SPP TENDER MODEL. Sustainable transport. Zero emission social transportation services in Capelle aan

Similar documents
Electric minibuses. Three new minibuses for Brive, France. Supply contract for 3 electric minibuses. Awarded: February 2016

SPP TENDER MODEL. Electric buses. 20 Electric buses for Stolichen Avtotransport

SPP TENDER MODEL. Transport. Purchase of Environmentally friendly vehicles The Capital Region of Denmark

SPP TENDER MODEL. Transport. Joint procurement of charging points in Rotterdam

Efficient lighting. Savings:

PIVE 1 PIVE 2 PIVE 3 PIVE 4 PIVE 5 PIVE 6 PIVE 7 PIVE

SPP TENDER MODEL. Electric vehicles. Purchase of 8 small EV waste collection vehicles, with tipping tank. 8 electric vehicles for waste collection

Aberdeen Hydrogen Bus Project

SAN FRANCISCO MUNICIPAL TRANSPORTATION AGENCY

! " # $ % # & " ' % ( ' ) "

Low Emission Strategies Sussex-DEFRA Seminar, March 2011

Sofia Urban Transport challenges and strategies

Fleet Sustainability Policy

Curbing emissions and energy consumption in the transport sector how can we deal with it in Warsaw 2012 Annual POLIS Conference

1 YORK REGION TRANSIT EXTENSION OF EXISTING DIAL-A-RIDE PILOT PROJECT AND STOCK TRANSPORTATION SCHOOL BUS CONTRACTS

Austria. Advanced Motor Fuels Statistics

REPORT BUS TENDER STRUCTURE 3EDITION INCLUDING TENDERING FOR E-BUSES UITP TENDER STRUCTURE 1

CNG as a Transport Fuel - Economic Benefits 17 th November 2011

Introduce clean vehicles in a large fleet of urban buses

SUSTAINALBE URBAN MOBILITY PLAN A STRATEGY FOR ELECTRO-MOBILITY IN THE CITY MUNICIPALITY OF LJUBLJANA

Smart, subservient low-carbon public transport. Suvi Rihtniemi

ELENA Introduction and Update. European Investment Bank

B3. Incorporating innovation - How to plan for Alternative Fuel Infrastructure

HyLAW. HyDrail Rail Applications Assessment. Main Author(s): [Dainis Bošs, Latvian Hydrogen association] Contributor(s):

Low Emissions Towns and Cities Programme

Airbus Alternative Fuels

Electric School Bus Pilot Program - Webinar

1

CITY OF MINNEAPOLIS GREEN FLEET POLICY

Results of the High V.LO-City & HyTRANSIT projects

E-mobility in The Netherlands

Monitoring the CO 2 emissions from new passenger cars in the EU: summary of data for 2010

A CO2-fund for the transport industry: The case of Norway

Fuel Cells and Hydrogen 2 Joint Undertaking (FCH 2 JU) Frequently Asked Questions

Bus and coach transport for greening mobility

Energy Independence. tcbiomass 2013 The Path to Commercialization of Drop-in Cellulosic Transportation Fuels. Rural America Revitalization

Electric Vehicle Adoption in the South African Context

Procurement of electric vehicles

Challenges and solutions for transport in Norway

The UK s Industrial Strategy; the Automotive Sector Deal

Project introduction. Document prepared by: Element Energy. A project co-funded by under the Grant Agreement n and n.

Evaluating opportunities for soot-free, low-carbon bus fleets in Brazil: São Paulo case study

7th national report on promoting the use of biofuels and other renewable fuels in transport in Portugal Directive 2003/30/EC

The First Annual Municipal Electric Champion Awards

STAFF REPORT ACTION REQUIRED

Labelling Smart Roads DISCUSSION PAPER 4/2015

One City, One System: Integrating Public Urban Transportation in Coimbra

Worcester Public Schools Student Transportation Contract Proposed Bid Specification Change Summary Sheet

Tendering Public Charging Infrastructure for Electric Vehicles

Energy Innovation Emporium. Transport. Chair: Prof. John Nelson, Centre for Transport Research University of Aberdeen

Hamburg moving towards Electromobility. Dr. Sicco Rah Hanse-Office, Joint Representation of Hamburg and Schleswig-Holstein to the EU

Doing business with Petrobras - Procurement Strategies and Local Content. Policy.

