4. Steel is the most recycled material in the world
► The amount of recycled
steel is more than all
other materials together
► Steel can be recycled
fully and indefinitely
without loss of quality
0
50
100
150
200
250
300
350
400
450
500
550
600
650
S
teel
P
aper
G
lass
W
ood
P
lasticA
lum
inium
Millionmetrictonnes
Source: worldsteel 2012, Recycling of industrial materials in 2010
Mass of materials recycled globally
7. Most CO2 efficient steel production in the world
7
0
20
40
60
80
100
120
140
160
SSAB
EU15
NAFTA
Russia
China
India
Source:Stahl-Zentrum.*Theindexedcarbonefficiencyiniron-makingbasedoncoalconsumed2012
If the SSAB steel production is
moved from the Nordics to
China emissions will increase by
2 200 000 tons
or the equivalent of
1 100 000 cars
driving 15 000 km/year
11 % 16 %
26 %
42 %
7 %
8. Two ways to make steel from iron ore today
8
HYBRIT – fossil-free steelmaking
2016-2017
Pre-feasibility Study
2018-2024
Feasibility StudyPilot plant trials
2025-2035
Demonstration Plant Trials
HYBRIT would eliminate ~90% of SSAB’s total CO2 emissions
11. SSAB’s sustainability strategy and objectives are divided
into three focus areas
11
Fossil-free 2045
SSAB will stepwise move toward a fossil-free steelmaking process through
the HYBRIT initiative and eliminate other fossil fuel related emissions, making it
possible to be fossil free within the entire operation
SSAB manages
risks and takes responsibility
for business ethics and
responsible sourcing, and
continuously strive to improve
safety, diversity and employer
attractiveness
10 Mtonne annual customer CO2 savings 2025
By using SSAB’s high-strength steels,
customers can achieve CO2 savings during
their end product’s use-phase that are as
large as SSAB´s direct production emissions
12. Value creation in network
►Every individual steel product
has a unique ID
►Relevant data, experience and
knowledge connected to ID
►Smart processes can read, use
and add data
►Data available to all stake holders
►Building product and business ecosystems
Cumulative data
repository
Smart factory
Distribution
Manufacturing
Maintenance
Re-cycling
Quality validation
Operation
Editor's Notes
Steel can be recycled without loss of quality. Because metallic bonds are restored upon resolidification, metals continually recover their original performance properties, even after multiple recycling loops. This allows them to be used again and again for the same application. By contrast, the performance characteristics of most non-metallic materials degrade after recycling.
Steel is fully and indefinitely recycled. At the end of their useful life, products containing steel can be converted back into new and better steels ready for other, often more demanding applications. Almost half of the current world steel production is made using recycled steel. Steel is the world’s most recycled material. Steel can be easily separated from other industrial and domestic waste products by magnetic techniques. The infrastructure for recycling steel throughout the world is well established. There is no limit to the amount of steel that can be recycled. Steel can be recycled many times and there is no degradation of its properties each time it is recycled. Even rusty steels can be recycled very efficiently.
At the end of life, steel components can be recycled in the Electric Arc Furnace and Basic Oxygen Furnace steelmaking processes to make new steel for a different application, or foundry industries; re-used, e.g. by dismantling components from scrap vehicles and fitting them to another car or the cladding on a building can be removed and used for another structure, and Re-manufactured, e.g. by taking a beam or column from a building at the end of its life and cutting or shaping it for another building or use.
It is estimated that over 99% of the steel in a car is recycled and typically 84% of the steel in a demolished building is recycled and 10% is reused.
It is estimated that over 68% of steel cans are recycled. Recycling 7 steel cans saves enough energy to power a 60 watt light bulb for 26 hours.
(steeluniversity.org)
Source: Jernkontoret samt http://decarboni.se/sites/default/files/publications/15671/global-technology-roadmap-ccs-industry-steel-sectoral-report.pdf
2 600 000 CARS IN FINLAND IN USE TODAY
More than 90 percent of the environmental loading in the transport sector occurs when the vehicle is in use.
So it is important for the steel industry to consider the whole life cycle of steel and offer both steel products and application knowledge that can minimize the environmental loading.
Weight-critical design, which means that the use of high strength steel leads to weight reduction, so that the payload can be increased correspondingly.
For timber trucks, the weight reduction can be directly translated into a corresponding increase in payload.
Previous, current and future development work is estimated to produce a weight reduction of about 10 percent.
Advanced high strength steels play a key role in this development.
A weight reduction of 10 percent corresponds to a payload increase of 2 tonnes - assume that the tare weight/kerb weight of the vehicle is 20 tonnes and the payload capacity is 40 tonnes, which adds up to a gross vehicle weight of 60 tonnes. The payload would thus increase by 5 percent.
This increase in payload means that a further 10 saw timber logs can be carried on every trip.
The total distance travelled will thus be reduced by 5 percent.
This corresponds to a saving in environmental loading by the vehicle fuel equivalent to 90 000 kilometres over the 10-year useful life of the timber truck.
Lets go through the concept with this simplified picture and start when the steel leaves the mill.
Övertygelsen är att nästa generations konkurrensfördel kommer att utvecklas inom en produkts "ekosystem", inte i enskilda företag. I stället för nuvarande produkt- och tjänsteportfölj kommer de nya framgångsfaktorerna att baseras på affärsplattformar som nyttiggör informationsflöden, flexibla samarbeten och nya roller. M a o plattformar som bygger på nya värden genom data och nätverk där ökande automation och autonoma processer kräver ett digitaliserat och gränslöst dataflöde mellan olika företag.
Nya affärsmodeller växer fram
”Design for recycling”
Minska miljöpåverkan under alla steg i produkters livscykel
Minska materialanvändningen och minimera avfallet
Gå från slit och släng till att återanvända, laga och reparera
Avfall ses som en tillgång som kan återvinnas
Ökat fokus inom EU på att minska mängden avfall (Circular Economy Strategy)