国际会议海报Poster模板
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POSTER(海报)
(三)演出消息海报 (recreation)
Recital There will be a solo concert given by Xiamen Symphony Orchestra. The programs include world famous solos by piano, violin, clarinet, harp and other domestic songs. Admission free. Time: April 12, 7:00 P.M. Place: The auditorium
海报(POSTER)
1. 海报（poster）是一种带有装饰性的宣传广告，是 某些单位或团体向广大群众通报有关球赛、电影、 演出、学术活动等所使用的张贴。 2. 海报一般张贴在单位内部，但也可以向外昭示。对 内的海报一般贴在布告栏、墙上等人多的公共场所， 对外的海报可以张贴在闹市、广场、交通要道等人 来人往的地方，也可以借助于报纸、电视等传媒发 表。有的海报还配以绘画、着以色彩，以引人注意。 海报可以手写，也可以采取印刷形式。
海报(POSTER)
3. 海报因为是就最近即将开展的某项活动而写，是事先 为把某事告知群众、招徕群众而写，活动结束，它的 使命就完成了，所以时效性很强。 4. 海报一般来说无特定的读者对象，所以它不用称呼； 另外，从海报的功用来看，它更像是广告，所以语言 也接近于广告语言。 5. 海报多用短语，并常用不符合语法的省略句。
(六)公园开放海报 (formal opening of the park)
FORMAL OPENING OF FOREST PARK The formal opening of Forest Park will take place on the first of October, at 9:00 A.M., when there will be a large gathering, at which a lovely program of entertainments will be presented, People of all circles are heartily welcome to be present on this memorable occasion. The park is situated in the eastern suburbs of Taiyuan City. Bus No.3 goes there. Forest Park Management Office September 7, 2004
横向学术poster模板
横向学术poster模板
横向学术海报（poster）是一种常见的学术交流形式，用于展示研究成果、观点或实验数据。
以下是一个横向学术海报的模板，包含了一般情况下需要包括的几个主要部分：
1. 标题部分：
海报标题，简洁明了地概括研究内容或主题。
作者信息，包括作者姓名、所属机构和联系方式。
2. 引言部分：
研究背景，介绍研究领域的背景和相关文献。
研究问题，明确研究的目标和问题。
研究意义，阐述研究的重要性和应用价值。
3. 方法部分：
研究设计，描述实验设计、数据收集和分析方法。
样本/实验对象，介绍研究所使用的样本或实验对象。
测量指标，列出用于评估研究结果的主要指标。
4. 结果部分：
数据展示，通过图表、表格或图片等方式展示研究结果。
结果解读，对结果进行解读和分析，突出关键发现和趋势。
5. 讨论部分：
结果解释，解释结果与研究问题之间的关系。
结果比较，将结果与相关研究进行比较和讨论。
结果影响，讨论结果对该领域的影响和可能的应用。
6. 结论部分：
主要结论，总结研究的主要发现和结论。
展望未来，提出进一步研究的方向和建议。
7. 参考文献部分：
引用文献，列出在海报中引用的相关文献。
此外，还可以根据具体研究内容的需要添加其他部分，如实验
过程、图示说明等。
请注意，以上仅是一个一般的横向学术海报模板，具体的内容
和结构可以根据研究的具体要求和学术会议的规定进行调整和修改。
医学国际会议学术交流壁报模板
phosphoJNK
stimulated in vitro with agonists, and exposed for identical total periods to experimental
total JNK
conditions. Phospho-JNK was assessed by
phospho-JNK (% of unstimulated) phospho-JNK (% of unstimulated)
Aim
To investigate whether JNK participates in a1-adrenergic contraction of human prostate smooth muscle.
