When pipetting foaming liquids (e.g. cell culture media) I‘m transferring foam which got trapped between the epT.I.PS. 384. How can I improve?

When pipetting foaming liquids it may happen that foam adhere between the tips. Make sure to pipette slowly avoiding foam formation. Importantly, do not immerse the tip too deeply into the liquid preventing foam getting caught between the tips.

How can I decontaminate the Move It lower part?

With Xplorer plus, the lower parts are autoclavable. With Research plus the complete pipette is autoclavable.

The Move It lower parts show indications for plates. I have a plate which does not fit into these formats. Can I nevertheless use the Move It pipettes?

First, please check with the option table, if you have the suitable Move It pipette availabe. Maybe you simply need a different model for your applications. In case you have an atypical vessel format you can of course also use Move It if not exceeding the distance range. Use a ruler to check which Move It model is suitable for your atypic vessel type. Within this range all distances can be set. Therefore please proceed as follows: 1) Attach tips 2) Set the two format limiters to maximum width range 3) Use the rotating knob to adjust the space between the tips until fitting to the atypic vessel 4) Set one of the format limiter to this position 5) Set the rotating knob to the second vessel type 6) Set the format limiter to this tip distance You can now work between these set limits by simply using the rotating knob.

Which vessel formats are compatible with the Move It pipette?

Depending on Move It model, it can be used with labware with a vessel distance from 4.5 - 33 mm. Some examples: Plates (384- / 96-/ 48-/ 24-/ 12-well formats), 0.2 / 0.5 / 1.5 / 2.0 / 5 mL tubes, different vials, etc. Check the Selection Guide in our Move-It brochure to find the most suitable model for your specific workflow and vessel distance. The cone distance adjustment is stepless to ensure maximum flexibility also for non-standard vessel formats.

What is reverse pipetting using an air-cushion pipette? Is there literature available?

Unlike forward pipetting, reverse pipetting involves pressing the pipette button to the second pressure point, allowing a greater volume to be aspirated into the tip. When dispensing liquid, there’s no pipette blow-out; instead, the residual liquid remains in the tip. This technique offers enhanced accuracy and precision for pipetting liquids with high viscosity or those prone to foam or produce bubbles. Eppendorf offers a variety of literature explaining the technique and proving application examples, such as the Userguide 020, several webinars, and YouTube videos.

What is pre-wetting using an air-cushion pipette, and is it volume-independent?

Regardless of the volume, the air cushion should be wetted by multiple filling and emptying of the tip before dispensing.

What are effective techniques for pipetting viscous liquids?

When pipetting viscous liquids, we recommend positive displacement instruments such as the Multipette (M4, E3, E3x). Those instruments offer the best dosing accuracy for viscous liquids due to the piston integrated into the tip. When handling viscous liquids with an air-cushion pipette (Research plus, Reference 2), be sure to pipette slowly and use reverse pipetting (see Userguide 020 or our extensive eBook on www.eppendorf.com/Pipetting-eBook for guidance). Additionally, adjust your pipette settings to account for differences in density by using the temporary adjustment. However, results will not match those achieved with a positive displacement device.

Are your pipettes free of nucleic acids?

We cannot guarantee that our pipettes are completely free of nucleic acids. While we maintain high standards of cleanliness and care during production, we do not implement specific measures to prevent nucleic acid contamination. To protect your samples from potential contamination, we recommend using positive displacement devices or filter tips, such as ep Dualfilter T.I.P.S. or ep Dualfilter T.I.P.S. SealMax.

When should I grease my Eppendorf pipettes?

The piston or cylinder in the lower part of the pipette should be relubricated after cleaning, decontamination, or exposure to grease-dissolving solutions such as organic solvents. Re-greasing your pipette after autoclaving is not necessary.

How should warm or cold liquids be pipetted?

