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Copyright sustainableIT® 2015 1
Reunert Limited
Greenhouse Gas Assessment for the financial year ending 30 September
2015
3rd December 2015
The Carbon Report | powered by sustainableIT®
Copyright sustainableIT® 2015 2
Table of Contents
Greenhouse Gas Assessment 1 October 2014 to 30 September 2015 ................................................... 3
Executive Summary ............................................................................................................................. 3
Inventory boundary and scope of assessment ................................................................................... 8
Scope 1 and Scope 2 exclusions ........................................................................................................ 13
Scope 3 clarification .......................................................................................................................... 13
Greenhouse gas emission inventory detail with calculations ........................................................... 14
Greenhouse Gas Equivalencies ......................................................................................................... 26
Exposure to proposed carbon taxation ............................................................................................ 26
Understanding uncertainty and disclaimer .......................................................................................... 28
Contact details ...................................................................................................................................... 29
Abbreviations ........................................................................................................................................ 30
Glossary of terms .................................................................................................................................. 31
References ............................................................................................................................................ 32
Appendix A: Methodology .................................................................................................................... 33
Greenhouse Gas Protocol Corporate Accounting and Reporting Standard ..................................... 33
Guiding Principles ............................................................................................................................. 34
Appendix B: Base year and base year recalculation/adjustment policies ............................................ 36
Selection of base year ....................................................................................................................... 36
Base year adjustments ...................................................................................................................... 36
Copyright sustainableIT® 2015 3
Greenhouse Gas Assessment 1 October 2014 to 30 September 2015
Executive Summary The Reunert group manages a diversified portfolio of businesses in the fields of electrical
engineering, information and communication technologies and defence and allied technologies.
Established in 1888 and first listed on the JSE in 1948, Reunert Limited is a leading South African
company. The group is listed in the industrial goods and services (electronic and electrical
equipment) sector of the JSE. The group operates mainly in South Africa with minor operations
situated in Australia, Lesotho, Sweden, USA and Zimbabwe. Reunert currently manages three main
operating segments: Electrical Engineering, Information Communication Technologies (ICT) and
Applied Electronics.
This report reflects the greenhouse gas emissions of Reunert Limited for the financial year ending 30
September 2015 based on the Greenhouse Gas Protocol Corporate Accounting and Reporting
Standard1, herein referred to as the GHG Protocol. Reunert Limited’s 2014/2015 greenhouse gas
emissions by scope were as follows:
Table 1: Total greenhouse gas emissions by Scope
GHG Emissions by Scope metric tonnes CO2e % increase/decrease
from PFY
Scope 1 6 099.97 -20%
Reunert Limited2 6034.42
Joint venture3 65.55
Scope 2 44 015.99 -14%
Reunert Limited2 40 245.04
Joint venture3 3 770.95
Total Scope 1 & 2 50 115.96 -15%
Reunert Limited2 46 279.46
Joint venture3 3 836.50
Scope 3 131 325.02 +49%
Total Scope 1, 2 & 3 181 440.98 +23%
1 See Appendix A.
2 Includes Reunert parent company and subsidiaries under financial control.
3 Refers to joint venture CBI-electric: Aberdare ATC Telecom Cables (Pty) Limited.
Copyright sustainableIT® 2015 4
Figure 1: Graph illustrating distribution of total greenhouse gas emissions by scope.
