便攜式原子力顯微鏡
——AFM納米形貌表征從未如此簡(jiǎn)單!
ICSPI公司在便攜式nGauge原子力顯微鏡(AFM)的基礎(chǔ)上進(jìn)行了全新升級(jí),推出了新一代的便攜式原子力顯微鏡Redux。Redux原子力顯微鏡(AFM)除了具有方便攜帶,操作簡(jiǎn)單,掃描速度快,可掃描大尺寸樣品,無(wú)需維護(hù)等優(yōu)點(diǎn),還可以迅速找到感興趣的測(cè)量位置,實(shí)現(xiàn)相關(guān)區(qū)域的快速高精度測(cè)量。適合各類納米表征應(yīng)用場(chǎng)景,從科學(xué)研究、高等教育到工業(yè)用戶的樣品3D表面形貌快速成像分析等,革命性的創(chuàng)新技術(shù)的降低了傳統(tǒng)AFM的復(fù)雜操作,也的拓寬了傳統(tǒng)AFM的應(yīng)用范圍!
![Snipaste_2024-07-19_12-41-18.png 便攜式芯片原子力顯微鏡](https://img59.chem17.com/55e7c227913c4578358977c9f8958bffc986960818ed9dec1c307516891b599efd185719e9f5eddf.png)
適合各類納米表征應(yīng)用場(chǎng)景
半導(dǎo)體工業(yè)
材料工業(yè)
納米技術(shù)
生命科技
涂料,聚合物和復(fù)合材料等
高等教育
......
產(chǎn)品特點(diǎn)
更小巧,更便攜
AFM微納機(jī)電芯片,使得Redux/nGauge原子力顯微鏡(AFM)系統(tǒng)僅有公文包大小,可隨身攜帶。
更簡(jiǎn)單,更易用
只需點(diǎn)擊鼠標(biāo)三次即可獲得樣品表面納米級(jí)形貌信息,無(wú)需配置減震平臺(tái)。
第一步:通過(guò)內(nèi)置光學(xué)顯微鏡尋找掃描區(qū)域;
第二步:Redux/nGauge幫助掃描探針自動(dòng)尋找樣品表面;
第三步:點(diǎn)擊掃描,獲取樣品表面形貌信息。
維護(hù)簡(jiǎn)單,性價(jià)比高
類金剛石針尖保證AFM探針超長(zhǎng)壽命,且無(wú)需繁瑣的更換針尖操作和其他后期維護(hù)工作。
![undefined 便攜式芯片原子力顯微鏡](https://img54.chem17.com/55e7c227913c4578ead0c09c62f9a362d2e5f0000c15d6c374a962cdd60d25de3029b347bc4dc477.jpg)
Redux采用的壓電AFM探針技術(shù)以及耐用的探針針尖(左圖)。中圖為一根探針第215次掃描樣品的結(jié)果,右圖為第1164次掃描樣品的結(jié)果
設(shè)備參數(shù):
Redux AFM
![便攜式芯片原子力顯微鏡](https://img54.chem17.com/55e7c227913c4578ead0c09c62f9a3622c2226ef8b341fbcd04fb0994ed68fabaf0273a0b30399b2.jpg)
左:Redux原子力顯微鏡(AFM);右:Redux原子力顯微鏡實(shí)際使用場(chǎng)景
Redux微型原子力顯微鏡n5(噪聲基底優(yōu)于0.5nm)
Redux微型原子力顯微鏡n7(噪聲基底優(yōu)于0.15nm)
產(chǎn)品特點(diǎn)
快速:1分鐘內(nèi)便可獲取樣品信息
易用:掃描只需點(diǎn)擊三次鼠標(biāo)
簡(jiǎn)單:全新升級(jí)的X, Y和Z定位系統(tǒng)
技術(shù)參數(shù)
AFM技術(shù)參數(shù) |
最大掃描范圍(XY) | 20 μm x 20 μm |
最大掃描高度(Z) | 10 μm |
掃描速度 | 80 秒 (256 x 256 pixel, 20 μm x 20 μm) |
噪音基底 | <0.5nm 或 <0.15 nm |
XY掃描分辨率 | <0.5 nm |
樣品臺(tái)參數(shù) |
樣品臺(tái)尺寸 | 105 mm x 95 mm x 20 mm |
可移動(dòng)范圍 | 10 mm x 10 mm |
光學(xué)顯微鏡參數(shù) |
物鏡 | 10x, 0.25 NA |
視場(chǎng) | 2.25 mm × 1.25 mm |
分辨率 | 1920 x 1080 FHD Video output |
整體尺寸 |
尺寸 (長(zhǎng)x 寬 x 高) | 23.2 cm × 22.0 cm × 24.6 cm |
重量 | 4 kg |
軟件需求 |
連接方式 | USB |
操作系統(tǒng) | Windows 10, 11 |
電源 |
電壓 | 100-240 VAC ~ 50/60 Hz |
電流 | 12 VDC, 5 A |
nGauge AFM
![便攜式芯片原子力顯微鏡](https://img54.chem17.com/55e7c227913c4578ead0c09c62f9a362fed94fbe6acc983bca9dcd86fa639d4e2953745809d9d1bb.jpg)
成像類型:形貌圖,相位圖
XY 掃描區(qū)域:100 µm × 100 µm
XY 掃描分辨率:<0.5 nm
Z向掃描范圍:10 µm
快速掃描成像時(shí)間:16 秒
可表征樣品大尺寸:100 mm x 50 mm x 20 mm
可表征樣品大重量:1 kg
各表征手段對(duì)比
| Redux/nGauge AFM | 傳統(tǒng) AFM | SEM |
大氣環(huán)境下運(yùn)行 | ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
|
自動(dòng)尋找樣品表面 | ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
| N/A |
設(shè)備安裝時(shí)間 | 5 分鐘 | 1-2 周 | 1-2 周 |
掃描樣品時(shí)間 | 2 分鐘 | 1 小時(shí) | 30 分鐘 – 1 小時(shí) |
隨測(cè)隨走 | ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
|
培訓(xùn)時(shí)間 | 1 小時(shí) | 12+ 小時(shí) | 12+ 小時(shí) |
無(wú)需激光對(duì)準(zhǔn) | ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
|