Best Practices for Pipetting Warm or Cold Liquids: Warm and cold liquids can behave differently than those at room temperature, requiring adjustments in pipetting techniques. Temperature differences between the liquid and the pipette can affect the air cushion, resulting in inaccuracies and imprecision that may exceed permissible error limits. To achieve optimal results, ensure that the pipette, tips, liquid, and surrounding air are all at the same temperature. For enhanced accuracy and precision, consider using a positive displacement device like the Multipette M4 or E3/E3x.

Can the heat of my hand affect my pipetting result?

Modern pipettes address this issue by ensuring sufficient spatial separation between the piston and the handle. Additionally, the materials used in our pipettes support thermal shielding/isolation to prevent heat transfer from your hand (see Userguide 021).

Do Eppendorf pipettes always have to be kept in a stand or can they also be put down on the laboratory bench?

The pipette can be placed on the laboratory bench, but never with liquid inside the tip. In general, it is best to keep pipettes on the pipette carousel. When storing pipettes in a drawer, ensure the pipette does not come into contact with the drawer walls or other equipment, as this may damage the pipette when the drawer is opened or closed.

How can I adjust my air-cushion pipette for challenging liquids, long tips, or higher/lower altitudes?

Upon manufacturing, pipettes are calibrated to distilled water. Eppendorf mechanical pipettes allow temporary user adjustments, beneficial for liquids with different physical properties than water (density, viscosity, surface tension, vapor pressure), or when capillary actions occur (e.g., with DMSO). Adjustments are also beneficial when atmospheric pressure changes due to altitude or when using non-standard pipette tips (e.g., epT.I.P.S. long). The adjusted pipette delivers the correct volume only for the liquid used during adjustment. Please be aware that variable mechanical pipettes turn into "fixed-volume pipettes" when being adjusted. That means they can only be adjusted to a specific liquid to one volume and not across the entire dispensing range. Research plus and Reference 2 pipettes feature an adjustment window where the change can be monitored. It can be set back to factory settings "0". For detailed procedures and examples, refer to the operating instructions and Application Note No. 198. In contrast to mechanical pipettes, the electronic Xplorer/Xplorer plus pipettes can be adjusted for the entire range of volume. Additionally, the electronic pipettes offer several options for adjusting the pipette in the "Options" menu, e.g. to 75 % ethanol, altitude, elongated tips. Furthermore, individual adjustments are possible, as 1-point, 2-point or 3-point settings. For more information see User Guide 036. Temporary user adjustments can be reset to manufacturer settings without recalibration.

How do I determine the volume values when calibrating gravimetrically?

The most common method involves measuring the mass of distilled water (whose physical properties are known) using a balance, and then converting the mass to a volumetric value. This means that the measurement values from the analytical balance are multiplied by the correction factor Z (see SOP pipettes). This adjustment accounts for the density of water at the specific temperature and the relevant air conditions.

What does EN ISO 8655 cover?

ISO 8655-2022 is the global standard for piston-operated volumetric apparatus (POVA), including pipettes, burettes, dilutors, dispensers, and manual precision syringes, as defined by the International Organization for Standardization (ISO). It ensures standardized performance for manufacturers, calibration providers, and users.It is structured in 10 chapters: ISO 8655-1: Terminology, general requirements and user recommendations ISO 8655-2: Pipettes ISO 8655-3: Burettes ISO 8655-4: Dilutors ISO 8655-5: Dispensers ISO 8655-6: Gravimetric reference measurement procedure ISO 8655-7: Alternative measurement procedures ISO 8655-8: Photometric reference measurement procedure ISO 8655-9: Syringes ISO 8655-10: User guidance, user qualification and POVA qualification.

What do the terms random error and systematic error mean in a pipette calibration?