Table 2: Greenhouse gas emissions by Scope by entity
GHG emissions by entity by Scope
metric tonnes CO2e
Scope 1 Scope 2 Scope 3 Total
Electrical Engineering 5 233.41 36 450.69 123 294.99 164 979.10
ICT 354.71 1 517.67 6 674.40 8 546.78
Applied Electronics 493.91 5 219.46 1 004.47 6 717.84
Group Services 17.94 828.16 351.16 1 197.26
Reunert Limited 6 099.97 44 015.99 131 325.02 181 440.98
Percentage split of scope 1 + 2 12% 88%
Percentage split of total 3% 24% 72%
6099.97; 3%
44015.99; 24%
131325.02; 73%
2014/2015 GHG Inventory by Scope t CO2e
Scope 1
Scope 2
Scope 3
Copyright sustainableIT® 2015 5
Table 3: Total greenhouse gas emissions by emissions source
GHG Emissions by Scope metric tonnes CO2e % increase/decrease
from PFY
Direct Scope 1 (3%) 6 099.97 -20%
Stationary fuel combustion 4 428.60 +17%
Stationary fuel non energy use 14.80 +4%
Mobile fuel combustion 1 656.57 -57%
Indirect Scope 2 (24%) 44 015.99 -14%
Purchased electricity 44 015.99 -14%
Total Scope 1 & 2 50 115.96 -15%
Indirect Scope 3 (72%) 131 325.02 +49%
Upstream leased assets 6 516.07 n/a
Material use 120 979.90 +43%
Water supply 115.01 -9%
Water treatment 548.71 +50%
Waste disposal 167.72 -38%
Business travel 2 997.61 +6%
Total Scope 1, 2 & 3 181 440.98 +23%
Copyright sustainableIT® 2015 6
Figure 2: Greenhouse gas emissions by emission source
0 20 000 40 000 60 000 80 000 100 000 120 000 140 000
Scope 1
Scope 2
Scope 3
t CO2e
2014/2015 GHG Inventory by Emission Source t CO2e
Stationary fuel combustion Stationary fuel non energy use
Mobile fuel combustion Purchased electricity
Upstream leased assets: fuel combustion Upstream leased assets: purchased electricity
Business travel Material use
Waste disposal Water supply
Water treatment
Copyright sustainableIT® 2015 7
Table 4: Greenhouse gas emissions intensities4
metric tonnes CO2e
% increase or decrease from PFY
GHG Emissions Intensities by Entity
Sc 1 + 2 emissions
Sc 1 + 2 emissions
per m2 5
Sc 1 + 2 emissions
per FTE6 kWh/m2
Total emissions
per Rm revenue
Sc 1 + 2 emissions
per Rm revenue
Electrical Engineering 41 684.11
0% 0.28
17.63
-5% 243.65
+3% 40.02 +14%
10.11 -12%
ICT 1 872.38
-82% 0.13 0.93
-77% 120.71
-22% 2.49
+55% 0.55 -65%
Applied Electronics 5 713.37
-12% 0.18 6.96
-16% 174.06
-15% 6.21 -30%
5.29 -18%
Group Services 846.10 +187%
0.04 14.84 +197%
46.54 -70%
52.05 +138%
36.79 +100%
Reunert Limited 50 115.96
-15% 0.23 9.52
-9% 194.28
-9% 20.96 +63%
5.79 +12%
Table 5: Greenhouse gas emissions totals by greenhouse gas7
metric tonnes CO2e
Emissions by greenhouse gas CO2 CH4 N2O
Scope 1 direct emissions 6 080.33 7.88 11.76
Scope 2 indirect emissions 44 015.99
Total Scope 1 & 2 emissions 50 096.32 7.88 11.76
4 Percentage increase or decrease from previous year should be treated with caution as the previous year’s
Scope 2 emissions included Scope 3 purchased electricity in upstream leased assets.
5 Square meterage intensity includes the emissions sources: Scope 1 stationary fuel combustion, Scope 1
stationary non energy fuel use and Scope 2 purchased electricity in company owned and controlled sites.
Comparison with previous year not appropriate as previous years’ assessments included all sites regardless of
control in area intensity emissions calculations.
6 FTE made up of permanent employees only.
7 Individual greenhouse gas factors not universally available for scope 3 emission sources.
Copyright sustainableIT® 2015 8
Inventory boundary and scope of assessment In accordance with the GHG Protocol, the organisational boundary and operational scope of the
assessment are defined in the tables below.
Organisational boundary
Table 6: Organisational boundary
Methodology Greenhouse Gas Protocol Corporate Accounting and Reporting Standard (Revised)8
Reporting period 1 October 2014 to 30 September 2015
Organisational Entity Reunert Limited
Organisational Boundary Financial Control
Financial Control Reunert Limited has 100% financial control over all operations and entities unless specified. An exception to this applies to the joint venture CBI-electric: Aberdare ATC Telecom Cables (Pty) Limited of which it has 50% financial control.
Only franchises in which Reunert holds a majority share have been included in the scope. Franchises over which Reunert have no financial control are excluded from the scope of this assessment
Emissions reported reflect the percentage of financial control.
Base year YE 2015, no reduction targets in place9
Number of FTE employees 5 26410
Area of facilities All occupied sites: 258 675 m2
Company owned/controlled sites: 207 961 m2
Verification No third party verification
8 See Appendix A.
9 See Appendix B.
10 Number of employees is calculated based on the average number of permanent full time equivalent
employees.
Copyright sustainableIT® 2015 9
* Franchise operations over which Reunert Limited have ownership and financial control.