Methods
• Human prostatic tissue: radical prostatectomy
Figure 2: Effect of the JNK inhibitor SP600125 on electric field stimulation- (EFS-) induced
contraction of human prostate strips. Contraction of prostate tissue in response to EFS was determined by myographic measurements. SP200125 (50 mM) or the solvent DMSO were added between two cycles of EFS (30 minutes before the second cycle). Shown are frequencydependent concentrations. Data are means±SEM from experiments with tissues from n=7 patients. *, p<0.05 for DMSO vs. SP600125.
poster海报模板
Table 1. Heading of the Table left justified. Do not use vertical lines within the table, use horizontal lines only to separate headings from table entries Xxxx Xxxx Xxx Xxxx Xxxxxx _________________________________________________________________ X X XXX XX X XX XXX XX X XX XXX X X XXX XXX XXXX XX X X X X XX XXX XX XXX XXXXX _________________________________________________________________
Paper ID:
Contact email:
(a) P rediction of chaotic time series
1.5 1 0.5 0 100 200 300 400 500 600 700 800 900 1000
Actual output
Model prediction
Fig. X. Title of figure, central justified
Others 2
•请按上述要求填写Poster模板，并转成PDF，提交给会务组。会务组将统一 打印、张贴。 •根据文章结构合理安排Poster内容，力求简练，清楚，最好分条目撰写， 避免大段落文字论述。 •请严格控制Poster版面内容(共一页)，不足的地方请留白，切勿将引导文字 留在版面内。 •基金支持和作者信息请置于Poster底部。 •请严格按照上述模版格式排版，poster中所附的图和表的总数限制在5幅以 内。由于文字较多，无法按规定格式完成的，可做适当调整。 •Poster的PDF文档请统一于5.6前发至iswrep2011bqsc@
国际会议poster 模板
Do not use images from the web.
Notes about graphs…
For simple graphs use MS Excel, or do the graph directly in PowerPoint.
Graphs done in a scientific graphing programs (eg. Sigma Plot, Prism, SPSS, Statistica) should be saved as JPEG or TIFF if possible. For more information see MIU.
Printing and Laminating… Once you have completed your poster, bring it down to MIU for printing. We will produce a A3 size draft print for you to check and proof read. The final poster will then be printed and laminated. Note: Do not leave your poster until the last minute. Allow at least 5 working days before you need to use it. Simply highlight this text and replace.
The best type of image files to insert are JPEG or TIFF, JPEG is the preferred format.
Be aware of the image size you are importing. The average colour photo (13 x 18cm at 180dpi) would be about 3Mb (1Mb for B/W greyscale). Call MIU if unsure.
Notes about graphs…
For simple graphs use MS Excel, or do the graph directly in PowerPoint.
Graphs done in a scientific graphing programs (eg. Sigma Plot, Prism, SPSS, Statistica) should be saved as JPEG or TIFF if possible. For more information see MIU.
Printing and Laminating… Once you have completed your poster, bring it down to MIU for printing. We will produce a A3 size draft print for you to check and proof read. The final poster will then be printed and laminated. Note: Do not leave your poster until the last minute. Allow at least 5 working days before you need to use it. Simply highlight this text and replace.
The best type of image files to insert are JPEG or TIFF, JPEG is the preferred format.
Be aware of the image size you are importing. The average colour photo (13 x 18cm at 180dpi) would be about 3Mb (1Mb for B/W greyscale). Call MIU if unsure.
国际学术会议海报(poster)模板(英文)
Optical Time Domain Reflectometer (OTDR)
Pulse Duration
0.035 0.03
OTDR Saturation at Increased Pulse Durations
1 second 2 seconds 3 seconds
0.025
0.02
0.015
1
0.01
0.005
0
1
1.5
2
2.5
3
3.5
4
4.5
5
Travel Distance from Source (m)
Fiber optic characterization using a simulated Optical Time-Domain Reflectometer (OTDR)
Robb P. Merrill
Department of Electrical and Computer Engineering - University of Utah
Figure 5: Reflection patterns using various connectors (reduced Fresnel magnitudes inside yellow box)
Summary
Short fiber optic cables present many challenges that must be overcome in order to accurately detect fiber damage using OTDR. Pulse durations shorter than 1 microsecond, and Angled Physical Contact (APC) fiber connectors are recommended to provide the greatest reduction in Fresnel reflection. By performing OTDR simulations, an optical systems engineer could understand the behavior of a fiber network and detect potential problems before actual production.