In pipette calibration, random error and systematic error are two key concepts that help ensure accuracy and precision in measurements. Random Error refers to the variability in measurements when the same volume is dispensed multiple times. It is also known as imprecision and is determined by calculating the repeat standard deviation of 10 measurements. These errors tend to scatter around the true value and can be minimized by consistent technique and proper training. Systematic Error is the consistent deviation of the measured volume from the selected/true volume, also known as inaccuracy and is determined by establishing the mean value of 10 measurements. Systematic errors can arise from defective or misadjusted devices and need to be corrected through proper calibration and maintenance.

At which volumes should a variable pipette be calibrated?

According to the EN ISO 8655-2022 standard, three series of 10 measurements are used to calibrate a variable-volume pipette. The three test volumes are: 1. Nominal volume (the largest volume adjustable by the user, as determined by the manufacturer) 2. 50% of the nominal volume 3. 10% of the nominal volume, or the lower limit if the minimum is over 10%

What is the nominal volume of a variable pipette?

The nominal volume of a variable pipette is always its maximum volume. For a 100 - 1,000 µL pipette, this means 1,000 µL.

I very frequently work with different chemicals. Can I still perform pipette calibration using water?

As per EN ISO 8655-2022, pipette calibration, which involves checking liquid dispensed by the pipette on a balance, should always be performed using distilled or deionized water. If you are working with chemicals that have different properties than water, consider using the temporary adjustment to minimize errors as outlined in Application Note 198. In general, we recommend using direct displacement devices such as the Multipette M4/E3(x) for challenging liquids.

How are multi-channel pipettes tested?

According to ISO 8655-2022, every channel of a multi-channel pipette must be tested. While all channels need to be filled, only the channel being tested is measured. Due to the high number of measurements required (e.g., 240 measurements for an 8-channel pipette and 360 measurements for a 12-channel pipette), it is advisable to send the multi-channel pipette to a professional calibration lab. These labs are equipped with specialized balance setups that ensure all channels are filled while only one channel is measured at a time.

Is the pipette grease free of resins?

Yes, the pipette grease supplied by Eppendorf is free of resins.

What material is my pipette made of and what chemicals is it resistant to?

Please refer to the Operating Manual on our homepage for information on material or chemical resistance before use. The Research plus and Reference 2 have separate chemical resistance sheets. Please note that aggressive chemicals used over a longer period of time may shorten the lifetime of the pipette.

What is the difference between factory setting and user adjustment?

Eppendorf pipettes offer factory adjustment and temporary adjustment. The temporary adjustment is an easy way of adjusting the pipette temporarily to different conditions (e.g. pipetting a liquid with high density). The factory adjustment should be changed if the pipette was found to be out of specifications during calibration. Before adjusting, exclude other causes such as pipette handling, environmental errors, or worn-out parts.

How often should pipettes be calibrated?

The user determines the frequency of calibration. However, according to EN ISO 8655-2022 Part 1, calibration must be performed regularly and at a minimum, once per year. Routine tests should be performed more frequently, ideally at intervals shorter than those for calibration. The frequency of both calibration and routine tests should be established through a risk assessment. This assessment needs to consider factors such as the frequency of pipette use, the number of users, the aggressiveness of the liquids being dispensed, and the acceptable error limits set by the user. Additionally, any industry- or organization-specific frequency requirements must be adhered to.

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Move It^® 可调间距移液器 - 可调节移液器

Move It® adjustable multi-channel pipettes from Eppendorf, with electronic and mechanical micropipettes shown

Move It® adjustable tip spacing multi-channel pipettes are the ideal dispensing tool when switching vessel formats

Mechanical Eppendorf Research® plus Move It® adjustable tip spacing pipette with 8 channels

Eppendorf Xplorer® plus Move It® electronic pipette with 6 adjustable channels

Move It® Adjustable Tip Spacing Pipettes: Transparent Lower Part in Action (GIF, Frontal View)

Move It® Adjustable Tip Spacing Pipettes: Transparent Lower Part in Action (GIF, Side View)

Female Scientist using Eppendorf Research® plus Move It® Pipette for Easy Liquid Transfer Between Vessel Formats

