Energy, fuel, and automotive engineering

Find out how our solutions can advance your knowledge of batteries, fluid dynamics, fossil fuels, fuel cells, and lubricants

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Want to know how our analysis methods can support your energy, fuel, and automotive engineering research? Whether you’re a student, a researcher, or a professor, we’ve put together links to examples of our solutions in batteries, fluid dynamics, fossil fuels, fuel cells, and lubricants.

The materials and analytical equipment involved overlap with applications in Chemistry and Applied ChemistryMaterials Science and Engineering, and Geological Sciences, Minerals and Mining – so feel free to check those pages for more information! Method abbreviations are explained at the bottom of this page.

Batteries research

Battery technology is a ‘hot topic’ – and involves research in many areas. This research can cover everything from charge storage and transfer and the synthesis of new battery materials, to modeling and testing battery designs and processing and upscaling battery production. Below, we’ve put together a selection of typical examples of our battery research solutions for battery material measurement. Take a look to discover more!

Batteries Research

Method

Sample

Application Note Title (Link)

Battery cathode manufacture and research - Elemental composition

XRD

Lithium nickel manganese cobalt oxide (Li-NMC)

What XRD configuration shall one use to analyze battery cathode materials? 

Battery cathode manufacture - Elemental composition

EDXRF

Lithium nickel manganese cobalt oxide (Li-NMC)

Elemental composition analysis of Nickel-Manganese-Cobalt cathodes and their precursors materials using Epsilon 4 ED-XRF spectrometer

Battery cathode manufacture - Elemental composition

WDXRF

Lithium nickel manganese cobalt oxide (Li-NMC)

Elemental composition analysis of Nickel-Manganese-Cobalt cathodes and their precursor materials using Zetium WDXRF

Battery research - Elemental composition

XRD

Graphite

Quality control: Graphitization degree and orientation index in graphite anode materials

Battery research - Overview

LD, XRF, XRD

PEM fuel cells (PEMFCs)

Characterization of PEM Fuel Cell Electrocatalysts 

Battery manufacture - particle size analysis

LD

LiFePO4, graphite

Battery manufacturing: Reliable, adaptable particle sizing using the Mastersizer 3000+

Battery manufacture - particle size analysis

LD

LiFePO4, graphite

Battery manufacturing: Reliable, adaptable particle sizing using the Mastersizer 3000+

Battery manufacture - particle size and shape

MDRS

Carbon electrode materials, binder

The impact of electrode particle size and shape on battery slurry viscosity

Battery manufacture - particle size

LD

Carbon (milling)

On-line particle sizing of carbon for electrode production

Battery manufacture - particle size and shape

MDRS

Graphite particles

The Influence of Particle Shape on the Characteristics of Coating Films for Battery Electrodes

Battery manufacture - particle size and shape

MDRS

Graphite

Exploring the effect of carbon microstructure on lithium-ion battery performance

Battery manufacture - cathode material analysis

XRF

LiFePO4 (LFP)

Elemental composition analysis of LiFePO₄ cathode materials using XRF

Battery materials - particle size analysis

LD

Lithium cobalt oxide and lithium-ion phosphate, Electrolytic Manganese Dioxide (EMD),

Characterization of Battery Materials using Laser Diffraction Particle Size Analysis

Battery technology - overview

Various

The role of analytical technologies in optimizing lithium-ion battery materials

Analytical toolkit for the optimization of battery electrode materials - whitepaper

Battery technology - battery integrity

XRD-CT

Zn-MnO2 alkaline batteries

Computed tomography on alkaline batteries

Battery technology – in-operando crystal phase analysis

XRD

Batteries in pouch cells. LiNMC coated on Al (cathode), graphite coated on Cu

High-quality in operando X-ray diffraction analysis of pouch bag lithium-ion batteries

Fluid dynamics

Several areas of engineering involve studying fluids and sprays – for instance, gas and liquid injection are important features of engine design. Our droplet size analysis instruments can be used to test features such as nozzle design. Find out more below!

Fluid Dynamics

Method

Sample

Application Note Title (Link)

Fuel Injectors - droplet size

LD

Fuel sprays from different injectors

Characterization of fuel injectors using high speed laser diffraction droplet size measurements

Fossil fuels

As we navigate the transition away from fossil fuels, researchers are continuously exploring ways to use and re-use them more effectively. This can cover areas including:

  • Power engineering
  • Automotive engineering
  • Chemical and petrochemical engineering
  • Chemistry
  • Recycling
  • Environment
  • Mining
  • Minerals engineering


We’ve put together a few application examples of our fossil fuel research solutions – take a look to learn more!

