SAFETY ALL AROUND the New Mercedes-Benz Actros
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Emergency Steer & Brake Assist – a Systematic Approach for System Integration of Two Complementary Driver Assistance Syste
EMERGENCY STEER & BRAKE ASSIST – A SYSTEMATIC APPROACH FOR SYSTEM INTEGRATION OF TWO COMPLEMENTARY DRIVER ASSISTANCE SYSTEMS Alfred Eckert Bernd Hartmann Martin Sevenich Dr. Peter E. Rieth Continental AG Germany Paper Number 11-0111 ABSTRACT optimized trajectory. In this respect and beside all technical and physical aspects, the human factor plays a major role for the development of this Advanced Driver Assistance Systems (ADAS) integral assistance concept. Basis for the assist the driver during the driving task to improve development of this assistance concept were subject the driving comfort and therefore indirectly traffic driver vehicle tests to study the typical driver safety, ACC (Adaptive Cruise Control) is a typical behavior in emergency situations. Objective example for a “Comfort ADAS” system. “Safety was on the one hand to analyze the relevant ADAS” directly target the improvement of safety, parameters influencing the driver decision for brake such as a forward collision warning or other and/or steer maneuvers. On the other hand the systems which assist the driver during an evaluation should result in a proposal for a emergency situation. A typical application for a preferable test setup, which can be used for use case “Safety ADAS” is EBA (Emergency Brake Assist), evasion and/or braking tests to clearly evaluate the which additionally integrates information of benefit of the system and the acceptance of normal surrounding sensors into the system function. drivers. Definition of assistance levels, warnings While systems in the longitudinal direction, such as and intervention cascade, based on physical aspects EBA, have achieved a high development status and and an analysis of driver behavior using objective are already available in the market (e.g. -
Investor Presentation April 2020 (Fact Book 2019)
Bitte decken Sie die schraffierte Fläche mit einem Bild ab. Please cover the shaded area with a picture. (24.4 x 7.6 cm) Investor Presentation April 2020 (Fact Book 2019) www.continental.com Investor Relations Agenda 1 Continental at a Glance 2 2 Strategy 13 3 Automotive Group 24 3.1 Chassis & Safety → Autonomous Mobility and Safety 34 3.2 Interior → Vehicle Networking and Information 48 3.3 Powertrain → Vitesco Technologies 60 4 Rubber Group 63 4.1 Tires 69 4.2 ContiTech 83 5 Corporate Governance 91 6 Sustainability 101 7 Shares and Bonds 113 8 Glossary 120 2 Investor Presentation, April 2020 © Continental AG 1 | Continental at a Glance One of the World’s Leading Technology Companies for Mobility › Continental develops pioneering technologies and services for sustainable and €44.5 billion connected mobility of people and their goods. 2019 sales › We offer safe, efficient, intelligent, and affordable solutions for vehicles, machines, traffic and transportation. › Continental was founded in 1871 and is headquartered in Hanover, Germany. 241,458 employees (December 31, 2019) 2019 sales by group Rubber Group 595 Locations 40% in 59 countries and markets (December 31, 2019) Automotive Group 60% 3 Investor Presentation, April 2020 © Continental AG 1 | Continental at a Glance Founded in 1871, Expanding into Automotive Electronics Since 1998 Continental-Caoutchouc- and Continental expands its activities in telematics Continental expands Gutta-Percha Compagnie is and other fields by acquiring the automotive Continental expands its expertise in founded in Hanover, Germany. electronics business from Motorola. software and systems vehicle antennas by expertise through the acquiring Kathrein Acquisition of a US Continental reinforces its acquisition of Elektrobit. -
Pedestrian and Bicyclist Traffic Safety Research Projects 1969-2007