Scientist using a Move It® adjustable tip spacing pipette to transfer liquid from a series of tubes to a plate

Scientist using a Move It® adjustable tip spacing pipette to dispense liquid into a 384-well plate

产品信息

您是否经常需要在离心管、孔板等不同容器之间转移液体并希望寻求更高效、更安全的移液解决方案？Eppendorf Move It 是一款多道移液器，吸头锥之间间距可调，可加快并简化一系列样品的同步移液操作。无需管道连接的独特设计，提高了精确度和耐用性，同时可以确保用户和样品安全。

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产品信息

技术数据

用途

特征

可调吸头间距移液器采用高端标准设计

Eppendorf 重新定义了可调节多道移液器，令移液效率提升一倍。Move It 旨在提供一种安全高效的解决方案，满足客户在不同容器类型之间（例如离心管和工作板之间）同步移取多份样品的需求。Move It有何独特之处？此款多道可调移液器能够适配不同容器规格，且吸头锥与活塞-管体系统之间没有任何管路连接。极大提升了移液表现：可移动、易碎的部件更少，提高了精确度和耐用性。Move It 可高压灭菌，有助提升用户和样品安全性。

观看产品视频，了解Move It可调吸头间距移液器在实际生活中的应用。

支持多种类型容器

如果需要频繁更换容器类型，则Move It 可调间距多道移液器能够显著简化并加快移液流程。让我们可以在不同容器类型之间（例如离心管和工作板之间）同步移取多份样品。与单道移液器相比，操作时间明显缩短。对于微孔板、离心管和琼脂凝胶，可以根据容器型号自由选择 4.5 到 33 mm 之间的吸头间距。

384孔板加样时间缩短70%

手动操作384孔板*的最高效方法之一是使用Eppendorf Xplorer plus 24道移液器进行液体培养基分装，再搭配使用Xplorer plus Move It移液器进行同步样品转移。请向销售代表索要演示样机，亲自体验其出众品质！

*该测试结果使用12道手动移液器进行液体培养基分装，并搭配使用单道移液器进行单份样品转移。

吸头间距调节轻松快捷

Eppendorf Move It 可调吸头间距移液器配备容器规格限位器，通过前后移动限位器，即可在设定规格之间来回切换，从而轻松调节和锁定源容器或目标容器规格。这意味着在设置下一个移液步骤时无需耗费精力，从而节省了宝贵的时间。Eppendorf可调吸头间距多道移液器的容器规格调节通过调节旋钮手动完成，相比电机驱动调节，这种方式更加快捷。用户在容器类型调整过程中可以始终保持放松的身体和手部姿势。

无管化可调间距系统有助提升可靠性和安全性

Eppendorf方案：Move It 可调间距移液器的吸头锥与活塞-管体系统之间没有任何管路连接。与传统设备相比，这种设计具有特殊优势：

• 可以避免管道引起潜在问题（如孔隙度和泄漏）。相反，Eppendorf可调式多道移液器包含的活动部件越少，精度和耐用性就越高
• 不采用任何管路，可以尽可能缩减气垫尺寸，从而进一步提升精度和准确度
• Move It 可高压灭菌（Research plus可整支、Xplorer plus 仅限下半部分），有助额外提升用户和样品安全性

可 360° 旋转移液器头

工作场所的人体工程学优化有助于进一步简化工作流程。由于Move It可调吸头锥间距多道移液器采用无内部管路设计，因此其头部可实现360°旋转。对于用户来说，读取显示屏更加舒适。这种设计符合人体工程学，支持放松的身体姿势。同时，它可确保快速识别所有参数，为您节省宝贵的时间。

