Performance of HORIBA-SPCS in the PMP LDD ILCE

Similar documents
First results of vehicle technology effects on sub-23nm exhaust particle number emissions using the DownTo10 sampling and measurement system

AECC/Concawe 2016 GPF RDE PN Test Programme: PN Measurement Above and Below 23nm

Update on the UN-ECE Particle Measurement Programme (PMP)

Future Powertrain Conference 24 th February C 2016 HORIBA Ltd. All rights reserved.

Development & Implementation of Particle Number Measurement for Vehicle Emissions Regulation

COMPARISON OF FULL FLOW DILUTION, PARTIAL FLOW DILUTION, AND RAW EXHAUST PARTICLE NUMBER MEASUREMENTS

PMP HD Validation Exercise and Round Robin

Update on the UN-ECE GRPE Particle Measurement Programme Spring 2009

76th UNECE GRPE session

EVALUATION OF THE EUROPEAN PMP METHODOLOGIES USING CHASSIS DYNAMOMETER AND ON-ROAD TESTING OF HEAVY- DUTY VEHICLES

RDE PN emissions from a GDI vehicle without and with a GPF

Welcome to the Dekati/ExIS/ Pegasor seminar Peter Ahlvik

Application of the. to NRMM. Alois Krasenbrink European Commission

AECC Non-Road Mobile Machinery (NRMM) Test Programme: Particle Measurement and Characterisation

Transient Measurement of Diesel Nano-Particles by a Newly Developed DDMA

Introduction of measurement technics regarding mass emissions and real time fuel consumption using direct exhaust gas flow meter

Particulate emissions from vehicles: contribution of research to EU policy development

Sousuke Sasaki, Yoshio Tonegawa Japan Automobile Research Institute. 17th August th International ETH-Conference on JARI

European Emissions Legislation Update

2018 HORIBA, Ltd. All rights reserved. 1

JAMA comments on the draft EU RDE 3rd package regulations 25/08/2016 JAMA

HORIZON 2020 Call: H2020-GV Technologies for low emission light duty powertrains

Product Portfolio Nanoparticle. (Stand: April 2016)

AVL Particle Measurement System Aviation

Real Driving Emissions and Test Cycle Data from 4 Modern European Vehicles

AECC HEAVY DUTY NRMM TEST PROGRAMME: PARTICLE MEASUREMENT AND CHARACTERISATION

74th UNECE GRPE session

Study of Fuel Oxygenate Effects on Particulates from Gasoline Direct Injection Cars

Real Driving Emissions

PMP Comparison Study of Particle Measurement Systems

Particle Size Distribution Measurements from Early to Late Injection Timing Low Temperature Combustion

14 th ETH-Conference on Combustion Generated Nanoparticles Zurich, Switzerland August 1 st -4 th 2010

Gasoline LDV. Toyota Corolla 1.8 (Euro III) Peugeot 106 (Euro I) Golf TDI 1.9 w/ cat (Euro II) With adapted test protocol for traps

E. Rodt 2 UBA Berlin Berlin Germany. EU / GRPE: "Particulate measurement program" (PMP)

The Experimental Study of Fuel Economy & Emission Characteristics for the Heavy-Duty DME Bus

TSI PTI-Prototype for PN- Periodic Technical Inspection

Reducing diesel particle emissions by particle oxidation catalyst

Paper-Abstract Form. Title: Reduction of exhaust nanoparticles by retrofitted after-treatment systems in diesel passenger cars

New results from a 2015 PEMS testing campaign on a Diesel Euro 6b vehicle

Particulate Emissions from Typical Light-Duty Vehicles taken from the European Fleet, Equipped with a Variety of Emissions Control Technologies

Fuel Properties Effects on Current Diesel Vehicle Technology Emission

Particulate Emissions from Mopeds: Effect of Lubricant and Fuel

Dekati Solutions. Engine Emissions

Real-Driving Emissions test programme results from a Plugin Hybrid Electric Vehicle (PHEV)

