聯用技術 | 爱游戏平台注册登录 - 爱游戏登录网,爱游戏平台注册登录
爱游戏平台注册登录

聯用技術

通過單一儀器和個別分析技術,無法獲得結果和見解。我們的聯用解決方案可以配合兩種或更多種儀器,以大大提高分析能力,並通過從單次運行獲取更多信息節省寶貴的時間。例如:

  • 逸出氣體分析 - STA/TGA/FTIR/Imaging/GCMS
  • 形態分析 - FFF-ICP/MS, LC-ICP/MS
  • 同步分析 - STA,Imaging-Micro FTIR
  • 檢測樣品對環境的激勵 - UV-DSC, 濕度-DMA

這些技術可幫助您更好地了解物質變化規律,並將您的實驗室帶到更高的層次。知之愈多,則行之愈遠。 我們為聯用係統提供完整的服務和支持,更有相關的專家和經驗幫助您有效地使用。更重要的是,聯用係統獨家提供避免了軟件在控製多個儀器時可能出現的兼容性問題,更可以避免後續維護時出現的困難。

Demystifying Challenges of Complete Sample Characterization

The analysis of complex mixtures, evolved gases, or competitors’ products for their complete characterization is often thought to be analytically and operationally challenging. The use of multiple analytical techniques demanding different sample preparation processes is required and often leads to loss of lab time, productivity, and revenue, resulting in sub-optimal research. This webinar will demystify the typical challenges encountered in the complete sample characterization with application examples of each modular configuration of the TG-IR-GC/MS 爱游戏平台注册登录 Hyphenation System.

了解更多

Hyphenation Solution Configurator

TG-IR

TG-IR: Thermogravimetric – Infrared Analysis

Because of its ability to detect functional groups in gas-phase, IR analysis allows greater understanding of the processes seen in the TGA. A sample is heated in the TGA, whereby, it decomposes and releases volatile materials and/or gaseous components as a result of material break-down. These gases Thermogravimetric properties are recorded and are then transferred to the IR cell via a high-fidelity transfer system where the components can be further characterized/identified.

  • State-of-the-art - ensure transfer of every component evolved in the TGA to the IR while maintaining complete sample integrity
  • Performance - Heated zero-gravity-effect 'ZGCell' gas cell for the 爱游戏平台注册登录 FT-IR instrument incorporating automatic accessory identification, low volume, and efficient sample area purging
  • Flexibility - Switch from TG-IR mode to TGA and/or IR only mode quickly and easily

TG-GC/MS

TG-GC/MS: Thermogravimetric - Gas Chromatography/Mass Spectrometry

The ability to detect very low levels of material (known and unknown) in complex mixtures makes the TG-GC/MS a powerful tool for quality control, safety, and product development. Heating a sample on the TGA causes a sample to release volatile materials and/or generate gaseous components upon decomposition. These gases are then transferred via a high-fidelity heated transfer system to the GC, where the components can be collected on a trapping media, in a gas sampling loop, or deposited on the head of a column. The sample can then be run by GC to separate the material, and the peaks identified by the MS.

  • TG-GC/MS Mode:
    • User customizable triggers based on temperature, time or weight change
    • Fast GC analysis with the GC 2400 Platform to achieve analysis of multiple weight losses during a single run
    • Ability to switch to ‘on-line’ direct-to-MS mode at the push of a button
  • PyroTG-GC/MS Mode:
    • Rapid pyrolysis of the sample at elevated temperature
    • Improved detection limits
    • Ability to measure samples in complex environmental matrices
    • Flexibility –switch from GC separation (TG-GC/MS mode) to Single Ion Monitoring (TG-MS mode) to TGA and/or GC/MS only mode quickly and easily

TG-IR-GC/MS

TG-IR-GC/MS: Thermogravimetric - Infrared - Gas Chromatography/Mass Spectrometry

Hyphenating TG-IR-GC/MS is a powerful approach for analysis of an unknown mixture to determine its primary components and identify additives or contaminants. This information may be needed to evaluate a competitor’s product, determine compliance with regulations, or understand a material’s composition. The TG-IR-GC/MS configuration enables TG-IR-GC/MS analysis on a sample by moving every component in the off gases to the FT-IR and/or GC/MS after their evolution in the TGA while maintaining complete sample integrity.

