Diesel Futures Forget the Black Soot and Smoke
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Development of Plug-In Air Powered Four Wheels Motorcycle Drivetrain Control Unit
DEVELOPMENT OF PLUG-IN AIR POWERED FOUR WHEELS MOTORCYCLE DRIVETRAIN CONTROL UNIT TAN BENG LENG Report submitted in partial fulfillment of requirements for award of the Degree of Bachelor of Mechanical Engineering with Automotive Engineering Faculty of Mechanical Engineering UNIVERSITI MALAYSIA PAHANG JUNE 2013 v ABSTRACT This thesis is related to the development of plug-in air powered four wheel motorcycles drive train system that transfers rotational energy from power train to the driving wheel. The objective of this thesis is to develop an air hybrid drivetrain unit and control the power and torque from the powertrain to the driving wheel by using sequential manual transmission. This thesis describes the process of developing sequential shift-by-wire system to make gear shifting for easier for 4 wheel motorcycle. The controller used in this project was 18F PIC 4550 microprocessor. The system programming performed using FLOWCODE version 4.0. 2 units of electromechanical linear actuator were used in this project as an actuator for gear shifting on a manual transmission. Chain drives were selected as power transfer linkage from air hybrid engine to the driving wheel with under drive configuration. Besides the development of shift-by-wire system, the torque on the driving wheel also had been calculated and analysed. In additional, the maximum speed that can be achieved by four wheel motorcycles was also calculated. vi ABSTRAK Tesis ni berkaitan dengan pembangunan sistem pacuan yang memindahkan tenaga putaran ke roda pacuan untuk “plug-in hybrid air powered” motosikal empat roda. Objectif tesis ini ialah untuk membangunkan pacaun “ air hybrid” and mengawal kuasa and tork daripada janakuasa kepada roda paduan mengunakan transmisi manual berturutan. -
Final Report
Prepared by Legislative Policy and Research Office Task Force on Supporting Businesses in Reducing Diesel Emissions Final Report December 2020 TASK FORCE MEMBERS Susheela Jayapal Multnomah County (Task Force Chair) Dr. Erika Moseson Oregon Thoracic Society Mary Peveto Neighbors for Clean Air Portland Jana Jarvis Oregon Trucking Associations Bob Short CalPortland, Oregon Concrete & Aggregate Producers Larry Gescher HP Civil, Associated General Contractors Maria Hernandez-Segoviano Portland Public Schools Sen. Michael Dembrow, Senate District 23 Sen. Dennis Linthicum, Senate District 28 Rep. Shelly Boshart Davis, House District 15 Rep. Rob Nosse, House District 42 STAFF Patrick Brennan, Legislative Analyst Legislative Policy and Research Office [email protected] 503-986-1674 A publication of the Oregon Legislative Policy and Research Office, which provides centralized, professional, and nonpartisan research, issue analysis and committee management services for the Legislative Assembly. The Legislative Policy and Research Office does not provide legal advice. This document contains general information that is current as of the date of publication. Subsequent action by the legislative, executive, or judicial branches may affect accuracy. Report on Task Force on Supporting Businesses in Reducing Diesel Emissions | December 23, 2020 2 Chair: Susheela Jayapal Members: Sen. Michael Dembrow Sen. Dennis Linthicum Staff: Patrick Brennan, LPRO Analyst Rep. Shelly Boshart Davis Sean Murphy, Committee Assistant Rep. Rob Nosse Larry Gescher Maria Hernandez-Segoviano Jana Jarvis Erika Moseson Mary Peveto Bob Short 80th LEGISLATIVE ASSEMBLY TASK FORCE ON SUPPORTING BUSINESSES IN REDUCING DIESEL EMISSIONS Oregon State Capitol 900 Court St. NE, Rm 453-A Salem, OR 97301 PHONE 503-986-1674 FAX 503-364-0545 December 17, 2020 To: Honorable Peter Courtney, President of the Senate Honorable Tina Kotek, Speaker of the House Submitted herewith is the final report of the Task Force on Supporting Businesses in Reducing Diesel Emissions. -
XC40 RECHARGE Mpge MPG Gallons PERFORMANCE AUTHORIZED RETAILER PRICING Per 100