NATIONAL HIGHWAY TRAFFIC SAFETY ADMINISTRATION A Compendium of NHTSA’s Pedestrian and Bicyclist Traffic Safety Research Projects 1969-2007 This publication is distributed by the U.S. Department of Transportation, National Highway Traffic Safety Administration, in the interest of information exchange. The opinions, findings, and conclusions expressed in this publication are those of the authors and not necessarily those of the Department of Transportation or the National Highway Traffic Safety Administration. The United States Government assumes no liability for its contents or use thereof. If trade or manufacturers' names or products are mentioned, it is because they are considered essential to the object of the publication and should not be construed as an endorsement. The United States Government does not endorse products or manufacturers. Cover photograph of pedestrians by Dan Burden, www.pedbikeimages.org ii iii Technical Report Documentation Page 1. Report No. 2. Government Accession No. 3. Recipient’s Catalog No. DOT HS 810 793 4. Title and Subject 5. Report Date A Compendium of NHTSA Pedestrian and Bicyclist Research Projects: July 2007 1969 – 2007 6. Performing Organization Code 7. Author(s) 8. Performing Organization Report No. Arlene M. Cleven and Richard D. Blomberg 9. Performing Organization Name and Address 10. Work Unit No. (TRAIS) Dunlap and Associates, Inc. 110 Lenox Avenue 11. Contract or Grant No. Stamford, CT 06906 DTNH22-99-D-05099, Task Order 7 12. Sponsoring Agency Name and Address 13. Type of Report and Period Covered Final Report U.S. Department of Transportation 12/22/03 – 12/22/05 National Highway Traffic Safety Administration 14. -
Facts & Figures 2016
SensePlanAct Facts & Figures 2016 Chassis & Safety SensePlanAct Contents 2 3 04 Chassis & Safety Division 52 Chassis & position sensors 04 SensePlanAct – Intelligent controls for 54 Engine and transmission speed sensors the mobility of today and tomorrow 56 Electronic control units for various applications 06 Key Figures – an Overview 58 Service Provider for Integrated Safety 08 Continental Corporation 10 Continental Careers 60 Driver Assistance Systems 61 Emergency Brake Assist 12 Automated Driving 62 Adaptive Cruise Control 62 Surround View 14 Vehicle Dynamics 63 Mirror Replacement 14 Chassis Domain Control Unit 63 Blind Spot Detection 14 Chassis control units for vertical dynamics 63 Rear Cross Traffic Alert (RCTA) 15 Electronic air suspension systems 64 Traffic Sign Recognition 15 Dynamic Body Roll Stabilization 65 Lane Departure Warning 17 Electronic brakes for controlling driving dynamics 65 Intelligent Headlamp Control 17 MK 100 – the new generation of electronic brakes 65 Combined sensors for more complex driving situations 21 Additional added value functions of the electronic brake 21 MK C1 – more dynamic and efficient braking through integration 66 Quality 22 Safety on two wheels – Electronic Brake Systems for motorcycles 68 Worldwide Locations 24 Hydraulic Brake Systems 70 Locations in Germany 24 Continental disc brakes – high-performance in all situations 72 Locations in Europe 26 Drum brake 74 Locations in the Americas 26 Parking brake systems 76 Locations in Asia 29 Brake actuation and brake assist systems 31 Brake assist -
Public Support Measures for Connected and Automated Driving
Public support measures for connected and automated driving PUBLIC SUPPORT MEASURES FOR CONNECTED AND AUTOMATED DRIVING Final Report Tender No. GROW-SME-15-C-N102 within the Framework contract No. ENTR/300/PP/2013/FC Written by SPI, VTT and ECORYS May - 2017 Page | i Public support measures for connected and automated driving Europe Direct is a service to help you find answers to your questions about the European Union. Freephone number (*): 00 800 6 7 8 9 10 11 (*) The information given is free, as are most calls (though some operators, phone boxes or hotels may charge you). Reference No. GROW-SME-15-C-N102 Framework contract No. ENTR/300/PP/2013/FC 300/PP/2013/FC The information and views set out in this study are those of the authors and do not necessarily reflect the official opinion of the European Commission. The European Commission does not guarantee the accuracy of the data included in this study. Neither the European Commission nor any person acting on the European Commission’s behalf may be held responsible for the use which may be made of the information contained herein. More information on the European Union is available on the Internet (http://www.europa.eu). ISBN 978-92-9202-254-9 doi: 10.2826/083361 AUTHORS OF THE STUDY Sociedade Portuguesa de Inovação (SPI – Coordinator): Augusto Medina, Audry Maulana, Douglas Thompson, Nishant Shandilya and Samuel Almeida. VTT Technical Research Centre of Finland (VTT): Aki Aapaoja and Matti Kutila. ECORYS: Erik Merkus and Koen Vervoort Page | ii Public support measures for connected and automated driving Contents Acronym Glossary ................................................................................................ -