A few advantages of this system include:

  • Performance- all the benefits of individual TG-IR and TG-GC/MS systems
  • Ability to collect real-time FT-IR data while carrying out the survey scan used to GC/MS data collection
  • Possibility of using each technique as stand alone or in any combination

Digital Controller and Intelligent Transfer Line

Digital Controller and Intelligent Transfer Line
  • User controllable flow rate (0-200 mL/min)
  • Individual temperature control for each part of the transfer line (ambient – 350 °C)
  • Constant pressure inside the TGA furnace
  • Quantitative and qualitative results can be reached as well as reproducible analysis without stagnation of corrosive gas in the furnace.
  • Selectable analysis modes in TGA-GC/MS:
    • GC/MS
    • ‘On-line’ direct-to-MS
    • Multiple injections for samples with multiple weight-losses

Applications of Hyphenated Technologies

    TG-IR TG-GC/MS TG-IR-GC/MS  
  Bio-polymers gases degradation    
Chemical Identification    
Competitive analysis    
Fire Retardation (performance evaluation and identification)    
Graphene and CNT based batteries proof of successful hybridization    
Nanomaterials  
Packaging materials
Petroleum, Lubricants, and Coal QA/QC & Research    
Polymer additives  
Process optimization  
Pyrolysis  
QA/QC
Thermal Stability  
 
    TG-IR TG-GC/MS TG-IR-GC/MS  
  Additives      
Adulteration
Carbohydrate analysis    
Fats and Oils    
Food Packaging  
Food quality  
Moisture analysis  
Pyrolysis  
State transitions    
 
    TG-IR TG-GC/MS TG-IR-GC/MS  
  Contaminated soil    
Formulation analysis    
Microplastics    
Moisture analysis    
Residual solvent    
Trace amount Detection  
 
    TG-IR TG-GC/MS TG-IR-GC/MS  
  Crystal shape evaluation    
Excipients compatibility  
Formulation analysis  
Moisture analysis    
Residual solvent
Shelf life  
Solid state characterization (polymorphism/pseudopolymorphism)    
Solvates  
Solvent-molecule binding energy      
Thermal degradation  
 
    TG-IR TG-GC/MS TG-IR-GC/MS  
  Alkanes, cycloalkanes, aromatic hydrocarbons, and asphaltenes      
Battery research (i.e. lithium polymer (LiPo) electrolyte (SPE)    
Crystal Shape Evaluation      
Decomposition studies
Kinetic Analysis (i.e. pyrolysis, catalysis etc.    
Material Characterization    
Material Sciences  
Nanomaterials  
Polymers    
Polymer separation and degradation    
Pyrolysis  
Solvent molecule binding energy    
State transitions    
Unknown identification
 

Hyphenation Solution Resources

go-further-with-the-power-of-hyphenation-new-512x288.jpg

Go Further with the Power of Hyphenation

Accelerate your research with the modular, multimodal 爱游戏平台注册登录 Hyphenation System, an integrated TGA, IR and GC/MS in a single platform, managed by an electr ...
了解更多
demystifying-512x288.jpg

Hyphenation Applications Compendium

Whether you're tackling challenges in materials analysis, battery and energy storage, or environmental monitoring, you need the analytical instruments that leve ...
了解更多
demystifying-512x288.jpg

Demystifying Challenges of Complete Sample Characterization

This webinar will demystify the typical challenges encountered in the complete sample characterization with application examples of each modular configuration o ...
了解更多
degradation-analysis-512x288.jpg

Degradation Analysis of a Solid-State Electrolyte using TG-IR-GC/MS

Solid-state batteries (SSBs) are quickly becoming more popular as the industry looks to improve upon rechargeable battery performance and safety. These are batt ...
了解更多
in-situ-evolved-gas-analysis-512x288.jpg

TG-GC/MS: In-situ Evolved Gas Analysis During the 3D Printing Procedure

Normally, thermoplastic materials are utilized as the raw material of 3D printers, while more advanced and sophisticated prototype uses the precursor of thermos ...
了解更多

Need Additional Information?

Baidu
map