GB/T 35418-2017 in English

VALID

Nanotechnologies―Determination of elemental impurities in samples of carbon nanotubes―Inductively coupled plasma mass spectrometry

Issued on:2017-12-29
Implemented on:2018-04-01
File Format:PDF
Delivery:Via email within 5 business days

Price(USD)： $310.00
$301.00

Standard No:	GB/T 35418-2017
Document status:	VALID
Title in English:	Nanotechnologies―Determination of elemental impurities in samples of carbon nanotubes―Inductively coupled plasma mass spectrometry
Title in Chinese:	纳米技术碳纳米管中杂质元素的测定电感耦合等离子体质谱法
Language:	English
File Format:	Electronic (PDF)
Delivery:	Via email within 5 business days
Issued on:	2017-12-29
Implemented on:	2018-04-01
ICS Classification:	71.040-Analytical chemistry
Chinese Classification:	A40-Basic Subject in general
Professional Classification:	GB-National Standard
Related Keywords:	plasma mass spectrometry plasma mass spectrometry introductionthis standard carbon nanotubes elemental impurities carbon
Related Topics:	Precursor ion peak in mass spectrum Mass spec impurity mass spectrometry field ionization Mass Spectrometry Ionization Species Plasma Mass Spectrometry Determination of Metal Elements in Solid Waste by Inductively Coupled Plasma Mass Spectrometry Bromine Mass Spectrometry plasma mass spectrometry Mass spec impurity Ferrous inductive coupling GB/T 35418-2017 GB/T+35418-2017 ion pairs in mass spectrometry Plasma Impurity Spectroscopy Determination of Metal Elements in Solid Waste by Inductively Coupled Plasma Mass Spectrometry Determination of impurity elements in nanotechnology carbon nanotubes by inductively coupled plasma mass spectrometry Mass spec impurity ions plasma mass spectrometry Precursor Ions in Mass Spectrometry Plasma and Mass Spectrometry Nano gold spectrum field ionization mass spectrometry Inductively Coupled Plasma Mass Spectrometry Manganese Carbon nanotube impurities Inductively Coupled Mass Spectrometry Lithium nanoplasma mass spectrometry impurity elements just now thermal ionization mass spectrometry Mass spec impurity peak Mass Spectrum Impurities Carbon nanotubes peak at 25 degrees super strong carbon nanotubes Nano gold carrier nanochromatography nano mass spectrometry mass carbon Coupling of deuterium to carbon exosome nano plasma coupled mass spectrometry Plasmonic nanosheets Ions in a mass spectrum Carbon nanotube series Elemental Impurities Inorganic Impurities plasma technology Major ions in mass spectrometry plasma technology The peak position of carbon nanotubes Detecting Transitions in Mass Spectrometry DC Plasma Mass Spectrometry Plasmonic carbon nanotubes Portable Plasma Mass Spectrometry Ions in mass detection carbon nanotube interior Ion peaks in a mass spectrum Elemental impurities Nanodata Determination method of sodium ion in water Mass Spec Nano ionization mass spectrometry plasma carbon Mass Spectrum Impurities plasma dual mass spectrometry Inductively Coupled Plasma Dual Mass Spectrometry Mass Spec Nano Dual nano-mass Carbon nanotubes to the peak carbon nanogold Inductively Coupled Plasma Mass Spectrometry Sample Preparation Precursor ion peaks in mass spectra Carbon Nanotube Processing Determination of Ion Peaks in Mass Spectrometry Carrier gold nanoparticles Ion source in mass spectrometry Nanosheet energy spectrum How to determine the parent ion in mass spectrometry Auto carbon nanotubes icpms inductively coupled plasma mass spectrometry Major Ions in Mass Spectrometry Nano carbon conducts electricity Mass spec impurity peak Impurity elements in aluminum carbon-carbon coupling Used ICP-MS Impurity profile Precursor Ions and Precursor Ions in Mass Spectrometry MS coupled peaks xrf impurity element nano center battery Mass Spectrometry Ionization Technology Mass Spectrometry Ionization Technology High-grade carbon nanotubes amphoteric carbon nanotubes Carbon nanotube temperature Carbon Nanotube Dimensioning Method Nano carbon agent Inductively Coupled Plasma Mass Spectrometry for Lead in Water Talc powder inductively coupled plasma mass spectrometry gold nanocoupling Impurity profile Determination of 24 Elements in Soil by Inductively Coupled Plasma Mass Spectrometry nanocluster mass spectrometry nano mass spectrometry Nano multi-element Inorganic and elemental impurities Respectral Parananotechnology nanotube spectrum nanotube spectroscopy Nanotube Spectroscopy Carbon Nanotube Photosensitive Resin Inductively Coupled Plasma Mass Spectrometry GBT35418 GB/T 35418-2017 Environmental protection of carbon nanotubes CuTiTantalum Inductively Coupled Plasma Mass Spectrometry Inorganic Inductively Coupled Plasma Mass Spectrometry Nano Center Tian Falin The development history of carbon nanotubes Inventor of mass spectrometry soft ionization ND100 Nano Homogenizer Inductively coupled plasma mass spectrometer won the bid Nano electrospinning Carbon nanotube Rbm peak Soft ionization method of mass spectrometry In the mass spectrum if the mass of the precursor ion m1 and the product ion m2 PE inductively coupled plasma mass spectrometer won the bid Ratio of PVP dispersed carbon nanotubes TME Determination of Nanoparticles in Aqueous Solutions EMA elemental impurities Carbon Nanotube Kavli Award Directed evolution of nanobodies Carbon industry impurities Carbon nanotube technology Nanocarbon detection Metal impurities in carbon nanotube powder Metal impurity content of carbon nanotubes Establishment of elemental impurity standards Detection methods for impurities in rice Elemental impurity standard curve method Carbon Nanotube Powder Moisture Test Method Carbon nanotube quota Determination method of nanoliposome encapsulation efficiency Phosphorus element standard mass spectrum Elemental impurities in food Carbon Nanotube Impurity Testing Physical opening method of carbon nanotubes

《GB/T 35418-2017纳米技术碳纳米管中杂质元素的测定电感耦合等离子体质谱法》由TC279（全国纳米技术标准化技术委员会）归口，主管部门为中国科学院。

Introduction

This standard provides a method for determining impurity elements in carbon nanotubes using inductively coupled plasma mass spectrometry. It outlines the procedures, equipment, and analytical techniques necessary for accurate and reliable measurement of impurities. The standard specifies the preparation of samples, calibration processes, and data analysis methods to ensure consistent results. It also includes guidelines for handling and interpreting the data obtained through this analytical technique. The document is structured to facilitate the application of the method in laboratories conducting nanotechnology research and development. It covers the essential aspects of the testing process to support quality control and standardization in the field of nanomaterials.

*** Please note: This description may not be accurate, please refer to the official documentation.

More samples: DL/T 5154-2012 JJG 21-2008 GB 50021-2001(2009)

Sample only — not a preview of GB/T 35418-2017

Loading PDF document...

Error loading PDF. Please make sure the file is valid and try again.