达到理想平衡，缓解手部压力

需要休息一下？手部姿势自然放松，休息需求因此减少。Move It系列移液器能够在手中达到完美平衡，有助减轻手部和身体疲劳。这一效果得益于设计优化。而且用户还可轻松观察吸头和样品，实现全天候无压力操作。

epT.I.P.S.^® 384采用SoftAttach^®技术，适用于Move It 20 µL与100 µL量程移液器

创新型epT.I.P.S 384吸头，具备弹性成型凹槽，适配额定量程为20或100 µL的Eppendorf Move It 移液器。该设计有助吸头尽可能伸展，以更好贴合吸头锥形状。同时大幅降低吸头安装和弹出所需作用力。采用最新Eppendorf PhysioCare Concept技术有助实现吸头完全密封，同时最大限度减少操作用力。

产品优势：
• 吸头安装牢固、密封良好
• 吸头装配处平滑、均匀
• 与标准吸头相比，装配每个吸头所需的力减少40 %
• 吸头弹出力降低
• 同轴度高，吸头可完美对齐，确保孔板操作和移液安全
• 吸头采用超细设计

Move It可调吸头间距移液器选型指南

借助本选型指南，仅需一眼即可为每项应用挑选出合适的Eppendorf可调吸头间距多道移液器。首先根据应用需求选择源容器和目标容器规格，然后再选出通道数和量程适合您应用的型号。每款可调吸头间距移液器均有推出手动Eppendorf Research^® plus Move It 版和电动Eppendorf Xplorer^® plus Move It版。

Xplorer plus Move It移液器的其他优势
与手动移液器相比，电动移液器在许多应用中都有诸多优势。使用电动移液器的最大优势在于：设计更加符合人体工程学，操作过程几乎无需用力；具备多种操作模式（如移液和分液功能集于一身），移液精度和复现性更高，移液效率进一步提升。借助Eppendorf移液器软件更新工具，便可轻松完成电动移液器升级，随时掌握最新软件改进与新增功能！欢迎访问Eppendorf专题网站，了解有关电动移液的更多信息。

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规格	Eppendorf Xplorer^® plus Move It^®	Eppendorf Research^® plus Move It^®	Eppendorf Xplorer^® plus Move It^®	Eppendorf Research^® plus Move It^®	Eppendorf Xplorer^® plus Move It^®	Eppendorf Research^® plus Move It^®	Eppendorf Research^® plus Move It^®	Eppendorf Xplorer^® plus Move It^®	Eppendorf Xplorer^® plus Move It^®	Eppendorf Xplorer^® plus Move It^®	Eppendorf Xplorer^® plus Move It^®	Eppendorf Research^® plus Move It^®	Eppendorf Research^® plus Move It^®	Eppendorf Research^® plus Move It^®	Eppendorf Xplorer^® plus Move It^®	Eppendorf Xplorer^® plus Move It^®	Eppendorf Xplorer^® plus Move It^®	Eppendorf Research^® plus Move It^®	Eppendorf Research^® plus Move It^®	Eppendorf Research^® plus Move It^®