2021Volvo Fuel Economy and Environment Plug-In Hybrid Vehicle Electricity-Gasoline Fuel Economy Small SUV range from 16 to 120 MPGe. The best vehicle rates 120 MPGe. Volvo Car USA LLC Electricity + Gasoline Gasoline Only You save www.volvocars.com/us Charge Time: 8hours ( 240 V) XC40 RECHARGE MPGe MPG gallons PERFORMANCE AUTHORIZED RETAILER PRICING per 100 ...................................................................................................... ...................................................................................................... .................................................................................................................... 1.0 miles .0 kW-hrs $ 3,250 Pure Electric, Zero Tailpipe Emission VOLVO CARS BELLEVUE 5702 IMPORTER'S SUGGESTED LIST PRICE P.O.E.: $ 53,990.00 gallons per per 100 85 72 Front and Rear Electric Motors 420 116TH AVENUE NE 43 miles 100 miles in fuel costs combined city/highway 0combined city/highway 78 kWh Lithium Ion High Voltage Battery BELLEVUE, WA 98004 Climate Package 750.00 79 over 5 years Shift-by-Wire Single Speed Transmission Heated Windshield Wiper Blades Driving Range Anti-Lock Braking Sys (ABS) w/ Hill Start Assist compared to the 402 Horsepower and 486 lb-ft torque Heated Rear Seats Electricity + Gasoline Gasoline Only Electric Power Assisted Steering Heated Steering Wheel 0 0 0 0 0 average new vehicle. All-Wheel-Drive with Instant Traction All Electric range = 0 to 8 miles 0 miles Dynamic Chassis Advanced Package 1,300.00 19" Alloy Wheels Headlight High Pressure Cleaning Fuel Economy & Greenhouse Gas Rating (tailpipe only) Smog Rating (tailpipe only) ......................................................................................................WARRANTY Pilot Assist Driver Assistance System with Annual Fuel 48 Month/50,000 Mile Limited Warranty Coverage cost MPG Adaptive Cruise Control 144 Month Corrosion Protection "Unlimited Mileage" 360 Surround View Camera Refer to Warranty Info Book for Specific Limitations. -
948TE Introduction Webinar Handout
ZF9HP48 / 948TE Introduction Presented by: Mike Souza ATRA Senior Research Technician 948TE Intro Webinar ©2015 ATRA. All Rights Reserved. Vehicle Application Acura (ZF9HP48) Land Rover MDX 2014-15 AWD V6 3.5L Range Rover Evoque 2013-15 FWD/4X4 L4 2.0/2.2L RLX 2014-15 FWD V6 3.5L/3.7L Discovery (LR4) 2015 FWD/AWD L4 2.0 Chrysler (948TE) TL 2014-15 AWD V6 3.5L/3.7L 200 2014-15 FWD L4 2.4L V6 3.2L Town & Country 2013-15 FWD 2013-14 L4 2.4L V6 3.6L Dodge (948TE) Caravan 2014-15 FWD V6 3.6L Fiat (EP2) 500X 2014-15 FWD L4 2.4L Doblo 2015 FWD L4 2.4L Jeep (948TE) Cherokee (KL) 2013-15 FWD L4 2.4L V6 3.2L Renegade 2014-15 FWD L4 2.4L Honda (ZF9HP48) Civic 2014-15 FWD L4 1.6L CRV 2014-15 FWD L4 1.6L Transmission Identification Chrysler 948TE (Kokomo IN) ZF 9HP48 (Germany) • Externally the two units are visually similar • Parts cannot be interchanged. • VIN should always be used as the key for parts lookup. • Barcode label includes the manufacturer identification in the second and third characters of the traceability number. 9 Nine forward gear speeds 48 480 Nm torque capacity 354 lbs ft T Transverse mounted E Electronic control HP Hydraulic planetary Introduction ZF developed the first nine-speed automatic transmission for front wheel drive vehicles. Although it was built in June 2011 it did not make it’s debut until mid 2013. This new transmission delivers extremely short shifting times and exceptionally smooth shifts. -
Draft Technology Assessment: Lower Nox Heavy-Duty Diesel Engines
DRAFT TECHNOLOGY ASSESSMENT: LOWER NOX HEAVY-DUTY DIESEL ENGINES September 2015 State of California AIR RESOURCES BOARD This report has been prepared by the staff of the Air Resources Board. Publication does not signify that the contents reflect the views and policies of the Air Resources Board, nor does mention of trade names or commercial products constitute endorsement or recommendation for use. TABLE OF CONTENTS Contents Page Executive Summary ................................................................................................ ES-1 I. Introduction and Purpose of Assessment ...................................................... I-1 II. History of Emission Control for Heavy-Duty Diesel Engines ....................... II-1 III. Technologies Evaluated ................................................................................. III-1 A. Advanced Aftertreatment Systems ............................................................. III-1 1. Advanced SCR catalysts ................................................................................ III-1 2. Passive NOX adsorber ................................................................................... III-2 3. Combined SCR-DPF systems ........................................................................ III-3 4. Close-coupled SCR catalyst........................................................................... III-4 5. Alternative Sources for Ammonia ................................................................... III-4 6. Urea Delivery System ................................................................................... -
Design of Automotive X-By-Wire Systems Cédric Wilwert, Nicolas Navet, Ye-Qiong Song, Françoise Simonot-Lion
Design of automotive X-by-Wire systems Cédric Wilwert, Nicolas Navet, Ye-Qiong Song, Françoise Simonot-Lion To cite this version: Cédric Wilwert, Nicolas Navet, Ye-Qiong Song, Françoise Simonot-Lion. Design of automotive X-by- Wire systems. Richard Zurawski. The Industrial Communication Technology Handbook, CRC Press, 2005, 0849330777. inria-00000562 HAL Id: inria-00000562 https://hal.inria.fr/inria-00000562 Submitted on 27 Aug 2007 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. Design of automotive X-by-Wire systems Cédric Wilwert PSA Peugeot - Citroën 92000 La Garenne Colombe - France Fax: +33 3 83 58 17 01 Phone: +33 3 83 58 17 17 [email protected] Nicolas Navet LORIA UMR 7503 – INRIA Campus Scientifique - BP 239 - 54506 VANDOEUVRE-lès-NANCY CEDEX Fax: +33 3 83 58 17 01 Phone : +33 3 83 58 17 61 [email protected] Ye Qiong Song LORIA UMR 7503 – Université Henri Poincaré Nancy I Campus Scientifique - BP 239 - 54506 VANDOEUVRE-lès-NANCY CEDEX Fax: +33 3 83 58 17 01 Phone : +33 3 83 58 17 64 [email protected] Françoise Simonot-Lion LORIA UMR 7503 – Institut National Polytechnique de Lorraine Campus Scientifique - BP 239 - 54506 VANDOEUVRE-lès-NANCY CEDEX Fax: +33 3 83 27 83 19 Phone : +33 3 83 58 17 62 [email protected] CONTENTS Design of automotive X-by-Wire systems ...................................................................................................... -
Kia-K900-2016-CA.Pdf
2016 K900 A NEW CONCEPT OF LUXURY. Why follow a well-worn path when you can follow a path of your own? That mode of thinking applies to the way you select a truly ground-breaking luxury automobile. It also describes how Kia Premium pursued its reinvention of luxury driving – a pursuit that reaches its ultimate expression in the newly redesigned 2016 Kia K900. It’s the rear-drive performance luxury sedan that embodies a fresh and unpretentious approach that’s sure to heighten your enthusiasm. Highlights include everything from the supremely confident performance of the available 420-horsepower9 5.0L Gasoline Direct Injection (GDI) V8 engine to such top-tier amenities as the concert-hall sound quality of the premium Lexicon Discrete Logic 7® 4 surround-sound audio system. The exquisite craftsmanship of the available glove-soft Nappa leather trim and available genuine wood trim accents rounds out the experience with exceptional refinement. In the 2016 K900. INTERNATIONAL MODEL SHOWN. Some features may vary. IT LEADS BY EXAMPLE. When you’re entering uncharted territory, you need to have a singular sense of direction. Kia knew exactly how it wanted to transform performance luxury driving to deliver on “The Power to Surprise”. The results are on vivid display in the K900, beginning with its evocative design. The superbly balanced, extended wheelbase rear-drive platform provides a solid foundation for the scintillating performance of the 311-horsepower 3.8L GDI V6 engine or the available 420-horsepower9 5.0L GDI V8. The robust power is complemented by the K900’s precision shifting eight-speed automatic transmission with its available shift-by-wire gear selector. -