Alpr & Traffic Vision
ALPR & TRAFFIC VISION +34 916 510 644 I www.lectorvision.com I [email protected] www.lectorvision.com ALPR & TRAFFIC VISION LECTOR VISON Designs, develops, and manufactures Artificial Vision systems, namely for Automatic Number Plate Recognition, applied to road safety, car park management, traffic control and security increase. We manufacture “All in One” License Plate Recognition units for parking, tolls, ITS and enforcement We develop the software for Automatic Number Plate Recognition (based on our own neural networks), car park management applications, restricted area access, traffic management and customized applications with a high technological value. Lector Vision is a part of the Group Tradesegur – Siaisa, which started its activity in 1944, having focus its activity in the technological field. Who we are The group has over 100 employees distributed along three delegations, offering full national and international support. Our R&D department develops hardware & software solutions on demand to adjusy with our client’s needs. We are specialists in consultancy, development and deployment of efficient and innovative projects and solutions. With over 30 years of experience on ITS safety and Parking Access control, and being loyal to our compromise of giving an integral service to our clients, we are one of main groups in Systems for Citizen Security. [email protected] ALPR & TRAFFIC VISION Our team is composed by a group of people with a multidisciplinary technical education, with more than 15 years of experience and a deep knowledge of the sector. This allows us to understand the needs of our clients and to give them solutions to specific problems, not just providing standard products, helping our clients to generate “added value” in the markets in which they operate. -
A Study of a Traffic Controlling Robot for Safer Work Zones
A Study of a Traffic Controlling Robot for Safer Work Zones Interactive Qualifying Project Submitted for Approval to: Professor El-Korchi and Professor Mallick May 17, 2020 Team Members: Benjamin Bushe Thomas Feraco Ella Forbes Isaac Stilwell Jacob Vanscoy 1 Table of Contents Abstract 5 Introduction 5 Literature Review 6 Current Practices 6 Use of Flaggers 6 Automated Flagger Assistance Device (AFAD) 7 Wearables for Roadside Construction Workers 8 Artificial Intelligence 9 Intelligent Transportation Systems 10 RFID Technology 11 LiDAR 11 Airport Runway Traffic Safety 12 Safety 12 Resilience 17 Sustainability 18 Legal Aspects 19 Objective 20 Methodology 21 Results 30 WPI Community Survey Responses 31 DOT Representative Survey Responses 36 Analysis 42 Conclusion 44 References 46 Appendix 50 Appendix 1: Design Flow Chart 50 Appendix 2: Survey Questions for Construction Companies and Contractors 51 Appendix 3: Survey Questions for DOTs 53 Appendix 4: Survey Questions for WPI Community 54 Appendix 5: Questions for Professor Pinciroli 56 2 List of Figures Figure 1: Automated Flagger Assistance device from MnDOT. Figure 2: Amazon’s wearable Robotic Tech Vest Figure 3: MOBOTIX M73 model camera Figure 4: ITS Queue Detector Figure 5: ITS Variable Message Display Figure 6: How traFFic is controlled during construction on a roadway Figure 7: Human Flagger signal and movements Figure 8: Construction on I-95 Southbound, Florida Figure 9: Accident on I-95, southbound Florida Figure 10: Nighttime construction I-96 South, Florida Figure 11: Passing Vehicles -
An Evaluation of the Effectiveness of School Zone Flashers