产品类型	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器	移液器
移液类型	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统	气体活塞系统
通道数量	8-通道	8-通道	12-通道	12-通道	8-通道	8-通道	12-通道	12-通道	4-通道	6-通道	8-通道	4-通道	6-通道	8-通道	4-通道	6-通道	8-通道	4-通道	6-通道	8-通道
体积范围	1 – 20 µL	1 – 20 µL	1 – 20 µL	1 – 20 µL	5 – 100 µL	5 – 100 µL	5 – 100 µL	5 – 100 µL	15 – 300 µL	15 – 300 µL	15 – 300 µL	30 – 300 µL	30 – 300 µL	30 – 300 µL	50 – 1,200 µL	50 – 1,200 µL	50 – 1,200 µL	120 – 1,200 µL	120 – 1,200 µL	120 – 1,200 µL
Color code	淡粉色	淡粉色	淡粉色	淡粉色	淡黄色	淡黄色	淡黄色	淡黄色	桔黄色	桔黄色	桔黄色	桔黄色	桔黄色	桔黄色	绿色	绿色	绿色	深绿色	深绿色	深绿色
体积增量	0.02 µL	0.02 µL	0.02 µL	0.02 µL	0.1 µL	0.1 µL	0.1 µL	0.1 µL	0.2 µL	0.2 µL	0.2 µL	0.2 µL	0.2 µL	0.2 µL	1.0 µL	1.0 µL	1.0 µL	1 µL	1 µL	1 µL
操作模式	电动	手动	电动	手动	电动	手动	手动	电动	电动	电动	电动	手动	手动	手动	电动	电动	电动	手动	手动	手动
显示语言	9 种不同的语言	−	9 种不同的语言	−	9 种不同的语言	−	−	9 种不同的语言	9 种不同的语言	9 种不同的语言	9 种不同的语言	−	−	−	9 种不同的语言	9 种不同的语言	9 种不同的语言	−	−	−
带弹簧的吸头锥	是	是	是	是	是	是	是	是	否	否	否	否	否	否	否	否	否	否	否	否
随机测量误差¹⁾	1 µL: ± 8%; ± 0.08 µL 2 µL: ± 5%; ± 0.1 µL 10 µL: ± 2%; ± 0.2 µL 20 µL: ± 1%; ± 0.2 µL	1 µL: ± 8%; ± 0.08 µL 2 µL: ± 5%; ± 0.1 µL 10 µL: ± 2%; ± 0.2 µL 20 µL: ± 1%; ± 0.2 µL	1 µL: ± 8%; ± 0.08 µL 2 µL: ± 5%; ± 0.1 µL 10 µL: ± 2%; ± 0.2 µL 20 µL: ± 1%; ± 0.2 µL	1 µL: ± 8%; ± 0.08 µL 2 µL: ± 5%; ± 0.1 µL 10 µL: ± 2%; ± 0.2 µL 20 µL: ± 1%; ± 0.2 µL	5 µL: ± 4%; ± 0.2 µL 10 µL: ± 2%; ± 0.2 µL 50 µL: ± 0.8%; ± 0.4 µL 100 µL: ± 0.6%; ± 0.6 µL	5 µL: ± 4%; ± 0.2 µL 10 µL: ± 2%; ± 0.2 µL 50 µL: ± 0.8%; ± 0.4 µL 100 µL: ± 0.6%; ± 0.6 µL	5 µL: ± 4%; ± 0.2 µL 10 µL: ± 2%; ± 0.2 µL 50 µL: ± 0.008%; ± 0.4 µL 100 µL: ± 0.6%; ± 0.6 µL	5 µL: ± 4%; ± 0.2 µL 10 µL: ± 2%; ± 0.2 µL 50 µL: ± 0.8%; ± 0.4 µL 100 µL: ± 0.6%; ± 0.6 µL	15 µL: ± 2%; ± 0.3 µL 30 µL: ± 1%; ± 0.3 µL 150 µL: ± 0.5%; ± 0.75 µL 300 µL: ± 0.25%; ± 0.75 µL	15 µL: ± 2%; ± 0.3 µL 30 µL: ± 1%; ± 0.3 µL 150 µL: ± 0.5%; ± 0.75 µL 300 µL: ± 0.25%; ± 0.75 µL	15 µL: ± 