2021 RDX Competitive Comparison
2021 RDX Competitive Comparison 2020 Standard (S), Optional (O), Not Available (–) 2021 2021 Audi 2021 2020 2021 2021 Mercedes-Benz Acura RDX Q5 45 TFSI quattro BMW X3 30i Buick Envision Cadillac XT5 Lexus NX 300 GLC SUV ENGINE/MOTOR DOHC 4-cylinder DOHC turbocharged DOHC turbocharged DOHC turbocharged (FWD/AWD); DOHC turbocharged DOHC turbocharged DOHC turbocharged Engine type 4-cylinder 4-cylinder 4-cylinder DOHC turbocharged 4-cylinder 4-cylinder 4-cylinder 4-cylinder (AWD) Engine displacement 2.0 (turbocharged) (liters) 2.0 2.0 2.0 2.5 2.0 2.0 2.0 Power (hp @ rpm) 197 @ 6300 (2.5); (SAE net) 272 @ 6500 261 @ 5000–6000 248 @ 5200–6500 252 @ 5500 (2.0) 235 @ 5000 235 @ 4800–5600 255 @ 5800–6100 273 @ 258 @ 192 @ 4400 (2.5); Torque (lb-ft @ rpm) 280 @ 1600-4500 1600–4500 1450–4800 295 @ 3000 (2.0) 258 @ 1500–4000 258 @ 1650–4000 273 @ 1800–4000 S Direct fuel injection S S S S S (Plus port injection) S S S S S S S S Variable valve timing (VTEC®) Idle stop S S S S S – S DRIVETRAIN S S S S S S 2-wheel drive (Front-wheel) – (Rear-wheel) (Front-wheel) (Front-wheel) (Front-wheel) (Rear-wheel) O S O O O O All-wheel drive (Super Handling All-Wheel ® (Active Twin-Clutch Rear (Active Twin-Clutch Rear O ® Drive™ [SH-AWD®]) (quattro ) (xDrive) Differential) Differential) (4MATIC ) O O O Torque-vectoring (Super Handling All- – – (Active Twin-Clutch Rear (Active Twin-Clutch Rear – – all-wheel drive Wheel Drive™) Differential) Differential) S S S S (6-speed); S S S Automatic transmission (10-speed) (7-speed DCT) (8-speed) O (9-speed) (9-speed) (6-speed) -
Steer-By-Wire Architecture: Case of Study
Design of automotive X-by-Wire systems Cédric Wilwert PSA Peugeot - Citroën 92000 La Garenne Colombe - France Fax: +33 3 83 58 17 01 Phone: +33 3 83 58 17 17 [email protected] Nicolas Navet LORIA UMR 7503 – INRIA Campus Scientifique - BP 239 - 54506 VANDOEUVRE-lès-NANCY CEDEX Fax: +33 3 83 58 17 01 Phone : +33 3 83 58 17 61 [email protected] Ye Qiong Song LORIA UMR 7503 – Université Henri Poincaré Nancy I Campus Scientifique - BP 239 - 54506 VANDOEUVRE-lès-NANCY CEDEX Fax: +33 3 83 58 17 01 Phone : +33 3 83 58 17 64 [email protected] Françoise Simonot-Lion LORIA UMR 7503 – Institut National Polytechnique de Lorraine Campus Scientifique - BP 239 - 54506 VANDOEUVRE-lès-NANCY CEDEX Fax: +33 3 83 27 83 19 Phone : +33 3 83 58 17 62 [email protected] CONTENTS Design of automotive X-by-Wire systems ....................................................................................................... 1 Abstract : ............................................................................................................................................................... 2 1 Why X-by-Wire systems ?.......................................................................................................................... 3 1.1 Steer-by-Wire system .......................................................................................................................... 4 1.2 Brake-by-Wire systems ....................................................................................................................... 4 2 Problem, context and constraints -
GENESIS GV70 Quick Reference Guide I 02 FEATURES and CONTROLS
☐ DEMONSTRATE AUTOMATIC CLIMATE CONTROL - page 17 MAINTENANCE VOICE RECOGNITION TIPS ☐ DEMONSTRATE HOW TO OPERATE WINDSHIELD WIPER AND Scheduled Maintenance (Normal Usage) 2.5T 3.5T BLUETOOTH® WASHER – page 12 Engine Oil And Filter Replace 8,000 or 12 mos. Replace 8,000 or 12 mos. Command Example Fuel Additives Add 7,500 or 12 mos. Add 6,000 or 12 mos. Dial <Phone #> “Dial ☐ HOW TO DEFROST 7-1-4-0-0-0-8-8-8-8” Tire Rotation Perform 7,500 or 12 mos. Perform 6,000 or 12 mos. 1 Call <Name> “Call John Smith” Press the front defrost button. Vacuum Hose Improving how you store your contacts can optimize your 2 Air Conditioning Refrigerant Bluetooth® Voice Recognition performance: Set to warmest temperature setting. • Use full names instead of short or single-syllable names 3 Brake Hoses & Lines (“John or Dad”) Set to highest fan speed. • Avoid using special characters/emojis or abbreviations Drive Shafts & Boots (“Dr.”) when saving contacts ☐ TIRE PRESSURE MONITORING SYSTEM (TPMS)- page 42 Exhaust Pipe & Muffler NAVIGATION Front Brake Disc/Pads, Calipers Inspect 7,500 or 12 mos. Inspect 6,000 or 12 mos. Command Example Low tire pressure indicator / Rear Brake Disc/Pads Find Address “1-2-3-4-5 1st Street, GENESIS Steering Gear Box, Linkage & Boots/ Lower <House #, Street, Fountain Valley” TPMS malfunction indicator Arm Ball Joint, Upper Arm Ball Joint City, State> Find <POI Name> “Find McDonald’s®” NOTE: Tire pressure may vary in colder temperatures causing the Suspension Mounting Bolts low tire pressure indicator to illuminate. Inflate tires according to Propeller Shaft GV70 Located on Rearview Mirror Inspect 7,500 or 6 mos. -
Reduce Nox Emissions by Adsorber-Reduction Catalyston
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by UAD Journal Management System TELKOMNIKA, Vol.11, No.3, September 2013, pp. 481~488 ISSN: 1693-6930, accredited A by DIKTI, Decree No: 58/DIKTI/Kep/2013 DOI: 10.12928/TELKOMNIKA.v11i3.991 481 Reduce NOx Emissions by Adsorber-Reduction Catalyst on Lean Burn Engine Dongpeng Yue1, Qing Chang2*, Lei Liu2, Wen Zhang2,3, Shaoshu Chen2, Zhijun Li2 1School of Automotive and Transportation,Tianjin University of Technology and Education, Tianjin 300222 2State Key Laboratory of Engines,Tianjin University,Tianjin 300072 3Tianjin electronic information vocational technology college,Tianjin 300350 *Corresponding author, e-mail: [email protected], Telp: +86 022 27406781, Fax: +86 022 27383362 Abstrak Pengaruh sistem katalis baru yang terdiri dari tiga cara tradisional konverter katalis dan adsorber- reduksi konverter katalisis pada karakteristik emisi dan BSFC (Breake Specific Fuel Consumption-BSFC) dari sebuah mesin bensin yang ramping untuk membakar diteliti dalam makalah in, dimana skema yang berbeda dari katalis pengaturan sebuah konverter dan kecepatan yang berbeda-beda dan juga bebannya. Hasil menunjukkan bahwa posisi terbaik dengan tiga cara Catalyst adalah sebelum NOx diserap oleh Catalyst dengan sebuah skema untuk mengatur konverter ternyata adalah cara terbaik. Dengan cara mengefisiensikan konverter dan mengurangi emisi NOx dalam mesin bensin tersebut. Dimana terdapat efek dari kecepatan pada emisi gas buang dan BSFC juga terkait dengan rasio pewaktuan dalam proses membakar dan nilai absolut dari kedua waktu dari konverter katalis tersebut. Beban mesin adalah faktor utama yang berpengaruh terhadap karakteristik emisi gas buang dan BSFC dari mesin tersebut. -
Application of Nox Adsorber to Diesel Depollution: Performances and Durability
Oil & Gas Science and Technology – Rev. IFP, Vol. 58 (2003), No. 1, pp. 129-149 Copyright © 2003, Éditions Technip Application of NOx Adsorber to Diesel Depollution: Performances and Durability J.B. Dementhon1, T. Colliou1, B. Martin1, M. Bouchez2, M. Guyon3, I. Messaoudi2, R. Noirot4, S. Michon5, C. Gérentet5 and L. Pierron5 1 Institut français du pétrole, 1 et 4, avenue de Bois-Préau, 92852 Rueil-Malmaison Cedex - France 2 Ségime, 104, avenue Kennedy, 75016 Paris - France 3 Renault, 1, allée Cornuel - 91510 Lardy - France 4 PSA Peugeot Citroën, 18, rue des Fauvelles, 92256 La Garenne-Colombes - France 5 Renault VI, DER 1 - BP 310, 68802 Saint-Priest Cedex - France [email protected] - [email protected] - [email protected] - [email protected] [email protected] - [email protected] - [email protected] [email protected] - [email protected] - [email protected] Résumé — Application des pièges à NOx à la dépollution Diesel : performances et durabilité — Dans le but d’assurer une optimisation globale des performances d’un moteur Diesel (NOx, particules, consommation), le recours à un système de post-traitement de NOx s’avère nécessaire pour satisfaire aux normes Euro IV et suivantes. Parmi les procédés connus, le piège à NOx peut offrir des niveaux d’efficacité comparables à la réduction par l’urée sans toutefois présenter les mêmes contraintes. Le piège fonctionne sur la base d’une alternance entre des phases de fonctionnement pauvres durant lesquelles les NOx sont stockés, et des phases riches durant lesquelles les nitrates sont déstockés et les NOx traités.