Pulse Duration
0.035 0.03
OTDR Saturation at Increased Pulse Durations
1 second 2 seconds 3 seconds
0.025
0.02
0.015
1
0.01
0.005
0
1
1.5
2
2.5
3
3.5
4
4.5
5
Travel Distance from Source (m)
Fiber optic characterization using a simulated Optical Time-Domain Reflectometer (OTDR)
Robb P. Merrill
Department of Electrical and Computer Engineering - University of Utah
Figure 5: Reflection patterns using various connectors (reduced Fresnel magnitudes inside yellow box)
Summary
Short fiber optic cables present many challenges that must be overcome in order to accurately detect fiber damage using OTDR. Pulse durations shorter than 1 microsecond, and Angled Physical Contact (APC) fiber connectors are recommended to provide the greatest reduction in Fresnel reflection. By performing OTDR simulations, an optical systems engineer could understand the behavior of a fiber network and detect potential problems before actual production.
学术会议海报Poster模板1
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Figure #1
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Figure #1
poster模板
Aim
How to use this poster template…
Simply highlight this text and replace it by typing in your own text, or copy and paste your text from a MS Word document or a PowerPoint slide presentation.
Statistica) should be saved as JPEG or TIFF if TpimoesssNiebwlReo.mFanoorr emquoivarleent,
information see MIU.
italic, between 18 and 24 points. Left aligned if it refers to a figure
For poster-printing and laminating chaCragpetiosnsctoobne tsaetcintTtiomesMorIU
Times New Roman or equivalent, italic, between 18 and 24 points. Left aligned if it refers to a figure on its left. Caption starts right at the top edge of the picture (graph or photo).
Captions to be set in Times or Times New Roman or equivalent, italic, between 18 and 24 points. Right aligned if it refers to a figure on its right. Caption starts right at the top edge of the picture (graph
How to use this poster template…
Simply highlight this text and replace it by typing in your own text, or copy and paste your text from a MS Word document or a PowerPoint slide presentation.
Statistica) should be saved as JPEG or TIFF if TpimoesssNiebwlReo.mFanoorr emquoivarleent,
information see MIU.
italic, between 18 and 24 points. Left aligned if it refers to a figure
For poster-printing and laminating chaCragpetiosnsctoobne tsaetcintTtiomesMorIU
Times New Roman or equivalent, italic, between 18 and 24 points. Left aligned if it refers to a figure on its left. Caption starts right at the top edge of the picture (graph or photo).
Captions to be set in Times or Times New Roman or equivalent, italic, between 18 and 24 points. Right aligned if it refers to a figure on its right. Caption starts right at the top edge of the picture (graph
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75nm
A
Incident las0 5 0 -5 0
B
(Right) 3-dimensional representation of the optical field strength in a thin film placed below the tip of an apertured SNOL probe. Optical intensity distribution is calculated with the Bethe-Bouwkamp model (λ = 325nm, aperture diameter 50nm, film thickness 20nm and film refractive index 1.73 + 0.067i.)
Scanning near-field optical lithography (SNOL) of organic semiconductors
Dan Credgington1, Oliver Fenwick1, Ana Charas2, Jorge Morgado2, Klaus Suhling3 and Franco Cacialli1
BTOx
5µm
1 0
8
X
6
nm
4 2 0 0 50 1 00
nm 150
200
Photoinitiator
Non-uniform shrinkage during baking
• Uniform films shrink ~50% during baking. • Height and width of nano-sized dots measured before and after baking
Sub-wavelength aperture
x y z
-5
100
200 nm
300
400
• Structure of 65,000 pixels. • Minimum resolution 60 nm.
Log (Intensity)
→ Integrity of aperture maintained.
IN SUMMARY, scanning near-field optical lithography is a powerful tool for patterning materials on the nano-scale. We have investigated the resolution achievable with our system, as applied to the patterning of PPV, and found that a feature size of around 50nm are possible. We have also shown that, in addition to individual small structures, creating large arrays and more complicated designs is equally feasible using SNOL. Finally, we have shown that a variety of other materials are suitable for patterning via this technique, including BTOx and F8Ox, which undergo a very different reaction to PPV.