E-Mobility in the City of Klagenfurt on Lake Wörthersee CEMOBIL project. Julia Zientek Austrian Mobility Research, FGM-AMOR Graz

Economic and Social Council

MESSAGES AND FOLLOW UP THE PEP RELAY RACE KLIMAAKTIV MOBIL CONFERENCE DECARBONISATION ZERO EMISSION MOBILITY STARTS TODAY VIENNA JULY 2016

Parking policies as a tool to foster sustainable urban mobility

PROMOTING THE UPTAKE OF ELECTRIC AND OTHER LOW EMISSION VEHICLES

EVALUATION OF MTC S CLIMATE PROGRAM. May 7, 2015 TRB Sustainability for Transportation

If I had asked people what they wanted, they would have said faster horses. Henry Ford. The role of public transport buses in the energy transition

Alternative Fuels Corridor Implementation. MARAMA Workshop Mark Hand, Pennsylvania Department of Environmental Protection March 20, 2019

Article 2.- The benefits offered by this Agreement to the automotive industries are aimed at:

Mobility as a Service regional pilots

DATE: June 12,2007 CONSTRUCTION AND MAINTENANCE CONTRACTS AND PURCHASING

Alternative and Renewable Fuel and Vehicle Technology Program. Advisory Committee Meeting

Rwanda Biofuels Limited. Powering Rwanda s Development

Participation of Beacon Power s Flywheel Energy Storage Technology in NYISO s Regulation Service Market

TEMPLATE OF THE NATIONAL REPORT

GEAR 2030 Working Group 1 Project Team 2 'Zero emission vehicles' DRAFT RECOMMENDATIONS

SAN FRANCISCO MUNICIPAL TRANSPORTATION AGENCY

Advancing Electric Buses In Metro Vancouver. David Cooper TransLink, Senior Planner, System Planning Vancouver, British Columbia

ATLAS PUBLIC POLICY WASHINGTON, DC USA PUBLISHED MAY 2017 VERSION 2.0

The Regional Municipality of York. Purchase of Six Battery Electric Buses

Electri-City Electri-Cité Elettri-Città. The challenge of deploying electromobility in European cities and regions

New Zealand Transport Outlook. VKT/Vehicle Numbers Model. November 2017

2018 American Zero Emission Bus Conference INNOVATIVE CLEAN TRANSIT PROPOSED REGULATION

ECTRI. URBAMOVE URBAn MObility initiative. Claudia Nobis (DLR) TRA 2006, Göteborg, Sweden June 13 th, 2006

Solano County Transit

Pilot Study for the introduction of Biofuels in the Lisbon area Portugal

Revision of the EU Green Public Procurement Criteria for Transport

DRAFT Evaluation Scores. Transit

Hydrogen & Fuel cells From current reality to 2025 and beyond

Cenex. State of Play on Demand Side Measures. Transform Project Meeting Rotterdam 3 rd December Cenex. Robert Evans CEO

On-road emission measurements with PEMS on a MERCEDES-BENZ ATEGO Euro VI N2 heavy-duty truck

Sustainable Transport Electric Vehicles

CITY OF LOS ANGELES DEPARTMENT OF AIRPORTS

Rural School Bus Pilot Project Applicant Webinar February 16, 2017 Grant Specific Q&A

Proposed FY Capital Improvement Program (CIP) March 5, 2018 Capital Planning Committee 1

Introduction to the Ultra Low Emission Zone

EU CO 2 emission policy : State of Play. European Commission, DG CLIMA. Climate Action

Supply and maintenance of energy efficient copiers and multifunctional devices (copier, fax, printer, scanner)

TABLE OF CONTENTS. Table of contents. Page ABSTRACT ACKNOWLEDGEMENTS TABLE OF TABLES TABLE OF FIGURES

4-6 October 2016 The NEC, Birmingham, UK. cleanenergylive.co.uk

RE: Comments on Proposed Mitigation Plan for the Volkswagen Environmental Mitigation Trust

ELIPTIC results & recommendations

California Low Emission Truck Policies and Plans

CIVITAS FORUM September 29 th Gdynia (PL) CTM Spa Cagliari - Italy

Ex-Ante Evaluation (for Japanese ODA Loan)

Incentives for Green Fleets

City Profile. Gdynia

Three ULTra Case Studies examples of the performance of the system in three different environments

Transcription:

SPP TENDER MODEL Sustainable transport Zero emission social transportation services in Capelle aan den IJssel Purchasing body: Municipality of Capelle aan den IJssel MRDH 1 region Netherlands Contract: 2 year 7 month contract for social transportation services with optional prolongation of 1 year Awarded: October 2016 Savings: 44.18 tons of CO 2 emissions saved per year SUMMARY Promotion of low emission vehicles for service delivery Deployment of electric passenger cars and CNG minivans and wheelchair buses Award criteria on optimising route efficiency through grouping and sequencing 1 Metropolitan Region of Rotterdam and The Hague Published: March 2018