An Evaluation of the Effectiveness of School Zone Flashers Documents Prepared By: Safety Evaluation Group Traffic Safety Systems Management Section Traffic Engineering and Safety Systems Branch North Carolina Department of Transportation Principal Investigator _______________________________ __6/5/07________ Carrie L. Simpson, PE Date Traffic Safety Project Engineer Executive Summary This report summarizes the effectiveness of placing flashing beacons on school zone speed limit signs to improve speed compliance in school zones. A sample set of fifteen treatment school zones with flashers and fifteen comparison school zones without flashers were selected for analysis throughout North Carolina. Speed data was collected at all sites during the reduced speed school zone hours of operation (school time) and outside the reduced speed school zone hours of operation (non-school time). The school time speed limits at all sites ranged between 25 mph to 45 mph. An evaluation of the treatment and comparison sites yield the following results: x The speed distributions of both flasher and non-flasher locations were similar during the school time. It appears there was no practical difference in vehicle speeds between the flasher and non- flasher locations during school time hours. x At the flasher sites, 5.6 percent fewer vehicles exceeded the speed limit and average speeds were 0.4 mph less than the non-flasher sites during school time. The 85th percentile speed was 0.1 mph higher at the flasher locations and the pace speeds were the same during school time. x There was an 11.8 percent greater compliance to 35-mph or greater school time speed limits at flasher sites than non-flasher sites. -
Active Work Zone Safety Using Emerging Technologies 2017
Active Work Zone Safety Using Emerging Technologies 2017 By Dr. Eric Marks, Dr. Stephanie Vereen, Ibukun Awolusi Department of Civil, Construction, and Environmental Engineering The University of Alabama Tuscaloosa, Alabama Prepared by UTCA University Transportation Center for Alabama The University of Alabama, The University of Alabama at Birmingham, and The University of Alabama in Huntsville UTCA Report Number 15412 July 2017 UTCA Theme: Management and Safety of Transportation Systems University Transportation Center for Alabama About UTCA The University Transportation Center for Alabama (UTCA) is headquartered in the Department of Civil, Construction, and Environmental Engineering at the University of Alabama (UA). Interdisciplinary faculty members perform research, education, and technology-transfer projects using funds provided by UTCA and external sponsors. Mission Statement and Strategic Plan The mission of UTCA is “to advance the technology and expertise in the multiple disciplines that comprise transportation through the mechanisms of education, research, and technology transfer while serving as a university-based center of excellence.” The UTCA strategic plan contains six goals that support this mission: Education – conduct a multidisciplinary program of coursework and experiential learning that reinforces the theme of transportation; Human Resources – increase the number of students, faculty and staff who are attracted to and substantively involved in the undergraduate, graduate, and professional programs of UTCA; Diversity -
Cars in the Future Policy Paper - January 2007
CARS IN THE FUTURE POLICY PAPER January 2007 THE ROYAL SOCIETY FOR THE PREVENTION OF ACCIDENTS CARS IN THE FUTURE POLICY PAPER - JANUARY 2007 CONTENTS 1 INTRODUCTION ..........................................................................................5 1.1 Summary: What does the future hold for the driver?........................................5 1.2 Background: Where we are today........................................................................6 1.3 The Purpose of this Paper .....................................................................................7 1.4 How the Vehicle can Prevent Accidents and Injuries in the Future .................8 2 ACTIVE SAFETY........................................................................................10 2.1 Active Safety Systems in 2006.............................................................................12 