2%; ± 0.3 µL 30 µL: ± 1%; ± 0.3 µL 150 µL: ± 0.5%; ± 0.75 µL 300 µL: ± 0.25%; ± 0.75 µL	30 µL: ± 1.8%; ± 0.5 µL 150 µL: ± 0.6%; ± 0.9 µL 300 µL: ± 0.6%; ± 1.8 µL	30 µL: ± 1.8%; ± 0.5 µL 150 µL: ± 0.6%; ± 0.9 µL 300 µL: ± 0.6%; ± 1.8 µL	30 µL: ± 1.8%; ± 0.5 µL 150 µL: ± 0.6%; ± 0.9 µL 300 µL: ± 0.6%; ± 1.8 µL	50 µL: ± 1.2%; ± 0.6 µL 120 µL: ± 0.9%; ± 1.08 µL 600 µL: ± 0.4%; ± 0.24 µL 1200 µL: ± 0.3%; ± 3.6 µL	50 µL: ± 1.2%; ± 0.6 µL 120 µL: ± 0.9%; ± 1.08 µL 600 µL: ± 0.4%; ± 0.24 µL 1200 µL: ± 0.3%; ± 3.6 µL	50 µL: ± 1.2%; ± 0.6 µL 120 µL: ± 0.9%; ± 1.08 µL 600 µL: ± 0.4%; ± 0.24 µL 1200 µL: ± 0.3%; ± 3.6 µL	120 µL: ± 1.3%; ± 1.6 µL 600 µL: ± 0.4%; ± 2.4 µL 1200 µL: ± 0.3%; ± 3.6 µL	120 µL: ± 1.3%; ± 1.6 µL 600 µL: ± 0.4%; ± 2.4 µL 1200 µL: ± 0.3%; ± 3.6 µL	120 µL: ± 1.3%; ± 1.6 µL 600 µL: ± 0.4%; ± 2.4 µL 1200 µL: ± 0.3%; ± 3.6 µL
系统测量误差¹⁾	1 µL: ± 12%; ± 0.12 µL 2 µL: ± 8%; ± 0.16 µL 10 µL: ± 4%; ± 0.4 µL 20 µL: ± 2%; ± 0.4 µL	1 µL: ± 15%; ± 0.15 µL 2 µL: ± 10%; ± 0.2 µL 10 µL: ± 4%; ± 0.4 µL 20 µL: ± 2%; ± 0.4 µL	1 µL: ± 12%; ± 0.12 µL 2 µL: ± 8%; ± 0.16 µL 10 µL: ± 4%; ± 0.4 µL 20 µL: ± 2%; ± 0.4 µL	1 µL: ± 15%; ± 0.15 µL 2 µL: ± 10%; ± 0.2 µL 10 µL: ± 4%; ± 0.4 µL 20 µL: ± 2%; ± 0.4 µL	5 µL: ± 6%; ± 0.3 µL 10 µL: ± 3%; ± 0.3 µL 50 µL: ± 1.2%; ± 0.6 µL 100 µL: ± 1%; ± 1 µL	5 µL: ± 6%; ± 0.3 µL 10 µL: ± 3%; ± 0.3 µL 50 µL: ± 1.2%; ± 0.6 µL 100 µL: ± 1%; ± 1 µL	5 µL: ± 6%; ± 0.3 µL 10 µL: ± 3%; ± 0.3 µL 50 µL: ± 1.2%; ± 0.6 µL 100 µL: ± 1%; ± 1 µL	5 µL: ± 6%; ± 0.3 µL 10 µL: ± 3%; ± 0.3 µL 50 µL: ± 1.2%; ± 0.6 µL 100 µL: ± 1%; ± 1 µL	15 µL: ± 6%; ± 0.9 µL 30 µL: ± 3%; ± 0.9 µL 150 µL: ± 1%; ± 1.5 µL 300 µL: ± 0.6%; ± 1.8 µL	15 µL: ± 6%; ± 0.9 µL 30 µL: ± 3%; ± 0.9 µL 150 µL: ± 1%; ± 1.5 µL 300 µL: ± 0.6%; ± 1.8 µL	15 µL: ± 6%; ± 0.9 µL 30 µL: ± 3%; ± 0.9 µL 150 µL: ± 1%; ± 1.5 µL 300 µL: ± 0.6%; ± 1.8 µL	30 µL: ± 3.7%; ± 1.1 µL 150 µL: ± 1%; ± 