Experimental investigation of ethanol-gasoline dual-fuel on particle emissions at the exhaust of a small displacement engine

Heavy-duty Engine Particulate Emissions: Application of PMP Methodology to measure Particle Number and Particulate Mass

GDI measurements with a Fast Particulate Spectrometer

Laboratory brake test variability Part 1: ISO friction coefficient. Part 2: ISO/PMP/SAE brake emissions

Investigation of the Feasibility of Achieving Euro VI Heavy-Duty Diesel Emissions Limits by Advanced Emissions Controls

Study of Fuel Economy Standard and Testing Procedure for Motor Vehicles in Thailand

Effect of Biodiesel on PM Emission Characteristics of Modern Diesel Engine

Correlation between Pegasor Particle Sensor and Particle Number Counter Application of Pegasor Particle Sensor in Heavy Duty Exhaust

Journal of Mechanical Science and Technology 23 (2009) 729~738

Opportunities and Challenges to Clean-up Diesel Cars Dr. Axel Friedrich Umweltbundesamt (UBA) Germany

DaimlerChrysler Alternative Particulate Measurement page 1/8

Recent Advances in Measurement Technology for Low Particulate Emissions in A Legislative Framework

Technical Committee Motor Vehicles 15 September RDE 3 discussion

Testing of particulate emissions from positive ignition vehicles with direct fuel injection system. Technical Report

EMISSION FACTORS OF SEVERAL PARTICLE PROPERTIES FROM CURRENT DIESEL PASSENGER CARS

Transient high sensitive soot measurement. AVL Micro Soot Sensor. Manfred Linke

Development of vehicle emission factors using PEMS

Device for Measuring Solid Particle Number Concentration from Combustion Sources

Physical Characteristics of PM from 2- Stroke and 4-Stroke Motorcycle Engines

Physical Characterization of Exhaust Particle Emissions from Late Technology Gasoline Vehicles

ETH /19/02. Sampling methodology influences on modern Diesel particle number size distribution measurements

UPDATE PTI PROCEDURE FOR DPF TESTING

CHARACTERIZATION OF ATMOSPHERIC DISPERSING EXHAUST PLUME DURING ON- ROAD OPERATION OF LATEST TECHNOLOGY HEAVY-DUTY TRUCKS

Real Driving Emissions of a GPF-equipped production car

Technology (CE-CERT), Riverside, CA Minneapolis, MN 55455

COMMISSION OF THE EUROPEAN COMMUNITIES ENTERPRISE DIRECTORATE GENERAL. Heavy-Duty Engine Validation of. World Harmonised Duty Cycle (WHDC)

Particle Number and Ash Emissions from a Heavy Duty Natural Gas and Diesel w/dpf Engine

AECC PHEV test programme RDE working group 10 March 2017

Experience with emissions from a PHEV and RDE data evaluation methods

SUREAL-23 UNDERSTANDING, MEASURING AND REGULATING SUB-23 NM PARTICLE EMISSIONS FROM DIRECT INJECTION ENGINES INCLUDING REAL DRIVING CONDITIONS

Solid Particle Emissions of HDV Euro 3 DPF Euro 4 PM-Kat Euro 5 SCR

SOOT SENSOR FOR EMISSION ONBOARD CONTROL SYSTEMS

Real time measurements of ash particle emissions. David Kittelson, David Gladis, and Winthrop Watts

Diesel Aftertreatment Systems

DETERMINATION OF A PRECONDITIONING PROTOCOL TO STABILIZE NOx AND PN EMISSIONS FOR EURO 6 ENGINE CERTIFICATION

Implementation and Challenges of RDE with BSVI Norms

On-Road Measurements of Spark Ignition Nanoparticle Emissions

Expected Light Duty Vehicle Emissions from Final Stages of Euro 6

L. Rubino 51 Imperial College London United Kingdom. Nanoparticle emissions from gasoline engine exhausts

The Effect of Biodiesel Fuel Blends on Diesel Particulate Filter Operation. Project Summary

An update of vehicle emissions control policies and regulations in Europe

RDE DEVELOPMENT PROCESS & TOOLS

Particle number emission limits for Euro 6 positive ignition vehicles (PI)

Characterisation of Exhaust Particulate Emissions from Road Vehicles

Effect of Biodiesel Fuel on Emissions from Diesel Engine Complied with the Latest Emission Requirements in Japan Ref: JSAE Paper No.