Purchase strategy The purchasing process was led by the purchasing department of the municipality of Capelle aan den IJssel, one of the 23 municipalities in the MRDH region. It concerned the transportation of 150 students per year and the taxi service Capelle Hopper for inhabitants who are not able or are barely able to travel by public transport. Annually, the Capelle Hopper provides for about 50,000 rides. Capelle aan den IJssel published the European tender on 30 June 2016 via Tenderned. The contract was awarded on 27 October 2016 on the basis of the most economically advantageous tender (Economisch Meest Voordelige Inschrijving: EMVI). Needs analysis For this framework agreement the municipality analysed how many rides were registered for the use of the CapelleHopper between May 2015 and April 2016. In that period 51,569 rides were carried out for inhabitants with a transport disability. There was additionally transport for 150 pupils who are not able to travel to school independently. ENERGY AND CLIMATE POLICY The municipality of Capelle aan den IJssel is implementing an active Energy and Climate policy, see https://www.capelleaandenijssel.nl/wonenverkeer-en-veiligheid/duurzaamheid_3533/. Among other things, in the coming years the municipality will proceed with making the municipal buildings energy efficient and sustainable, will keep deploying electric vehicles, will deal with sustainable purchasing and apply energy efficient LED lighting. In the field of transportation, the municipality wishes to stimulate the use of alternative fuel vehicles (natural gas and electricity), improve traffic flow, reduce total kilometres travelled, increase bicycle use, and install 60 new EV charging stations. In addition to environmental benefits, this policy should yield financial savings. Evaluation approach In line with the energy and climate policy aims of Capelle aan den Ijssel it was decided to promote the use of lower emission vehicles in the carrying out of the social transportation service. To achieve this, compliant bids were evaluated partly on the vehicle type (e.g. hydrogen, electric, gasoline, biofuel etc.) in carrying out the service over the duration of the contract the greater the percentage of zero emission vehicles (fully electric and hydrogen) deployed for the service, the better the evaluation. Each bidder was asked to define the types of vehicles which they would deploy. In the evaluation different weighting was given to different types of vehicle divided by emission class and vehicle category. As the taxi bus is the most used vehicle in the service, this was given the highest weighting.

Tender specifications and Verification TECHNICAL SPECIFICATION Provision of transport services for school children and disabled people on a pay per use basis Operation of a dispatch centre Contribution to exploring the possibility for the future integration of the social transportation and public transport services Tenderer must provide monitoring information including the number of rides, and the origin/destination of each ride AWARD CRITERIA Price (40%) Implementation plan for carrying out the service (including a description of responsibilities, and communication methods with both the municipality and the users of the service (10%) Sustainability of vehicles (15%) Action plan of for increasing the efficiency and load factor of transportation, through combining transportation for different client groups, and optimising routing (35%) VERIFICATION Concerning the sustainability aspects, the tenderer should present a breakdown of which vehicles (type and emission class) will be used in delivering the service (see table below). Vehicle registration documents must be provided to prove emission class. Tenderers could earn up to 1000 points. There are 2 weighting factors. The one for vehicle type is based on expected frequency of use: vehicle type weighting factor passenger car 1 mini van (9 persons) 8 wheelchair bus 1 Total 10 Then, a weighting factor is given according to the desirability of the emission class: weighting Emission class factor full electric 1 hydrogen 1 gasoline 0,8 bio-ethanol E85 0,8 compressed natural 0,8

gas liquid petroleum gas 0,6 diesel EURO 6 0,4 diesel EURO 5 0 Calculation procedure: The tenderer provides a percentage of vehicle use per year. These percentages are then multiplied with the weighting factors for vehicle type and emission class, resulting in a total score per year. The scores per year are summed and divided by the duration of the contract (in this case 3), leading to an average score for sustainability.

Results Environment effects The winning tender will use 100% electric passenger cars during the entire contract period. In addition the company will use natural gas (CNG) powered mini vans and Euro VI wheelchair buses. To calculate the savings we assume 25% of total kilometres are driven by passenger car. This results in an estimated annual reduction of 44.18 tonnes CO 2 emissions. Primary energy consumption increases slightly however, likely due to a lower combustion engine efficiency when working with CNG and the greater weight of the vehicles due to the heavier tanks used for CNG storage. The calculated effect is presented in Table 1. Table 1: Environmental savings Tender Consumption (l/yr, kwh/yr, Nm 3 /yr) CO 2 emissions (tonnes/year) Primary Energy consumption (GWh/year) Benchmark 726 2.63 Diesel 261.576 721 2.62 Petroleum 2.076 6 0.02 Green tender 682,12 2.74 CNG 270.295 679 2.61 Electricity 5.190 2,73 0.03 Savings 44.18 (6%) -0.102 (-4%) CALCULATION BASIS Number of passenger rides: 50,000 (average in 2016) Estimated number of kilometres driven per passenger (community transport): 7 kilometers with an estimated utilization rate per vehicle of 1.2 2 ; total kilometres driven (community transport) = 7*50,000/1.2=292,000 kilometres Estimated number of kilometers driven per pupil (school transport): 9 kilometers (average) 3 2 Source: Zijlstra, T, en P. Bakker (2016). Cijfers en prognoses voor het doelgroepenvervoer in Nederland. Kennisinstituut voor Mobiliteitsbeleid 3 idem