Fossil Fuels

Method

Sample

Application Note Title (Link)

Biodiesel blends - concentration

UV/Vis/NIR/ SWIR

Biodiesel-diesel blends: Methyl esters of five different oils — soybean oil, canola oil, palm oil, waste cooling oil, and coconut oil, highway and off-road diesels

Predicting the Concentration and Specific Gravity of Biodiesel-Diesel Blends Using Near Infrared Spectroscopy

Biofuel - elemental composition

XRF

Waste

Analysis of a wide range of alternative fuel materials using a single calibration method

Biofuels, mixtures - trace elements

XRF

Sulfur in fuels, biofuels, and mixtures

Zetium - Oil-Trace: Analysis of sulfur in fuels, biofuels and mixtures using a mineral oil calibration

Catalytic cracking - residual elements

XRF

Cl in fresh, regenerated, and spent alumina- supported catalysts

Zetium - The analysis of total chloride in alumina-supported catalysts by WD XRF according to UOP 979

Catalytic cracking - sample preparation

SPE

Fluid Catalytic Cracking (FCC) Catalysts - residue in petroleum: Ni, Va, Si, Al, Na, Ca,

Dissolution of Fuel Oil Using Borate Fusion for ICP-OES Analysis in Accordance with ASTM D 5184, IP377 and IP501

Coal - phase identification and quantification

XRD-C

Quartz(SiO2), kaolinite​(Al2Si2O5(OH)4), calcite(CaCO3), dolomite​(CaMg(CO3)2, Siderite(FeCO3), anatase(TiO2)

Analysis of coal and related materials by XRD

Coal - sample preparation for ICP

SPE

Coal, Coal Ash, Coal Fly Ash

Characterization of Coal, Coal Ash and Coal Fly Ash using Borate Fusion for ICP Analysis

Coal - elemental analysis

XRF

Na2O, MgO, Al2O3, SiO2, P2O5, S, K2O, CaO, TiO2, MnO, Fe2O3, SrO, and BaO in unashed coal samples

Analysis of inorganic major and minor compounds in un-ashed coal samples prepared as pressed powder

Diesel - trace elements

XRF

Silicon (Si), Sulphur (S), and Chlorine (Cl) in diesel

Accurate elemental analysis of low silicon, sulfur and chlorine content in petroleum products and automotive fuels

Gasoline - lead content

XRF

Lead in Gasoline

Zetium - Analysis of low concentrations of lead in gasoline according to ASTM D5059-07 test method C

Gasoline - nanobubbles

NTA

Hydrogen nanobubbles in gasoline

Nanobubble Applications and Characterization by Nanoparticle Tracking Analysis

Gasoline - trace elements

XRF

Phosphorous in fuels

Zetium - Analysis of low-level phosphorus in gasoline

Gasoline and diesel – Low-level sulfur content

XRF

Sulfur, petroleum

Analysis of low-level sulfur in petroleum products in accordance with ISO 20884:11 and ASTM D2622-10

Gasoline and diesel - sulfur content

XRF

Sulfur in car fuels

EPA Tier 3 Compliant Analysis of Ultra Low Sulfur Fuels

Fuel cells

Fuel cell technology is a growing area. Lots of the current research around fuel cell materials lies within Inorganic Chemistry, so check out that page for more application examples. Otherwise, enjoy exploring the information on our fuel cell research solutions below!

Fuel Cells

Method

Sample

Application Note Title (Link)

Electrocatalysts Used in Fuel Cells

XRD, XRF, LD

Vulcan XC-72 carbon black

Characterization of Electrocatalysts Used in PEM Electrolyzers and Fuel Cells

Hydrogen storage materials - performance

XRD-C

Lanthanum pentanickel (LaNi5), Ammonia borane (NH3BH3)

High-pressure and high-temperature studies of hydrogen storage materials

Catalytic Ink for electrodes – crystallographic structure, particle size and agglomeration 

XRD-C, LD, DLS, ELS 

Pt nano particles supported in Carbon particles and agglomerates

Analysis of Catalytic Ink for Proton Exchange Membrane Fuel Cells (PEMFC’s)

Lubricants

The study of lubricants is important for automotive engineering, chemical and petrochemical engineering, chemistry, recycling, and the environment. For instance, studying used lubricants can be a diagnostic for wear in machine parts. Below, we’ve collected a few examples of how our analytical solutions can support lubricant research. Check them out to discover more!

Lubricants Research

Method

Sample

Application Note Title (Link)

Lubricants - wear metals content

XRF

Mg, Al, Si, P, S, Ca, V, Cr, Mn, Fe, Ni, Cu, Zn, Sn, Ba, and Pb in unused and used lubricating oils

Oil-Trace: accurate elemental analysis of additives and wear metals in fresh and used lubrication oils

Lubricants- additives and wear metals content

XRF

Na, Mg, Al, Si, P, S, Ca, V, Cr, Mn, Fe, Ni, Cu, Zn, Sn, Ba, and Pb in unused and used lubricating oils

Analysis of additives and wear metals in used lubricating oils using Oil-Trace

Lubricants - additives content

XRF

Mg, P, S, Cl, Ca, Cu, Zn, and Ba in unused lubricating oil

Analysis of additives in unused lubricating oils according to ASTM D4927-10 and ASTM D6443-04 (2010)

Automotive oils - identification

XRF

Lubricating oils

Material identification by FingerPrint

Automotive oils - recycling

XRF

S, Cl in waste oil

Analysis of S and CI in waste oil using an Ag-anode X-ray tube

Oils - base fluids

GPC

Polyalfaolefins (PAO), (PAO6, PAO40, PAO100) in THF

Comparing multi-detector GPC and APC for polyalphaolefin analysis

Abkürzungen erklärt

Unsere Produkte und Technologien werden auf den Produktseiten beschrieben. Nachstehend finden Sie eine Kurzübersicht über die von unseren Geräten gemessenen Eigenschaften einschließlich der Messbezeichnung und ihrer Abkürzung. Klicken Sie auf die einzelnen Methoden, um mehr darüber zu erfahren! 