Particle Emission Reduction in a SI-DI Vehicle by an Open Channel Filter

Euro VI Programme and Emissions Results on European Cycles

Introduction to Particulate Emissions 1. Gasoline Engine Particulate Emissions Introduction 3. References 7 About the Authors 8

Jon Andersson, Ricardo UK Ltd. Edinburgh, January 24 th Ricardo plc 2015

FEATURE ARTICLE. Advanced Function Analyzers: Real-time Measurement of Particulate Matter Using Flame Ionization Detectors. Hirokazu Fukushima

Test Engine. torque [Nm] power [kw] speed [rpm] Liebherr Dieselmotor 934 S A6 4 Cylinders Turbodiesel, intercooler, unit pump, EDC

Recent Developments in the Measurement of Low Particulate Emissions from Mobile Sources: A Review of Particle Number Legislations

Scientific Publications

수송부문기후변화대응시스템연구 (V) - 자동차오염물질및온실가스 Bottom-up 배출계수산출 - 교통환경연구소

Roadworthiness Test Investigations of Diesel Particulate Filters

Advanced high-porosity filter technologies to meet BS VI regulations

Transcription:

1 Th ETH Conference Performance of HORIBA-SPCS in the PMP LDD ILCE Rahman Montajir, Asano Ichiro, Takeshi Kusaka, HORIBA Ltd, Japan Qiang Wei HORIBA Instrument Inc. USA

Acknowledgement Dr. Y. Goto National Traffic Safety and Environment Laboratory J. Andersson RICARDO Consulting Engineers Dr. P. Dilara Joint Research Center

Motivation of Development Conventional PM Measurement Mass Measurement is approaching to limit Variation of Measurement is very high PMP Background Alternative/Improvement of Mass Measurement Considering danger of Nano-Particles ECE Draft Regulation from PMP Number Counting of Particles (Keeping Mass Measurement Active)

PMP Recommended System Dilution Air PND 2 :Cold Dilution PND 1 :Hot Dilution CVS Tunnel CPC PND 1 PND 2 EU Pre-classifier PNC @25C @32C @15C VPR Pump Stable Evaporation Unstable

SPCS Flow Schematic Dil Air Dil Air MFC MFC @Room Temp Sample @15 FM-1 PND1 FM-2 EU PND2 CPC VP @32 MFC MFC VP

Detail of SPCS Design ETH 25 SAE Paper 26-1 1-864864 SAE Paper 26-1 1-865865 JSAE Paper 26544

Prototype HORIBA SPCS Front Back

Basic Performances In Brief

Penetration of Solid Particles 1 Penetration = PMP >9% Concentration after SPCS x DR Raw Concentration Before SPCS X 1 Raw sample Raw Diluted sample Diluted Penetration % 8 6 4 2 Penetration >97% Particle Loss <3% 2 3 5 75 1 Low Dilution Ratio High Dilution ratio

Dilution Ratio Check with C 3 H 8 Raw Concentration (C 3 H 8 ) Actual DF = Diluted Conc. - Background Error in DF = x 1 Ref. DF Act. DF Ref. DF Error in DF % 1 8 6 4 2-2 -4-6 -8-1 Unit-1 Unit-2 Unit-3 1 3 5 7 9 11 PMP Recommendation Ref. Dilution Factor DF < 2% DF Error <6%

Removal of 5nm C4 Particles Evaporator 99% Removal 12 1 25 EU: OFF Particle Number 8 6 4 2 Removal > 99% 32 EU: ON - 2 5 1 15 2 25 Time sec

