ORP-146CXSNMR 微量氧化还原核磁管ArrowdoxTM 测量系统

ArrowdoxTM 氧化还原电位系统是这些应用的理想系统的如下：
 MEASURE OXIDATION-REDUCTION POTENTIAL IN 1/10 OF A DROP. This electrode
enables you to measure samples as small as 5 micro liters (1/10 of a drop)
 1 / 10 一液滴氧化还原电位测量：这个电极使你能够测量小到5 微升（1/10 滴）的样品。
 EXTREMELY SMALL SENSOR SIZE. Tip diameter of the ArrowDOXTM electrode is only
1mm.
 传感器尺寸非常小。该ArrowdoxTM 电极直径只有一毫米。
 LOW IMMERSION DEPTH. Immersion depth for the ArrowDOXTM micro combination redox
electrode is 0.5 mm.
 低浸入深度。为ArrowdoxTM 微型组合氧化还原电极浸入深度为0.5 毫米。
 GUARANTEED UNBREAKABLE. Electrode features solid state sensor and fluoropolymer
capillary tube making it virtually unbreakable. Electrode is guaranteed against breakage for the
life of the probe. Why settle for glass?
 保证牢不可破。电极的特点是固态传感器和含氟聚合物毛细管，使它几乎牢不可破。电极
是保证使用周期中探头不破碎。为什么设定为玻璃？
 MORE STABLE THAN GLASS ELECTRODES. The solid state design of the probe offers a
much lower output resistance than glass probes of the same size giving a much more stable redox
reading.
 比玻璃电极更稳定。探头的固态设计提供的输出电阻比相同尺寸的玻璃探针低得多，从而
使氧化还原读数更加稳定。
 MEASURE MIDPONT POTENTIAL OF CYTOCHROMES by simultaneously measuring the
oxidation-reduction potential while at the same time measuring the spectrophotometric absorption
during a reductive potentiometric titration of cytochrome
 测量潜在细胞色素通过同时测量氧化还原电位同时测量光度吸收还原电位滴定法测定细胞
色素；
 PLOT REDOX POTENTIAL CONTINUOUSLY ON YOUR PC. Monitor the change in
oxidation-reduction potential with time directly on your PC and see a real time curve as the
potential changes. Ideal for measuring the midpoint potential of cytochromes.
 在你的电脑上连续绘制氧化还原电位，直接在电脑上观察氧化还原电位随时间的变化，并
查看潜在电位变化的实时曲线。理想的测量细胞色素的中点电位。
 TABULATE OXIDATION-REDUCTION POTENTIAL VALUES ON YOUR PC. Dip the micro
redox electrode into a 96 well plate and record oxidation-reduction potential value on your PC
while at the same time keying in the sample ID. Go to next well and repeat procedure. Get
complete redox potential record of as many as thousands of individual samples.
 将氧化还原电位值列表在您的PC 上。记录氧化还原电位值，同时键入样品ID，接着到下
一个板孔，重复上述操作。获得尽可能多的单个样品的完全氧化还原电位记录。