普通市電/USB供電 | ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
|
更換探針難度 | ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
| N/A |
3D表面形貌成像 | ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
|
成像分辨率 | ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
|
不導(dǎo)電樣品表征 | ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![83b220ea006ee2d0ae516a673d11b3d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a3622da6a0a884fa536b424b2fdf282b2ac6f2ae273956e4e302.png)
| ![c3b2f1b648da9849d09eea58984c32d.png 便攜式芯片原子力顯微鏡](https://img47.chem17.com/55e7c227913c4578ead0c09c62f9a36243db231aac417472f0a9594c22d839f2e27d03fd4587ea5e.png)
|
測(cè)試數(shù)據(jù)
微柱陣列三維成像
![便攜式芯片原子力顯微鏡](https://qd-china.com/userfiles/1912111562074/qdfiles_one//qd/qdPro/2023/7/2023_7_5_1315885200.png)
二氧化硅聚合物復(fù)合材料相掃描結(jié)果
![便攜式芯片原子力顯微鏡](https://qd-china.com/userfiles/1912111562074/qdfiles_one//qd/qdPro/2023/7/2023_7_5_1571634729.png)
半間距為200nm的光柵形貌表征
![便攜式芯片原子力顯微鏡](https://qd-china.com/userfiles/1912111562074/qdfiles_one//qd/qdPro/2023/7/2023_7_5_2082658479.jpg)
數(shù)據(jù)存儲(chǔ)單元納米結(jié)構(gòu)三維形貌表征
![便攜式芯片原子力顯微鏡](https://qd-china.com/userfiles/1912111562074/qdfiles_one//qd/qdPro/2023/7/2023_7_5_336241560.jpg)
丹麥Akasel公司檢測(cè)鋼鐵拋光樣品表面
![便攜式芯片原子力顯微鏡](https://img60.chem17.com/55e7c227913c4578ead0c09c62f9a362ea0291b8d29ada5f7e976e7f26ad720e2c446c0e0b53c0d8.png)
美國(guó)Biotech公司表征皮膚樣本
![便攜式芯片原子力顯微鏡](https://img56.chem17.com/55e7c227913c4578ead0c09c62f9a3627a3a5846a510efed21dbb197fd3f142800d1ea050588079e.png)
美國(guó)Applied Nanotool公司微納光學(xué)器件品控
![便攜式芯片原子力顯微鏡](https://img59.chem17.com/55e7c227913c4578ead0c09c62f9a3626f1471fb904b5e9e78947d38f32633f167c6d6656f6a5f47.png)
光電子域器件檢測(cè)
![便攜式芯片原子力顯微鏡](https://img53.chem17.com/55e7c227913c4578ead0c09c62f9a362a5339dc30bd298ed04e3a6b257267829e9a3fce392c7f8db.png)
發(fā)表文章
1. Zhao, P., et al., Multiple antibiotics distribution in drinking water and their co-adsorption behaviors by different size fractions of natural particles. Science of The Total Environment, 2021. 775: p. 145846.
2. Guo, P., et al., Vanadium dioxide phase change thin films produced by thermal oxidation of metallic vanadium. Thin Solid Films, 2020. 707: p. 138117.
3. Connolly, L.G., et al., A tip-based metrology framework for real-time process feedback of roll-to-roll fabricated nanopatterned structures. Precision Engineering, 2019. 57: p. 137-148.
4. O'Neill, C., et al., Effect of tooth brushing on gloss retention and surface roughness of five bulk‐fill resin composites. Journal of Esthetic and Restorative Dentistry, 2018. 30(1): p. 59-69.
用戶單位
nGauge全球代表性用戶
![便攜式芯片原子力顯微鏡](https://img45.chem17.com/55e7c227913c4578ead0c09c62f9a3624a3a117cee98754ffec8bf4bdcc5edbb9313f6157f688732.png)
![便攜式芯片原子力顯微鏡](https://img49.chem17.com/55e7c227913c4578ead0c09c62f9a3623c45996ff63ea4527a60867692c8c4cee944b2f17cb907c1.png)
![便攜式芯片原子力顯微鏡](https://img54.chem17.com/55e7c227913c4578ead0c09c62f9a3625407ee57536aba6c926ce09fbd50113f4b9beb3430687f67.png)