.


Author(s):  
Robert J. B. Hutton ◽  
Gary Klein

Lessons learned from experienced researchers can provide an invaluable resource for any organization. The purpose of this project was to interview successful researchers from the Armstrong Laboratory (AL/HEA) at Wright-Patterson AFB to learn from some of their successful projects. The ultimate goals of the project were threefold: to provide AL/HEA with an alternative way to capture and describe the successes of their researchers; to identify themes that emerged from these projects regarding researchers' problem-solving, project leadership, and project management skills; and finally, to provide recommendations to the organization which would promote and support ways to increase opportunities for successful projects. Eleven interviews were conducted. Each of the researchers was interviewed about a project that had provided some concrete benefit to the Air Force. We used a form of the Critical Decision method to elicit 15 accounts. Several themes were identified that characterized the research projects, and recommendations were made to encourage the initiative of laboratory personnel and increase opportunities for successes.


1952 ◽  
Vol 56 (500) ◽  
pp. 573-618
Author(s):  
E. A. Whiteley

The 850th Lecture to be given before the Royal Aeronautical Society was delivered at the Institution of Civil Engineers, Great George Street, London, S.W.1, on 20th March 1952. Major G. P. Bulman, C.B.E., F.R.Ae.S. (Past President) presided and introduced the Lecturer, Group Captain E. A. Whiteley, D.F.C., B.A., A.F.R.Ae.S., Royal Air Force, who was attending the Joint Services Staff College and who, in addition to being a pilot, had qualified as an R.A.F. Engineering and Navigation Specialist and also held a British Civil Airline Pilot's Transport Licence and a Flight Navigator's Licence.


2019 ◽  
Vol 184 (9-10) ◽  
pp. 509-514
Author(s):  
Ana Elizabeth Markelz ◽  
Alice Barsoumian ◽  
Heather Yun

Abstract Introduction There are many unique aspects to the practice of military Infectious Diseases (ID). San Antonio Uniformed Services Health Consortium Infectious Disease (ID) Fellowship is a combined Army and Air Force active duty program. Program leadership thought ID military unique curriculum (MUC) was well integrated into the program. We sought to verify this assumption to guide the decision to formalize the ID MUC. This study describes our strategy for the refinement and implementation of ID specific MUC, assesses the fellow and faculty response to these changes, and provides an example for other programs to follow. Methods We identified important ID areas through lessons learned from personal military experience, data from the ID Army Knowledge Online e-mail consult service, input from military ID physicians, and the Army and Air Force ID consultants to the Surgeons General. The consultants provided feedback on perceived gaps, appropriateness, and strategy. Due to restrictions in available curricular time, we devised a three-pronged strategy for revision: adapt current curricular practices to include MUC content, develop new learning activities targeted at the key content area, and sustain existing, effective MUC experiences. Learners were assessed by multiple choice question correct answer rate, performance during the simulation exercise, and burn rotation evaluation. Data on correct answer rate were analyzed according to level of training by using Mann–Whitney U test. Program assessment was conducted through anonymous feedback at midyear and end of year program evaluations. Results Twelve military unique ID content areas were identified. Diseases of pandemic potential and blood borne pathogen management were added after consultant input. Five experiences were adapted to include military content: core and noon conference series, simulation exercises, multiple choice quizzes, and infection control essay questions. A burn intensive care unit (ICU) rotation, Transport Isolation System exercise, and tour of trainee health facilities were the new learning activities introduced. The formal tropical medicine course, infection prevention in the deployed environment course, research opportunities and participation in trainee health outbreak investigations were sustained activities. Ten fellows participated in the military-unique spaced-education multiple-choice question series. Twenty-seven questions were attempted 814 times. 50.37% of questions were answered correctly the first time, increasing to 100% correct by the end of the activity. No difference was seen in the initial correct answer rate between the four senior fellows (median 55% [IQR 49.75, 63.25]) and the six first-year fellows (median 44% [IQR 39.25, 53]) (p = 0.114). Six fellows participated in the simulated deployment scenario. No failure of material synthesis was noted during the simulation exercise and all of the fellows satisfied the stated objectives. One fellow successfully completed the piloted burn ICU rotation. Fellows and faculty reported high satisfaction with the new curriculum. Conclusions Military GME programs are required by congress to address the unique aspects of military medicine. Senior fellow knowledge using the spaced interval multiple-choice quizzes did not differ from junior fellow rate, supporting our concern that the ID MUC needed to be enhanced. Enhancement of the MUC experience can be accomplished with minimal increases to curricular and faculty time.


2019 ◽  
Vol 22 (16) ◽  
pp. 3534-3543
Author(s):  
Aftab Mufti ◽  
Baidar Bakht ◽  
Huma Khalid

Civil infrastructures, being essential for modern and advanced societies, are the foundation of the dynamic economy and improvement of the quality of people’s lives. The design and construction of such infrastructures involve a significant cost to a country, but the proper use of the scientific methods to monitor and maintain these structures can improve their cost-effectiveness. Civil engineers strive to design and construct structures meeting the highest standards of engineering in order to enhance the durability and functionality of such infrastructures. However, civil engineers have been rather slow in adopting civionics engineering to improve the useful life of infrastructures. It is noted that the new term ‘civionics’ was coined recently to denote structural health monitoring of civil structures with the help of electronic sensors. This article will discuss several lessons learned during the implementation of health monitoring systems for civil structures.


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