Figure 3: Organisational structure of Reunert Limited
Facilities included in assessment
*Indicates owned properties under financial control of Reunert Limited
Electrical Engineering
Johannesburg: Low Voltage - Head Office*
Cape Town: Industrial Controls and
Automation*
Cape Town: Low Voltage*
Durban: Low Voltage
Lesotho
Solutions - Centurion
Australia
America
Johannesburg: Industrial Controls and
Automation*
Port Elizabeth: Low Voltage Eastern Cape
Reunert Limited
Electrical Engineering
Low Voltage
South Africa
Lesotho
USA
Australia
African Cables
Telecom Cables (50%)
ICT
Nashua OA Franchises*
South Africa
Sweden
PanSolutions
Nashua Communication
s
Applied Electronics
Communications
Radar Systems
Fuchs Electronics
Solutions
RC&C Manufacturing
Group Services
Copyright sustainableIT® 2015 10
Bloemfontein: Low Voltage Free State
Durban: Industrial Controls and Automation
Boksburg: Solutions*
Vereeniging – Factory*
Duncanville*
Power Installations (Parow)*
Power Installations (Durban)
Tank Industries
Brits (Joint Venture: 50% contribution)*
Information Communication Technologies
Woodmead: Nashua Limited
Midrand: Nashua Kopano*
Port Elizabeth: Nashua Ltd Algoa
Grahamstown
Port Elizabeth: Nashua Ltd Algoa*
Brooklyn: Nashua Tswane 1
Lyttleton Manor: Nashua Tswane 2
Weltevreden Park: Nashua WestRand
Johannesburg: Nashua Central
Tygerberg: Nashua Ltd Tygerberg - Rosenpark
Tygerberg: Nashua Ltd Tygerberg -
Brackengate
Paarl: Nashua Ltd Paarl and West Coast
Cape Town - Nashua Ltd Cape Town
Durban: Nashua Ltd Pinetown
Durban: Nashua Ltd
Durban: Nashua Ltd Copy Shop
Durban: Nashua Ltd Warehouse
Nashua North: Ferndale
Nashua Prodoc: Sweden
Nashua Winelands: Olive Grove
New Germany: PanSolutions*
Midrand: Pansolutions Warehouse
Midrand: Pansolutions Holdings
Parow: Nashua Communications*
Midrand: Nashua Communications*
Nelspruit: Nashua Communications
Westville: Nashua Communications
Port Elizabeth: Nashua Communications*
Sandton: ECN Regional POP
Riverhorse Valley: ECN Durban POP
Randburg: ECN Regional POP
Centurion: ECN Regional POP
Midrand: ECN Nashua Mobile POP*
Port Elizabeth: ECN Port Elizabeth POP
Bloemfontein: ECN Bloemfonten POP
Greenstone: ECN Greenstone POP
Midrand: ECN Offices
Midrand: ECN Reunert Park*
Applied Electronics
New Germany: Reutech Communications*
Reutech Communications North*
Stellenbosch: Reutech Radar Systems*
RCC Manufacturing Factory*
Midrand: Reutech Solutions*
Alrode: Fuchs*
Group Services
Boksburg: ARGO*
Boksburg: Other*
Boksburg: Reapers*
Boksburg: Reunert College*
Wadeville Iveco SA*
Mabula, Bela-Bela*
Sterkspruit, Lydenburg*
Woodmead: Reunert Ltd
Copyright sustainableIT® 2015 11
Owned facilities excluded from assessment due to immateriality
Hoedspruit: 100 Ferret Street*
Lepalala: 34 Ellis Street*
Pietersburg: 65 Ireland Street*
Hoedspruit: 78 Duiker Street*
Boksburg: Vacant*
Midrand: WBS*
Rietfontein*
Copyright sustainableIT® 2015 12
Operational scope
The activities listed in the table below form the operational scope of the assessment.
Table 7: Operational scope
Greenhouse gases present in
boundary
Carbon dioxide (CO2)
Methane (CH4)
Nitrous oxide (N2O)
Hydro fluorocarbons (HFCs)11
Immateriality guideline Emission source activities believed to make up less than 2.5% of
total emissions are believed to be immaterial.
GHG emissions sources included in assessment
Direct emissions Stationary fuel combustion in assets over which Reunert Limited has financial control
Stationary fuel non-energy use in assets over which Reunert Limited has financial control
Mobile fuel combustion in vehicles over which Reunert Limited has financial control
Indirect emissions Purchased electricity in facilities over which Reunert Limited has financial control
Upstream leased assets, including: Mobile fuel combustion in leased vehicles Purchased electricity in leased facilities
Purchased goods and services, including: Material use of input materials Water supply
Waste disposal, including: Waste disposal of materials Water treatment
Business travel including : Air travel in commercial airlines Land travel in rental vehicles Land travel in employee owned and operated vehicles
11
Fugitive HFC emissions from air conditioning are present but excluded due to immateriality and lack of
available data.