1.5 µL 300 µL: ± 0.7%; ± 2.1 µL	30 µL: ± 3.7%; ± 1.1 µL 150 µL: ± 1%; ± 1.5 µL 300 µL: ± 0.7%; ± 2.1 µL	30 µL: ± 3.7%; ± 1.1 µL 150 µL: ± 1%; ± 1.5 µL 300 µL: ± 0.7%; ± 2.1 µL	50 µL: ± 8%; ± 4 µL 120 µL: ± 6%; ± 7.2 µL 600 µL: ± 2.7%; ± 16.2 µL 1200 µL: ± 1.2%; ± 14.4 µL	50 µL: ± 8%; ± 5 µL 120 µL: ± 6%; ± 7.2 µL 600 µL: ± 2.7%; ± 16.2 µL 1200 µL: ± 1.2%; ± 14.4 µL	50 µL: ± 8%; ± 6 µL 120 µL: ± 6%; ± 7.2 µL 600 µL: ± 2.7%; ± 16.2 µL 1200 µL: ± 1.2%; ± 14.4 µL	120 µL: ± 6%; ± 7.2 µL 600 µL: ± 2.7%; ± 16.2 µL 1200 µL: ± 1.2%; ± 14.4 µL	120 µL: ± 6%; ± 7.2 µL 600 µL: ± 2.7%; ± 16.2 µL 1200 µL: ± 1.2%; ± 14.4 µL	120 µL: ± 6%; ± 7.2 µL 600 µL: ± 2.7%; ± 16.2 µL 1200 µL: ± 1.2%; ± 14.4 µL
高温高压灭菌	是（下半部分）	是	是（下半部分）	是	是（下半部分）	是	是	是（下半部分）	是（下半部分）	是（下半部分）	是（下半部分）	是	是	是	是（下半部分）	是（下半部分）	是（下半部分）	是	是	是
电源	100 – 240 V ±10 %, 50 – 60 Hz	−	100 – 240 V ±10 %, 50 – 60 Hz	−	100 – 240 V ±10 %, 50 – 60 Hz	−	−	100 – 240 V ±10 %, 50 – 60 Hz	100 – 240 V ±10 %, 50 – 60 Hz	100 – 240 V ±10 %, 50 – 60 Hz	100 – 240 V ±10 %, 50 – 60 Hz	−	−	−	100 – 240 V ±10 %, 50 – 60 Hz	100 – 240 V ±10 %, 50 – 60 Hz	100 – 240 V ±10 %, 50 – 60 Hz	−	−	−
电池类型	可充电锂聚合物电池	−	可充电锂聚合物电池	−	可充电锂聚合物电池	−	−	可充电锂聚合物电池	可充电锂聚合物电池	可充电锂聚合物电池	可充电锂聚合物电池	−	−	−	可充电锂聚合物电池	可充电锂聚合物电池	可充电锂聚合物电池	−	−	−
Consumables	仅限 epT.I.P.S.^® 384	仅限 epT.I.P.S.^® 384	仅限 epT.I.P.S.^® 384	仅限 epT.I.P.S.^® 384	仅限 epT.I.P.S.^® 384	仅限 epT.I.P.S.^® 384	仅限 epT.I.P.S.^® 384	仅限 epT.I.P.S.^® 384	epT.I.P.S.^®	epT.I.P.S.^®	epT.I.P.S.^®	epT.I.P.S.^®	epT.I.P.S.^®	epT.I.P.S.^®	epT.I.P.S.^®	epT.I.P.S.^®	epT.I.P.S.^®	epT.I.P.S.^®	epT.I.P.S.^®	epT.I.P.S.^®
开放系统（第三方耗材）	是	是	是	是	是	是	是	是	是	是	是	是	是	是	是	是	是	是	是	是
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1)The listed values for 10%, 50%, and 100% of the nominal volume are based on tests complying with DIN EN ISO 8655, Parts 2 or 5. If listed, the smallest adjustable volume provides additional data.