Sapphire
The Pioneer: Dual Path MC-ICP-MS with Collision/Reaction Cell - Exploring new pathways for isotope ratio analysis.

Product Details
Accessing new isotopic tracers and applications for K, Ca, or Se isotope systematics or routine measurement of Sr, Nd or Hf isotope ratios - Sapphire advances novel analytical approaches while retaining classical MC-ICP-MS performance for established isotope systems with a pioneering concept.
Sapphire integrates the proven design of a conventional MC-ICP-MS with collision/reaction cell technology in a most flexible manner thanks to its unique Dual Path technology. The Dual Path enables users to switch between classical MC ICP MS operation and collision/reaction cell mode without compromise. The result is a truly flexible platform that combines trusted performance with novel analytical capability, supporting both routine workflows and innovative applications across disciplines.
Elimination of plasma- and matrix-based interferences allows for low-resolution analysis of systems such as K, Ca, or Fe, thereby reducing sample size requirements while extracting more information from every measurement - helping laboratories get the most out of their samples.
Following Nu’s static multi-collection principle in combination with zoom optics for fast and reproducible peak alignment and switching between isotope system setups, Sapphire creates additional opportunities while remaining a flexible all-rounder in many laboratories.
Dedicated and customisable ion counting solutions for applications such as U-Pb dating via laser ablation, U-Th series applications, or actinide analysis with ultralow abundance sensitivity requirements further allow users to tailor Sapphire for special requirements.

Environment & Climate
Tracing Microplastics using Conventional Cu and Sr Isotope Analysis
The increasing pollution of the environment and its uptake by living organisms is a major issue in today’s society. Isotopic signatures of contaminants are excellent tools for source fingerprinting and tracing the distribution pathways in the environment, such as Cu and Sr isotope systematics of in plastic polymers measured by a Sapphire Dual Path MC-ICP-MS.

Earth & Planetary Sciences
Small Sample K and Fe Isotope Analysis in Lunar Rocks using CRC Technology
Precious extraterrestrial samples like meteorites or lunar rocks provide key information into the formation of planets and solar systems, but are limited in their availability for destructive isotope chemical analysis. Sample-efficient and reliable analytical approaches involving collision/reaction cell technology are therefore the method-of-choice, such as using a Sapphire for determining K and Fe isotope ratio compositions in lunar rocks from the Chang’e-6 return mission.

Biomedical Research
Expedited Sample Preparation for Cu Isotope Analysis in Brain Tissue using CRC Technology
Isotope ratios as tracers of metabolic processes are an emerging and promising tool in finding treatments and cures for diseases. Sapphire enables highly precise isotope ratio determinations of, e.g., Cu isotope ratio changes in brain tissue to study Alzheimer's disease. Its collision/reaction cell technology thereby helps to reduce sample size requirements and simplifies sample preparation.
Benefits
Applications
Nuclear
Providing reliable analysis for quality control of nuclear fuel and cutting-edge technology for tracing radioactive materials.
Geochemistry
Advancing the understanding of geological processes and the solar system through continuos analytical improvements.
Environmental Research
Understanding Earth's ecosystem through monitoring and reconstructing environmental isotope tracers.