Copyright sustainableIT® 2015 13
Scope 1 and Scope 2 exclusions HFC fugitive emissions
Scope 1 fugitive emissions from air conditioning equipment have been excluded due to immateriality
and lack of available data.
Purchased electricity
Purchased electricity excluded at the site Port Elizabeth: Nashua Communications due to lack of
available data.
Scope 3 clarification Emissions associated with the following emission sources are believed to be underestimated:
Upstream leased assets: Purchased electricity
Purchased electricity usage data is unavailable in 4 sites namely Port Elizabeth: Low Voltage Eastern
Cape, Power Installations (Durban), Tank Industries and Westville: Nashua Communications.
Water supply and treatment
Water supply and treatment are part reported.
Waste disposal
Waste disposal is part reported.
Copyright sustainableIT® 2015 14
Greenhouse gas emission inventory detail with calculations Summary
Table 8: Emissions by emission source by company
t CO2e
Emission sources Electrical Engineering
ICT Applied Electronics
Group Services
Total
Total Scope 1 5 233.41 354.71 493.91 17.94 6 099.97
Stationary fuel combustion 4 387.60 1.88 38.93 0.20 4 428.60
Stationary fuel non energy use
14.80 14.80
Mobile fuel combustion 831.02 352.83 454.98 17.74 1 656.57
Total Scope 2 36 450.69 1 517.67 5 219.46 828.16 44 015.99
Purchased electricity 36 450.69 1 517.67 5 219.46 828.16 44 015.99
Total Scope 1 & Scope 2 41 684.11 1 872.38 5 713.37 846.10 50 115.96
Total Scope 3 123 294.99 6 674.40 1 004.47 351.16 131 325.02
Upstream leased assets: mobile fuel
45.28 45.28
Upstream leased assets: Purchased electricity
1 629.11 4 657.15 184.53 6 470.79
Material use 120 917.00 12.10 50.81 120 979.90
Water supply 81.15 16.35 17.09 0.42 115.01
Water treatment 295.86 32.01 219.96 0.88 548.71
Waste disposal 148.49 15.23 0.26 3.75 167.72
Business travel 223.39 1 896.29 716.35 161.58 2 997.61
Copyright sustainableIT® 2015 15
Direct emissions
Table 9: Scope 1 emissions by emission source by company
t CO2e
Emission sources Electrical Engineering
ICT Applied Electronics
Group Services
Total
Total Scope 1 5 233.41 354.71 493.91 17.94 6 099.97
Stationary fuel combustion 4 387.60 1.88 38.93 0.20 4 428.60
Stationary fuel non energy use
14.80 14.80
Mobile fuel combustion 831.02 352.83 454.98 17.74 1 656.57
Percentage of scope 1 86% 6% 8% 0.3% 100%
Table 10: Calculation of stationary fuel combustion emissions
Emissions Source UOM Quantity /
Annum kg CO2e
per unit12
t CO2e
Stationary fuel combustion
Electrical Engineering
4 387.60
Diesel (100% mineral diesel) lt 77 342 2.67614 206.98
Natural gas kWh 21 248 07313
0.18445 3 919.21
LPG kg 88 838 2.94264 261.42
ICT
1.88
Diesel (100% mineral diesel) lt 701 2.67614 1.88
Applied Electronics
38.93
Diesel (100% mineral diesel) lt 14 13414
2.67614 37.82
LPG kg 37615
2.94264 1.11
Group Services
0.20
LPG kg 67 2.94264 0.20
Total
4 428.60
12
UK Government conversion factors for Company Reporting, version 2.0, 2015
13 Conversion from 76,493 GJ to kWh based on a factor of 277.78 kWh/GJ. Gross CV factor applied to kWh.
Source: UK Government conversion factors for Company Reporting, version 2.0, 2015
14 1997 litres of the total 14 134 litres estimated from fuel spend and an average fuel price of R10.89 per litre.
15 36 kg of the total 376 kg estimated from fuel spend and an average fuel price of R20.64 per kg.
