2018 SHORT COURSESpresented by the Rocky Mountain AVS
Registration is now available for the Rocky Mountain Chapter of the AVS at the National website by clicking below.
Please help the Rocky Mountain Chapter contain the costs of our Symposium by staying in rooms from our block at the Westminster Double Tree Hotel!
A block of rooms has been reserved for attendees of the 2018 Rocky Mountain AVS Symposium and short course program. For 2018, the Rocky Mountain Chapter is required to pay to the DoubleTree hotel a penalty equal to the price of the room for any rooms not reserved and used by RM-AVS attendees. This is a new policy, and could noticeably increase the cost of putting on our event.
Rooms from the room bock are a very good deal. The Rocky Mountain Chapter room rate is $116. This is a much reduced over the best rate available on the hotel’s website of $156 (as of May 2018).
To get this excellent rate, please use/mention the group code AMV and group name: American Vacuum Society- Rocky Mountain Chapter when reserving either on the hotel’s website or by calling the hotel at 303-427-4000. A direct link to the group reservations page is:
An added bonus of this special rate is that it is available the whole week, and into the weekend after the RMC event if you want to stay and enjoy Colorado!
- Be introduced to the fundamental concepts of vacuum technology.
- Learn about common vacuum system hardware and instrumentation, including pumps, gauges, flanges, valves, and feedthroughs.
- Understand applications and processes involving vacuum technology.
- Benefit from a “just right” two-day course (when you don’t have the time or the need to attend a four- or five-day introductory course).
The course begins with a definition of vacuum and a description of the physical conditions existing in a vacuum environment. Following this introduction will be a discussion of gases at low pressures and the interactions between gases and solids. The phenomena of gas flow though vacuum systems will then be examined. The primary components of vacuum systems, with an emphasis on pumps and gauges, will be described.
Requirements for materials compatible with the vacuum environment will be discussed. Various sealing techniques will be described, including coverage of all demountable flange systems in common use today. Common vacuum system configurations and operational procedures will be outlined. The course will finish with a description of vacuum leak detection methods and the far-reaching applications of vacuum technology today.
Ample time for questions and discussion will be scheduled. A comprehensive list of references will be provided for those wishing to learn more detailed information about specific areas. The emphasis of the course will be to provide practical information for individuals with minimal training in vacuum technology.
Who Should Attend?
Managers, technicians, engineers, and scientists who desire an introduction to the concepts, hardware, and instrumentation used in applied vacuum technology today. Those interested in a short review of vacuum basics will also find this course valuable.
Fundamentals and Applications of X-ray Photoelectron Spectroscopy (XPS) and Auger Electron Spectroscopy (AES)
Kateryna Artyushkova, Associate Professor of Chemical and Biological Engineering, University of New Mexico. September 12, 2018
- Learn basic principles of two major surface analytical methods – XPS and AES
- Learn capabilities and limitations of techniques
- Discover types of applications of XPS and AES
- Learn good practices of quantitative surface analysis
The course discusses fundamental approach towards surface analytical methods. The basic principles of XPS will be discussed along with approaches towards qualitative and quantitative analysis. Benefits of chemical analysis will be discussed in details. The state of the art types of commercial instrumentation available will be introduced. Types of analytical data, i.e. large and small area spectroscopy, depth profiling, and imaging will be presented. Examples of the use of XPS with many types of materials and to diverse kinds of problems (eg. surface contamination, corrosion, catalysis, failure analysis, metrology) will be presented. Good practices for spectra processing and data analysis will be discussed as well.
In the second section, basic principles of AES will be discussed along with limitations and advantages of this method for different applications. Auger mapping capabilities will be demonstrated for several examples.
Who Should Attend?
Scientists, engineers, technicians, and students who desire a practical, current understanding of XPS and AES.
Thin Film Nucleation and Growth
Joe Greene Professor of Materials Science and Head of Electronics Materials Division, University of Illinois. September 13, 2018
- Understand the primary experimental variables and surface reaction paths controlling nucleation/growth kinetics and microstructural evolution during vapor-phase deposition.
- Develop an appreciation of the advantages/disadvantages of competing growth techniques.
- Learn how to better design film growth processes.
Thin-film technology is pervasive in many applications, including microelectronics, optics, magnetics, hard and corrosion resistant coatings, micromechanics, etc. Progress in each of these areas depends upon the ability to selectively and controllably deposit thin films (thickness ranging from tens of angstroms to micrometers) with specified physical properties. This, in turn, requires control — often at the atomic level — of film microstructure and microchemistry.