Linearity of Counter Particle Only Particle + Air Fraction 1% 8% 6% 5% 4% 3% 2% 1% % Reference 72 576 432 36 288 216 144 72 HORIBA-SPCS 72 5757 4317 3598 2877 2164 1445 728 4 Air Only Calculated Actual CPC Concentration 8 6 4 2 y =.994x - 33.463 R 2 =.9997 2 4 6 8 Reference Concentration Good linearity R 2 =.9997

Inter-Lab Correlation Test AVL-MTC (Sweden) JRC (EC) UTAC (France) Ricardo (UK) Shell (UK) RWTÜV (Germany) Aristotle Univ. (Greece) JRC (EC) NTSEL (Japan) NMVERL (Korea) HORIBA

Test Vehicles Engine Swept Vol. After Treatment system Mileage Transmission GV TC-DI Diesel 2. L SiC + FBC 2898 km Manual 6 AV-1 TC-DI Diesel 2. L DPF + DOC 214 km Manual 5 AV-2 NA-DI Gasoline 3. L TWC + NRC 9317 km Automatic

Real Time Emission from GC Particle #/ cc Particle #/ cc 2.E+5 1.E+5 5.E+4.E+ 2.E+5 1.E+5 5.E+4.E+ Measured by SPCS 2 4 6 8 1 12 Highly Repeatable Test #1 Test #2 Test #3 Test #4 Test #5 Test #6 Test#7 Time sec Speed Test #1 Test #2 Test #3 Test #4 Test #5 Test #6 Golden Vehicle NEDC Mode 4 8 12 16 2 24 28 32 36 Test#7 Time sec Speed 12 1 8 6 4 2 12 1 8 6 4 2 Speed x1 km/ h Speed x1 km/ h

Particle Emission Rate Particle Emission Rate = 1 x T=t N T=12 N 12. Particle Emission Rate % 1. 8. 6. 4. 2. Golden Vehicle NEDC Mode. 2 4 6 8 1 12 Time sec

Test under JC8 Driving Mode Particle #/ cc 2.E+5 1.5E+5 1.E+5 5.E+4 Golden Golden Vehicle Vehicle CD34 Mode Test#1 Test#2 Test#3 Test#4 Test#5 Test#6 Speed km/ h 1 8 6 4 2 Speed km/ h Particle #/ cc.e+ 2 4 6 8 1 12 2.E+5 1.5E+5 1.E+5 5.E+4 Highly Repeatable Time sec.e+ 5 1 15 2 25 3 35 Time sec Test#1 Test#2 Test#3 Test#4 Test#5 Test#6 Speed km/ h 1 17 1 8 6 4 2 Speed km/ h

Emission from DI Gasoline Highly Repeatable

Particle Emission Rate GDI Vehicle NEDC Mode

Repeatability of PM Mass 1.5 1.2 GV AV-1 AV-2 14 12 7 6 GV PM gm/km.9.6 1 8 6 PM gm/km COV (%) 5 4 3 AV-1.3 4 2 2 1 AV-2 1 2 3 2 4 6 8 Test No.

Repeatability of PM Number Golden vehicle driven under NEDC mode 2.E+11 Particles Number (#/km) 1.6E+11 1.2E+11 8.E+1 4.E+1 GPMS SPCS NTSEL.E+ 1 2 3 4 5 6 7 8 Test No 1 21

Co-Efficient of Variation Coefficient of variance 4% 35% 32.9% 3% 25% 2% 15% 11.8% 6.8% 1% 5% % GPMS GV JV-1 AV-2 JV-2 AV-1 7.1% 3.6% SPCS 21.2% 1 22

Conclusions A solid particle counting system has been developed according to PMP recommendation. The SPCS shows excellent sensitivity and repeatability for vehicle test. The SPCS exhibits over 97% penetration for solid particles and error in dilution ratios less than ± 6%. The system participated to the LDD_ILCE@NTSEL successfully. Number counting of solid particles shows better repeatability than the conventional gravimetric mass measurement if the car is conditioned appropriately. 1 23

Thanking you Explore the future HORIBA Ltd. 1 24