戻る
「早戻しボタン」を押すと検索画面に戻ります。 [閉じる]

コーパス検索結果 (１語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 mparable to PCR but without requirement of a thermal cycler.
2 ively compared with that of the conventional thermal cycler.
3 lable kit and a novel method that utilises a thermal cycler.
4 n aluminum boat and then on the block of the thermal cycler.
5 med in an eight-capillary array in a hot-air thermal cycler.
6 during PCR amplification using an analytical thermal cycler.
7 g temperature (from 95 to 20 degrees C) in a thermal cycler.
8  at 37 degrees C, eliminating the need for a thermal cycler.
9 ntamination and lack of the requirement of a thermal cycler.
10  cycle times consistent with traditional PCR thermal cyclers.
11 lliptical pipette tip, a commercial portable thermal cycler, a smartphone, and a portable trans-illum
12 rovolume fluorimeter integrated with a rapid thermal cycler allows both amplification and point mutat
13  a microvolume fluorimeter integrated with a thermal cycler and a PCR-compatible double-stranded DNA
14                                          The thermal cycler and Chelex-100 extraction method yielded
15                                              Thermal cycler and Chelex-100 extraction of nucleic acid
16 in 83.7% sections for samples treated by the thermal cycler and Chelex-100 method.
17 tion of more robust formats, improvements in thermal cyclers and labelling and detection methods.
18 gle-tube, end point assay utilizing standard thermal cyclers and PCR reagents.
19 ion (PCR) enjoys great popularity, expensive thermal cyclers are required for precise temperature con
20 ion as efficient as that in the conventional thermal cycler at optimized MgCl2 concentration.
21                                      The Air Thermal Cycler (ATC) (Idaho Technology, Idaho Falls, Ida
22 on, on the other hand, obviates the use of a thermal cycler because reactions occur at a single tempe
23 n the use of a polymer-based continuous flow thermal cycler (CFTC) microchip for Sanger cycle sequenc
24               However, the requirement for a thermal cycler has somewhat limited applications of this
25                          Standard heat block thermal cycler (HBTC) and ATC performance characteristic
26 amplification methods alleviate the need for thermal cyclers; however, they still require continuous
27  each isolate, as generated on two different thermal cyclers, indicated that most of the seeming subs
28                               A nucleic acid thermal cycler is considered to be portable if it is und
29 ree emerging technologies: rapid cycling PCR thermal cyclers, peptide nucleic acid (PNA) probes, and
30                   The LightCycler is a rapid thermal cycler that fluorometrically monitors real-time
31  suited for field use as they do not require thermal cyclers to amplify the DNA.
32 han 3 min using a high powered Peltier-based thermal cycler under bubble-free conditions.
33 05) and were monitored with a LightCycler, a thermal cycler with an integrated fluorimeter.
34 ults similar to that of a conventional block thermal cycler with leveling effects observed for amplic
35 onverting a desktop computer into a de facto thermal cycler with software that controls the temperatu
36 icated and evaluated high-throughput kinetic thermal cyclers with 768-reaction capacity for kinetic p