Essential fundamental aspects, as well as the technology, of thin-film nucleation and growth from the vapor phase (evaporation, MBE, sputtering, and CVD) are discussed in detail and highlighted with “real” examples. The course begins with an introduction on substrate surfaces: structure, reconstruction, and adsorption/desorption kinetics. Nucleation processes are treated in detail using insights obtained from both in situ (RHEED, LEED, STM, AES, EELS, etc.) and post-deposition (TEM and AFM) analyses. The primary modes of nucleation include 2D (step flow, layer-by-layer, and 2D multilayer), 3D, and Stranski-Krastanov. The fundamental limits of epitaxy will be discussed.
Experimental results and simulations will be used to illustrate processes controlling 3D nucleation kinetics, island coalescence, clustering, secondary nucleation, column formation, preferred orientation, and microstructure evolution. The effects of low-energy ion-irradiation during deposition, as used in sputtering and plasma-CVD, will be discussed with examples.
Who should attend?
- Scientists and engineers involved in deposition characterization or manufacturing/marketing of deposition equipment.
- Those who conduct surface analysis characterizations or specify measurements to be performed.
Joe Greene, Professor of Materials Science and Head of Electronics Materials Division, University of Illinois, Thursday September 14, 2018
- Understand target effects and sputtered atoms.
- Learn about magnetron, diode, triode, and ion beam systems.
- Learn about DC and RF systems for targets and substrates.
- Understand reactive sputtering.
- Understand film properties and learn system parameters.
Films are deposited by sputtering for their useful properties in microelectronics, surface protection, optics, etc., by a variety of sputtering techniques. The film properties depend on the parameters of the sputtering system, such as pressure and substrate bias.
This course provides an understanding of the cause and effect of changes in sputtering parameters on the energetics of the sputtering and deposition processes and their relationship to film properties. The energy and distribution of species ejected from the target are discussed. The effect of the sputtering system on material transport to the substrate and subsequent film deposition is also discussed for films of metals, alloys, and compounds. The parameters of different sputtering systems (diode, triode, magnetron, and ion guns) with DC and RF power supplies are discussed with respect to film properties.
Who Should Attend?
Scientists, technicians, and others involved in the deposition of thin films by sputtering who want to understand the effects of operating parameters on the properties of metal, alloy, and dielectric films.
Controlling Contamination in Vacuum Systems
Tim Gessert Senior Scientist, EPIR Inc. September 14, 2018
- Understand the three phases of vacuum chamber contamination: gases, films, and particulates.
- Learn the origins of vacuum chamber contaminants and methods for controlling or eliminating them.
Various forms of contamination in a vacuum system affect the environment in which vacuum processes are conducted. Understanding and controlling these contaminants are important steps in producing the desired chamber conditions or products.
This course addresses three phases of in-chamber contamination: gases, films, and particulates. The origin of these contaminants and methods of eliminating them are discussed. The emphasis is on defining the level of control required and identifying the appropriate procedures necessary to establish that control. There will also be discussion on the environment that must be achieved in the chamber and how it is related to the vacuum system operating and maintenance procedures and the environment outside the chamber.
This course is presented in a semi-workshop, interactive format.
Who Should Attend?
Those responsible for the production of contaminant-free products and for the design, operation, and maintenance of vacuum systems producing these products. The course will also interest suppliers of components and products that either control or produce contamination in a vacuum environment.
Vacuum System Operational Essentials and Leak Detection
Neil Peacock Board of Directors of the AVS Vacuum Technology Division, chair of the AVS Recommended Practices Sub-Committee on Ionization Gauges. September 12, 2018
In this course you will gain knowledge and insight about:
- Basics of vacuum system layout and gas handling
- Why material choices affect vacuum system performance
- Essentials of system assembly or modifying
- How and why parts are cleaned and prepared for vacuum systems
- Overview of leak detection methods
- How a mass spectrometer leak detector works
- Care and expected maintenance of a mass spectrometer leak detector
- Leak detection methods, tips and tricks
- What to do when a leak is found
- What is next when a system passes leak test but has sub-par performance
Who Should Attend?
For more information about registration for the courses at the National AVS in Long Beach, CA contact Heather Korff, email@example.com (530)-896-0477.
Courses by Request
AVS is pleased to announce “Courses By Request.” Through an online form, you tell us which course(s) you need, the time frame in which you need them offered, how many people (other than yourself) are interested in the same course(s), and your traveling restrictions. As requests are received, the Committee will work to identify additional interested participants, and schedule the course(s) at a facility and date that will meet everyone’s needs. To request an AVS Short Course just complete the “Courses By Request” online form, http://www.avs.org/Education-Outreach/Short-Courses/Short-Courses-by-Request If you have any questions about AVS Short Courses send us a note at firstname.lastname@example.org or call us between 8:30 a.m. and 4:30 p.m. Pacific time at 530-896-0477.