PXT UV activation PPV
PPV
1µm
Contacts
SNOL
Optical fibre probe
• The SNOL probe: a sharpened, metal-coated optical fibre with a sub-wavelength aperture defined at the apex • 325nm HeCd laser launched into the fibre.
PPV structures fabricated via a Wessling-type precursor process using SNOL to convert poly(p-xylene tetrahydrothiophenium chloride) (PXT) in-situ into conjugated PPV. Unexposed PXT removed using methanol
40
UV activation r-BTOx
300
Sample 1 Sample 2 Sample 3 Sample 4 Sample 5
Baked Height (nm)
30
Sample 1 Sample 2 Sample 3 Sample 4 Sample 5
Baked FWHM (nm)
(Right, top) An array of pillars defined in r-BTOx from a 200nm film using a 60nm probe aperture (Right, bottom) cross section through the pillars, typical feature size of around 500nm. ~500nm
Quartz tuning fork
(Left) AFM scan of a features drawn in PPV on a variety of length scales, from a ~15nm thick precursor film using a 50nm near-field probe.
A
• Optical near-field generated around the aperture
10µm
B
200nm
Probe tip
• Contact is maintained using shear-force feedback
Sample
nm
10
(Below) Cross-sections of the finest features.
1
UCL Department of Physics and Astronomy and London Centre for Nanotechnology, 17-19 Gordon Street, London WC1H 0AH, UK. 2 Instituto de Telecomunicações, Instituto Superior Técnico, Av. Rovisco Pais 1, P-1049-001 Lisboa, Portugal. 3 Department of Physics, King’s College London, The Strand, London WC2R 2LS, UK.
200 1 50
200
20
X
100
10
X
nm
1 00 50 0 -50 0 1 2 3 4 5
5µm
0
µm 6
7 8 9 1 0 1 1
0
0
100
200 Unbaked FWHM (nm)
300
400
0
10
20
30
40
50
Unbaked Height (nm)
F8Ox
• Oxetane side chains (analogue to BTOx). • Blue-emitting. • Photoluminescence preserved during lithography. • Under-exposure results in positioned features (area C). poorly
55nm
A copolymer based around the common green-emitting polymer F8BT. • Cross-linking through oxetane sidechains activated via a photoacid initiator. • Cross-linked reticulated network (rBTOx) forms. • Development in THF removes the unexposed polymer.
Linear fits to data give :
Wb Wub 46nm H b 0.7 H ub 3nm
W = width (FWHM) H = height b = baked ub = unbaked
→ 30% vertical shrinkage → Outer layers collapse a fixed 20-25 nm around the edge (not dependent on lateral dimension)
Scanning near-field optical lithography (SNOL) has been shown to provide a versatile method for patterning materials over lengths well below the classical diffraction limit. We apply this technique thin films of organic semiconductors. These optically and electronically active materials are chemically tuneable, flexible, and can often be processed directly from solution. For applications in photonic devices and nano-electronics, achieving lithographic resolution on the nano-scale is vital. Using a home-built SNOL system, we demonstrate how thin films of the widely studied polymer poly(para-phenylene-vinylene) (PPV), and the cross-linkable oxetane derivatives F8Ox and BTOx can be patterned to any predetermined design.
A
Incident las0 5 0 -5 0
B
(Right) 3-dimensional representation of the optical field strength in a thin film placed below the tip of an apertured SNOL probe. Optical intensity distribution is calculated with the Bethe-Bouwkamp model (λ = 325nm, aperture diameter 50nm, film thickness 20nm and film refractive index 1.73 + 0.067i.)
Scanning near-field optical lithography (SNOL) of organic semiconductors
Dan Credgington1, Oliver Fenwick1, Ana Charas2, Jorge Morgado2, Klaus Suhling3 and Franco Cacialli1
BTOx
5µm
1 0
8
X
6
nm
4 2 0 0 50 1 00
nm 150
200
Photoinitiator
Non-uniform shrinkage during baking
• Uniform films shrink ~50% during baking. • Height and width of nano-sized dots measured before and after baking
Sub-wavelength aperture
x y z
-5
100
200 nm
300
400
• Structure of 65,000 pixels. • Minimum resolution 60 nm.