2.1.1 The Future of Active Safety............................................................................13 2.2 Specific Active Safety Devices.............................................................................14 2.2.1 Antilock Braking Systems (ABS)...................................................................14 2.2.2 Electronic Stability Control (ESC) .................................................................14 2.2.3 Brake Assist ....................................................................................................16 2.2.4 Adaptive Cruise Control .................................................................................16 -
Pedbikecrashtypes.Pdf
Technical Report Documentation Page 1. Keport 1"0. l. \ioyemment Ace....'" 1"0. J. Rodp...,1 • CataloK No. FHWA-RD-95-163 4. Tille lIIld Subtitle 5. Keport Dale PEDESTRIAN AND BICYCLE CRASH TYPES OF June 1996 THE EARLY 1990'S 6. Yerfomunl lJrpniZa'- Code 8. Pcrt"DnIUIII OI'pniZatlon Report No. 7. Aulhor(.) William W. Hunter, Jane C. Stutts, Wayne E. Pein and Chante L. Cox ~. I ' I"ame lIIld Add"'"" lU. WOrk unit 1"0. \TKAlll) Highway Safety Research Center 3A4b University of North Carolina u. Contract or Gnnt No. CB #3430, 730 Airport Road DTFH61-92-Y-30048 Chapel Hill, NC 27599-3430 u. Spansonnl ....I0Il.,. !'lame lIIld Ad_ 1.>. lype or Keporl ana renoa "overea Office of Safety and Traffic Operations R&D Research Report Federal Highway Administration 8/92 - 2/95 6300 Georgetown Pike 14. Spoasonnl Aaen<1 Code McLean, VA 22101-2296 1'. ~upp_enlar11"_ Contracting Officer's Teclmical Representatives (COTR's) Justin True and Carol Tan (HSR-20) 16. Abstract The purpose of this research was to apply the basic NHTSA pedestrian and bicyclist typologies to a sample of recent crashes and to refme and update the crash type distributions with particular attention to roadway and locational factors. Five thousand pedestrian- and 3,000 bicycle-motor vehicle crashes were coded in a population-based sample drawn from the States of California, Florida, Maryland, Minnesota, North Carolina, and Utah. Nearly a third of the pedes trians were struck at or near (within 16 m (50 ft) of an intersection. Midblock events were the second major pedestrian crash type grouping, representing over a fourth (26 percent) of all crashes. -
Roadway Design Manual (RDW)
Roadway Design Manual Revised July 2020 © 2020 by Texas Department of Transportation (512) 463-8630 all rights reserved Manual Notice 2020-1 From: Camille Thomason, P.E Manual: Roadway Design Manual Effective Date: July 01, 2020 Purpose The Roadway Design Manual has been revised to update roadway policy in accordance with FHWA guidelines and with comments received from Design Division, other Divisions, and TxDOT's 25 Districts. As a result, revisions were made to Chapters 1-8 and Appendices A, B and C. Also, new Appendices D, and E were added to the manual, that is, Right Turn Slip Lane Design Guidelines and Alternative Intersections and Interchanges, respectively. Likewise, minor errata type corrections and edits were made throughout the manual. Contents Chapter 1 Section 1: Revised Roadway Design Manual Format for chapters 7, 8, Appendix C, and to include the addition of Appendices D, and E. Under External Reference Documents, updated references. Section 2: Revised controlling criteria per FHWA guidance for Design Exceptions, Waivers, and Variances. Reduced controlling criteria from 13 to 10. Under Design Exceptions, added guidance that 4' minimum width is required for new bike lanes. Widths less than 4' will require a design exception. Under Design Exceptions, added guidance that design exceptions for bridge rails shall be sent to Bridge Division. Under Design Waivers, removed "non-controlling criteria for the" from introductory sentence. Under Design Waivers, removed requirement for copy of documentation being furnished to Design Division. Under Design Waivers, added "Shared Use Paths (if this is the chosen Bicycle/Ped facility)" to 4R. Under Special Facilities, moved sentence "Design waivers are not applicable…" to the bottom of the section.