iCE™ 3500 AAS Atomic Absorption Spectrometer
iCE™ 3500 AAS Atomic Absorption Spectrometer
Thermo Scientific™

iCE™ 3500 AAS Atomic Absorption Spectrometer

Thermo Scientific™의 이중 화염 및 화로 iCE™ 3500 AAS는 AA 업계의 최고가 되기 위해 탁월한 성분 분석을 제공합니다.
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카탈로그 번호유형
942350023500Dual Atomiser AA Spectrometer
카탈로그 번호 942350023500
제품 가격(KRW)
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유형:
Dual Atomiser AA Spectrometer

탁월한 성능과 유연성, 기능성을 제공하는 이중 화염 및 화로 AAS가 있습니다. 전체 AA 업계에서 최고의 기능을 자랑하는 이 화염 및 화로 결합 시스템은 가격에 적합한 최대의 가치를 제공합니다. 일상적으로 매우 낮은 검출 한계 및 높은 처리량 기능이 필요한 실험실에는 Thermo Scientific™ iCE™ 3500 AAS가 해답입니다.

유명한 Thermo Scientific™ SOLAAR™ 소프트웨어는 자동화된 화염/화로 전환 및 분석 최적화를 포함해 최대한 사용이 용이하도록 설계되었습니다.

생산성 극대화
이 화염 및 화로 결합 AAS 시스템은 까다로운 검출 한계에 부딪혀 높은 처리량 시료 기능이 필요한 실험실에 완전한 솔루션을 제공합니다.

  • 운전자 없이도 소프트웨어 제어 방식으로 화염/화로 분석 전환
  • 완전하게 구성할 수 있는 자동시료주입기를 이용하여 자동화된 무인 분석 실행
  • 마법사, 최적화 정기검사, 자동 성능 제어 기능을 지원하는 SOLAAR 소프트웨어
  • 광처리량의 최대화를 위한 6개의 램프 자동 정렬 캐로셀

비용 효율 개선
비용 효율성을 위해 설계된 하드웨어 및 부속품을 통해 효율성이 크게 개선됩니다.

  • 수 천번 분석에 사용할 수 있는 Innovative Extended Lifetime Cuvette(ELC)을 통해 소모품 비용 절감
  • 소모품 소비를 최소화하기 위해 마이크로리터 단위의 시료만으로 분석 실시
  • 지능적 소프트웨어 제어 기능이 있는 기체 흐름으로 사용량을 최소로 유지
  • GFTV 실시간 보기를 통해 정밀 분석 반복 가능

고급 기능과 유연성
Thermo Scientific 기기에서 기대하는 모든 혁신, 성능, 용이한 사용이 iCE3500 AAS의 표준이 되었습니다.

  • 고유한 이중 분무기는 2차 시료 구획을 제공하도록 설계되어, 화로의 영구적 정렬 및 즉각적 사용 가능
  • 표준으로 화염 및 화로 분석용 D2 백그라운드 보정
  • 별도의 Thermo Scientific™ GFS35Z™ 용광로 업그레이드를 통해 화로 작업에 이용할 수 있는 제만 백그라운드 보정
  • 에첼 프리즘 및 그레이팅으로 구성된 이중 단색화 장치 및 이중 빔 광학
사양
백그라운드 수정Guaranteed Quadline Deuterium or AC Zeeman Systems
화염 애터마이저Universal System (Uses 50 mm Finned Ti Burner)
퍼니스 애터마이저 옵션GFS35 or GFS35(Z) Combined Module
퍼니스 시각 시스템As Standard
가스 관리Automatic Binary Control
램프 캐러셀6 Lamp-Coded, Auto-Aligning
모노크로메이터Eschelle Type
옵틱스Double Beam
광전자 증배관Wide Range (180 to 900 nm)
유형Dual Atomiser AA Spectrometer
Unit SizeEach

자주 묻는 질문(FAQ)

What is a segmented flow sample introduction system and how can it help me?

Segmented flow sample introduction systems are a very helpful tool to increase the productivity in your laboratory. Such devices work with a valve system that enables fast uptake of the sample to the plasma, and minimize the wash out times between different samples. Therefore, the time required for analysis can be shortened considerably. An example for such a system is the sprint valve system available on the Thermo Scientific iCAP 7600 ICP-OES (https://www.thermofisher.com/order/catalog/product/842320076121).

Can slurry nebulization be used with pharmaceutical products?

Slurry nebulization is more commonly used in environmental testing applications. In principle, slurry nebulization can be used for pharmaceutical testing and there have been studies done on this. Obviously particle size is a key factor here - the smaller the particles the better. However, it is also worth pointing out that the method preferred by USP is microwave digestion.

When analyzing elemental impurities in phramaceutical samples, how is the method detection limit calculated and how is it related to the parameter instrumental detection limit and blank equivalent concentration?

The parameters BEC, LOD, and LOQ are frequently used to describe the detection capabilities of an analytical instrument. The acronym BEC abbreviates the parameter blank equivalent concentration. This value refers to the “apparent concentration”, and is composed of the contamination level in the blank, any residual interference signal, and the instrument background (from the detection system). The parameter instrumental detection limit (IDL, often referred to as Limit of Detection, LOD) is defined as the limit of detection that can be achieved by the instrument used. This amount is typically defined as a quantity that gives a distinguishable signal in the detection system. The common definition for the IDL is based upon the standard deviation (LOD = 3.3 x standard deviation of the regression line of calibration curve) of a blank sample measured in the beginning of a calibration curve, or a minimum signal to noise ratio of 3:1. Both parameters, BEC and IDL are automatically calculated by Thermo Scientific Qtegra Intelligent Scientific Data Solution (ISDS) platform software (https://www.thermofisher.com/order/catalog/product/IQLAAEGABSFAOVMBCZ). In contrast, on the IDL, the parameter method detection limit (MDL) includes the extent of all dilution steps carried out during the sample preparation. The MDL is typically based upon a blank solution that has been prepared according to the preparation procedure that is being used to prepare all the samples. In situations where there is no sample preparation or if the preparation involves a single dilution step, MDLs might be calculated based on the standard deviation of a low level standard. MDL concentrations are always more conservative than IDL concentrations.

How does the format of my sample impact dilution when analyzing elemental impurities in pharmaceutical drug products?

If samples are in solid form, the dilution incurred will be dictated by the digestion procedure being used to prepare the sample for analysis. If samples are being analyzed in their native form or after simple dilution, there may be more flexibility in the dilution factor used during preparation. Regardless of the sample's original form, the sample matrix must contain a tolerable level of dissolved solids prior to introducing it into the instrument. If an ICP-MS is being used for analysis, the sample matrix should contain 0.2% TDS or, if no special configuration for the sample introduction system is used (e.g., utilizing AGD).

What is the best choice for an internal standard to be used with pharmaceutical samples?

Internal standards are used in many applications to correct for potential drifts in instrumental sensitivity over time or changes in the sample matrix. The selection of a suitable internal standard should include the following aspects: - The internal standard should have a first ionization potential similar to the analyte, and should have a similar mass as the analyte.
- The internal standard must not be part of the sample.
- It should not generate or be affected by spectral interferences.
- It should be at a low and uniform (preferably zero) concentration in all samples.

Although ICP-MS is a technique considered by some to be relatively robust with respect to matrix effects, in reality, matrix effects do commonly exist and the use of internal standards is standard practice. Internal standards also help account for changes in the transport efficiency of the sample through aerosol.