Log (Intensity)
→ Integrity of aperture maintained.
IN SUMMARY, scanning near-field optical lithography is a powerful tool for patterning materials on the nano-scale. We have investigated the resolution achievable with our system, as applied to the patterning of PPV, and found that a feature size of around 50nm are possible. We have also shown that, in addition to individual small structures, creating large arrays and more complicated designs is equally feasible using SNOL. Finally, we have shown that a variety of other materials are suitable for patterning via this technique, including BTOx and F8Ox, which undergo a very different reaction to PPV.
PXT UV activation PPV
PPV
1µm
Contacts
SNOL
Optical fibre probe
• The SNOL probe: a sharpened, metal-coated optical fibre with a sub-wavelength aperture defined at the apex • 325nm HeCd laser launched into the fibre.
PPV structures fabricated via a Wessling-type precursor process using SNOL to convert poly(p-xylene tetrahydrothiophenium chloride) (PXT) in-situ into conjugated PPV. Unexposed PXT removed using methanol
40
UV activation r-BTOx
300
Sample 1 Sample 2 Sample 3 Sample 4 Sample 5
Baked Height (nm)
30
Sample 1 Sample 2 Sample 3 Sample 4 Sample 5
Baked FWHM (nm)
(Right, top) An array of pillars defined in r-BTOx from a 200nm film using a 60nm probe aperture (Right, bottom) cross section through the pillars, typical feature size of around 500nm. ~500nm
Quartz tuning fork
(Left) AFM scan of a features drawn in PPV on a variety of length scales, from a ~15nm thick precursor film using a 50nm near-field probe.
A
• Optical near-field generated around the aperture
10µm
B
200nm
Probe tip
• Contact is maintained using shear-force feedback
Sample
nm
10
(Below) Cross-sections of the finest features.
1
UCL Department of Physics and Astronomy and London Centre for Nanotechnology, 17-19 Gordon Street, London WC1H 0AH, UK. 2 Instituto de Telecomunicações, Instituto Superior Técnico, Av. Rovisco Pais 1, P-1049-001 Lisboa, Portugal. 3 Department of Physics, King’s College London, The Strand, London WC2R 2LS, UK.
200 1 50
200
20
X
100
10
X
nm
1 00 50 0 -50 0 1 2 3 4 5
5µm
0
µm 6
7 8 9 1 0 1 1
0
0
100
200 Unbaked FWHM (nm)
300
400
0
10
20
30
40
50
Unbaked Height (nm)
F8Ox
• Oxetane side chains (analogue to BTOx). • Blue-emitting. • Photoluminescence preserved during lithography. • Under-exposure results in positioned features (area C). poorly
55nm
A copolymer based around the common green-emitting polymer F8BT. • Cross-linking through oxetane sidechains activated via a photoacid initiator. • Cross-linked reticulated network (rBTOx) forms. • Development in THF removes the unexposed polymer.
Linear fits to data give :
Wb Wub 46nm H b 0.7 H ub 3nm
W = width (FWHM) H = height b = baked ub = unbaked
→ 30% vertical shrinkage → Outer layers collapse a fixed 20-25 nm around the edge (not dependent on lateral dimension)
Scanning near-field optical lithography (SNOL) has been shown to provide a versatile method for patterning materials over lengths well below the classical diffraction limit. We apply this technique thin films of organic semiconductors. These optically and electronically active materials are chemically tuneable, flexible, and can often be processed directly from solution. For applications in photonic devices and nano-electronics, achieving lithographic resolution on the nano-scale is vital. Using a home-built SNOL system, we demonstrate how thin films of the widely studied polymer poly(para-phenylene-vinylene) (PPV), and the cross-linkable oxetane derivatives F8Ox and BTOx can be patterned to any predetermined design.