Abkürzung

Methodenname

Gerät(e)

Gemessene Eigenschaft

DLS

Dynamische Lichtstreuung

Zetasizer

Molekülgröße, hydrodynamischer Radius RH, Partikelgröße, Größenverteilung, Stabilität, Konzentration, Agglomeration

ELS

Elektrophoretische Lichtstreuung

Zetasizer

Zetapotenzial, Partikelladung, Suspensionsstabilität, Proteinmobilität

ITC

Isothermische Titrationskalorimetrie

MicroCal ITC

Bindungsaffinität, Thermodynamik molekularer Reaktionen in Lösung

DDK

Dynamische Differenzkalorimetrie

Microcal DSC

Denaturierung (Entfaltung) von großen Molekülen, Stabilität von Makromolekülen

GCI

Gittergekoppelte Interferometrie

Creoptix WAVEsystem

Bindungskinetik und -affinität in Echtzeit, markerfrei mit Fluidik

IMG

Automatisierte Bildanalyse

Morphologi 4

Bildgebung von Partikeln, automatisierte Form- und Größenmessung

MDRS

Morphologically-Directed Raman-Spektroskopie

Morphologi 4-ID

Bildgebung von Partikeln, automatisierte Form- und Größenmessung, chemische Identifizierung und Verunreinigungserkennung

LD

Laserbeugung

Mastersizer

Spraytec

Insitec

Parsum

Partikelgröße, Größenverteilung

NTA

Nanopartikel-Tracking-Analyse (NTA)

NanoSight

Partikelgröße, Größenverteilung und Konzentration

SEC  oder  GPC

Größenausschluss-Chromatographie/

Gelpermeationschromatographie

OMNISEC

Molekülgröße, Molekulargewicht, oligomerer Zustand, Polymer- oder Proteingröße und Molekularstruktur

SPE

Probenvorbereitung durch Schmelzaufschluss

Le Neo

LeDoser

Eagon 2

The OxAdvanced

M4

rFusion

Schmelztabletten-Probenvorbereitung für RFA, Peroxidlösungszubereitungen für ICP, Flussmittelwägung für die Schmelztablettenherstellung

UV/Vis/NIR/ SWIR

Ultraviolett-/Sichtbares Licht-/Nahinfrarot-/Kurzwellen-Infrarotspektrometrie

LabSpec

FieldSpec

TerraSpec

QualitySpec

Materialerkennung und -analyse, Feuchtigkeit, Mineral- und Kohlenstoffgehalt. Bodenuntersuchungen für luft- und satellitengestützte spektroskopische Verfahren.

PFTNA

Aktivierung mit gepulsten schnellen thermischen Neutronen (Pulsed Fast and Thermal Neutron Activation, PFTNA)

CNA

Inline-Elementaranalyse

XRD-C

Röntgendiffraktion  (Kristallographie)

Aeris

Empyrean

Verfeinerung der molekularen Kristallstruktur,

Identifizierung und Quantifizierung der kristallinen Phase, Verhältnis zwischen kristallin und amorph, Analyse der Kristallitgröße

XRD-M

Röntgendiffraktion  (Mikrostruktur)

Empyrean

X’Pert3 MRD(XL)

Eigenspannung, Textur

XRD-CT

Röntgenabsorptionsbildgebung durch Computertomographie

Empyrean

3D Bildgebung von Feststoffen, Porosität und Dichte

SAXS

Kleinwinkel-Röntgenstreuung

Empyrean

Nanopartikel, Größe, Form und Struktur

GISAXS

Kleinwinkel-Röntgenstreuung unter streifendem Einfall

Empyrean

Nanostrukturierte Dünnschichten und Oberflächen

HR-XRD

Hochauflösende Röntgenbeugung

Empyrean

X’Pert3 MRD(XL)

Dünnschichten und epitaktische Mehrfachschichten, Zusammensetzung, Dehnung, Dicke, Qualität

XRR

Röntgenreflektometrie

Empyrean

X’Pert3 MRD(XL)

Dünnschichten und Oberflächen, Schichtdicke, Oberflächen- und Grenzflächenrauheit

RFA

Röntgenfluoreszenz

Epsilon

Zetium

Axios FAST

2830 ZT

Elementzusammensetzung, Elementkonzentration, Spurenelemente, Verunreinigungserkennung