Title: Poster Presentations
1Poster Presentations
- This is
- A Presentation about Presentations
- A Power Point about a Power Points
- A Talk about Talks
- A boring speech about how not to be boring
2Poster Session for all SULI, NUF, ACTS, PST,
NPT, STP, FaST, CCI, HSI, and SOS
-
- Deadlines
- Monday, March 14 asking me to print your poster
- Wednesday, March 16 print your own poster
- Invite your mentors!
3What is a poster?
- A picture book science paper
- for people who prefer to stand!
- Say it in pictures
- Flow charts to explain experiment design and
methods - Photos for setups, apparatus, design, results
- Graphs to show relationships, results, models
- Graphics for computer models
- Explain in big letters and simple words
- Use color and pictures to attract attention and
to bring people closer
4What NOT to do
- Work hard to create a Van Gogh then hold up the
printer until it runs out of ink
- Wait until the last minute and thumb tack a print
out of the final paper
5What to do?
- Plan your research report
- What have you done? really!
- How?
- What has been done previously? (Introduction)
- Write an outline Connect Ideas!
- Prepare all figures
- Expand the outline add explanations
- Transfer all your work to the poster
6Setup in Power Point for making a one-page
(one-slide) poster
Under the Design pull down menu choose page
setup and then custom for size The plotter at
WH can print up to 3 wide and any reasonable
length, so 48 x48 is quite possible
7Slide Layout
- The next few slides show examples of layout. Feel
free to use and/or modify any of these examples
8Title of Poster in Arial, Bold, 80-96 Points
Size Dependent on Length
Names of Authors in Arial, 60 Points, Bold
Lab Logo
Institution Logo
Heading 1, Arial, 54 points, bold Text in Arial,
40 points, Bold. Text in Arial, 40 points, Bold.
Text in Arial, 40 points, Bold. Text in Arial,
40 points, Bold.
Heading 4, Arial, 54 points, bold Text in Arial,
40 points, Bold. Text in Arial, 40 points, Bold.
Text in Arial, 40 points, Bold.
Key Image 3
Key Image 5
Key Image 1
Figure 3. Caption in Arial, 36 points, bold.
Heading 3, Arial, 54 points, bold Text in Arial,
40 points, Bold. Text in Arial, 40 points, Bold.
Text in Arial, 40 points, Bold. Text in Arial, 40
points, Bold. Text in Arial, 40 points, Bold.
Figure 5. Caption in Arial, 36 points, bold.
Figure 1. Caption in Arial, 36 points, bold.
Heading 5, Arial, 54 points, bold Text in Arial,
40 points, Bold. Text in Arial, 40 points, Bold.
Heading 2, Arial, 54 points, bold Text in Arial,
40 points, Bold. Text in Arial, 40 points, Bold.
Text in Arial, 40 points, Bold.
Key Image 4
Acknowledgments (Arial, 40) Acknowledgments in
Arial, 32 points, bold--try to keep to one or two
lines,
Key Image 2
References (Arial, 40 points, bold) First
reference in Arial, 32 points, bold, with a
reverse indent alphabetical or numerical
order. Second reference in Arial, 32 points,
bold, with a reverse indent alphabetical or
numerical order.
Figure 2. Caption in Arial, 36 points, bold.
Figure 4. Caption in Arial, 36 points, bold.
9Example 1 Social Sciences
10How to present?
- You have 30 seconds to get the judges attention!
- DONT give a history lesson!
- DO tell most important findings first
- SUMMARY FIRST
- Move in diagonally through your poster
- Repeat and explain
- After 1 2 minutes
- If the listener is still there you are doing
well - Have a great time!
11Example 2 Molecular Biology
12Example 3 Plasma Physics
13Graphical Abstract
Graphical Abstract
- AbstractArgon plasma sintering of inkjet
printed silver tracks on polymer substratesIngo
Reinhold, Chris E. Hendriks, Rebecca Eckardt,
Johannes M. Kranenburg, Jolke Perelaer, Reinhard
R. Baumann and Ulrich S. Schubert - An alternative and selective sintering
method for the fabrication of conductive silver
tracks on common polymer substrates is presented,
by exposure to low-pressure argon plasma. Inkjet
printing has been used to pattern a silver
nanoparticle ink. This resulted in conductive
features with a resistivity less than one order
of magnitude higher than the bulk value of silver
without affecting the polymer substrate. This
process may be employed in the production of
conductive features with low material usage on
common polymer substrates in, for example,
printed electronics.