with an estimated utilization rate per vehicle of 5; 150 pupils; average school year 40 weeks; estimated number of kilometers driven to schools: total kilometres driven = 150 * 9/5 * 5 days * 40 weeks = 54,000 kilometres Vehicle allocation (kilometers driven): 10% passenger cars, 80% taxi minivans; 10% wheelchair bus; 4 The energy savings by deployment of electric passenger cars are calculated by comparing them with the situation that all kilometres driven are being executed with a EURO 5 diesel. Average fuel consumption of the existing diesel minivans - 9 l/100km Average fuel consumption of the existing diesel wheelchair bus - 12 l/100km Average fuel consumption of the existing petroleum cars - 6 l/100 km Average fuel consumption of the new CNG minivans - 9.3 Nm 3 /yr (1 kg = 1,4 Nm 3 ) Average fuel consumption of the new CNG wheelchair bus - 12.1 Nm 3 /yr (1 kg = 1,4 Nm 3 ) Average fuel consumption of the new electric car - 15 kwh/100 km Calculation made using the tool developed within the GPP 2020 project (www.gpp2020.eu), and refined within the SPP Regions project. Available on the SPP Regions website. (More detailed calculation tables are included in the Annex below) Financial impacts No financial impacts. The winning bid had overall the best score. Market response There were 7 tenderers. De Vier Gewesten Personenvervoer (Four Regions Passenger Transport) with subcontractor the Haars Groep had overall the best price and quality. Relative to the former contracts it is new that the target groups are allowed to be combined. All passenger cars of the winning tender are going to drive electric at the commencement of the contract. 4 This assumption is based on the fleet management report of the social transport contract in Rotterdam in 2016.

Contract management In order to check the provided data the tenderer to whom the assignment is going to be awarded has to provide the following documents of all vehicles to be placed in that year, no later than 15 December before the commencement of the new contract year: - Copy of vehicle registration 1A; - Copy of vehicle registration 1B. Evaluation and challenges for the future The bid that offered the highest score on zero emission transportation did not win the tender. This company promised to use 100% electric passenger cars in 2017, 50% EV taxi minivans in 2018 and 100% in 2019. The remaining part was entirely done by CNG powered vehicles. Apparently there was a significant trade off with other quality aspects. The tender is reviewed according the extent and speed in which the fleet of the tenderer is developing to zero emission. With this approach the municipality of Capelle aan den IJssel is buying a promise for the future. It is important that the contract manager is testing the actual deployment of these vehicles by means of updated ride data. However, the growth model for electric taxi transport also depends on the (expected) market supply. It is expected that the amount of available taxi buses from 2019 will be sufficient to carry out transport entirely zero emission. The supply of suitable vehicles for wheelchair transport is uncertain. Possibly the supply of electric or hydrogen operated wheelchair buses will improve when more municipalities apply the approach of Capelle aan den IJssel. Make sure that you are clear about the definition of vehicle type, in particular for the wheelchair bus. In addition, it is important to create sufficient fast charging facilities. CONTACT Afdeling inkoop (aanbesteding@capelleaandenijssel.nl ) Capelle aan den IJSSEL, Purchasing department

Annex 1 - Calculation of environmental savings Calculations made using the tool developed within the GPP 2020 project (www.gpp2020.eu), and refined within the SPP Regions project. Available on the SPP Regions website.

About SPP Regions SPP Regions is promoting the creation and expansion of 7 European regional networks of municipalities working together on sustainable public procurement (SPP) and public procurement of innovation (PPI). The regional networks are collaborating directly on tendering for eco-innovative solutions, whilst building capacities and transferring skills and knowledge through their SPP and PPI activities. The 42 tenders within the project will achieve 54.3 GWH/year primary energy savings and trigger 45 GWh/year renewable energy. SPP REGIONS PARTNERS This project has received funding from the European Union's Horizon 2020 research and innovation programme under grant agreement No 649718.The sole responsibility for any error or omissions lies with the editor. The content does not necessarily reflect the opinion of the European Commission. The European Commission is also not responsible for any use that may be made of the information contained herein.