Copyright sustainableIT® 2015 16
Table 11: Calculation of stationary fuel non-energy use emissions
Emissions Source UOM Quantity / Annum t C/TJ
16 ODU
17 CO2/C t CO2e
Stationary fuel combustion
Electrical Engineering 14.80
Lubricant oil TJ 1.00918
20.00 0.200 3.66667 14.80
Total 14.80
Table 12: Calculation of mobile fuel combustion emissions
Emissions Source UOM Quantity /
Annum kg CO2e
per unit19
t CO2e
Mobile fuel combustion
Electrical Engineering 831.02
Diesel (100% mineral diesel) lt 122 104 2.67614 326.77
Petrol (100% mineral petrol) lt 206 837 2.29968 475.66
LPG kWh 133 17520
0.21468 28.59
ICT 352.83
Diesel (100% mineral diesel) lt 60 44121
2.67614 161.75
Petrol (100% mineral petrol) lt 82 56822
2.29968 189.88
Petrol vehicle (passenger average) km 6 279 0.19126 1.20
Applied Electronics 454.98
Diesel (100% mineral diesel) lt 82 124 2.67614 219.77
Petrol (100% mineral petrol) lt 101 225 2.29968 232.78
Petrol vehicle (passenger average) km 10 60423
0.19126 2.03
LPG kg 133 2.94264 0.39
Group Services 17.74
Diesel (100% mineral diesel) lt 2 275 2.67614 6.09
Petrol (100% mineral petrol) lt 5 068 2.29968 11.65
16
Carbon content factor. Source: IPCC Guidelines Chapter 1 of Volume 2 on Energy
17 Oxidised during use factor. Source: IPCC Guidelines Chapter 1 of Volume 2 on Energy
18 TJ calculated using a net CV TJ/Gg factor of 40.20. Source: IPCC Guidelines Chapter 1 of Volume 2 on Energy
19 UK Government conversion factors for Company Reporting, version 2.0, 2015
20 Conversion from 479 GJ to kWh based on a factor of 277.78 kWh/GJ. Gross CV factor applied to kWh.
Source: UK Government conversion factors for Company Reporting, version 2.0, 2015
21 646 litres of the total 60 441 litres estimated from fuel spend and an average fuel price of R10.89 per litre.
22 18 664 litres of the total 82568 litres estimated from fuel spend and an average fuel price of R12.35 per litre.
23 5 199 litres of the total 10 604 litres estimated from fuel spend and an average fuel price of R12.35 per litre.
Copyright sustainableIT® 2015 17
Total 1 656.57
Indirect emissions
Scope 2
Table 13: Scope 2 emissions by emission source by company
t CO2e
Emission sources Electrical Engineering
ICT Applied Electronics
Group Services
Total
Total Scope 2 36 450.69 1 517.67 5 219.46 828.16 44 015.99
Purchased electricity 36 450.69 1 517.67 5 219.46 828.16 44 015.99
Percentage of Scope 2 83% 3% 12% 2% 100%
Table 14: Calculation of purchased electricity emissions
Emissions Source UOM Quantity /
Annum kg CO2e
per unit24
t CO2e
Purchased electricity
Electrical Engineering 36 450.69
Purchased electricity kWh 36 089 797 1.01000 36 450.69
ICT 1 517.67
Purchased electricity kWh 1 502 644 1.01000 1 517.67
Applied Electronics 5 219.46
Purchased electricity kWh 5 167 785 1.01000 5 219.46
Group Services 828.16
Purchased electricity kWh 819 963 1.01000 828.16
Total 44 015.99
Notes on purchased electricity consumption
Purchased electricity excluded at the site Port Elizabeth: Nashua Communications due to lack of
available data.
Reutech Communications North electricity usage was estimated based on rand value spend and an
assumed electricity cost of ZAR1.80 per kWh.
24
South African grid emission factor sourced from Eskom’s Annual Integrated Report, 2015.
Copyright sustainableIT® 2015 18
Scope 3
Table 15: Scope 3 emissions by emission source by company
t CO2e
Emission sources Electrical Engineering
ICT Applied Electronics
Group Services
Total
Total Scope 3 123 294.99 6 674.40 1 004.47 351.16 131 325.02
Upstream leased assets: mobile fuel
45.28 45.28
Upstream leased assets: Purchased electricity
1 629.11 4 657.15 184.53 6 470.79
Material use 120 917.00 12.10 50.81 120 979.90
Water supply 81.15 16.35 17.09 0.42 115.01
Water treatment 295.86 32.01 219.96 0.88 548.71
Waste disposal 148.49 15.23 0.26 3.75 167.72
Business travel 223.39 1 896.29 716.35 161.58 2 997.61
Percentage of Scope 3 94% 5% 1% 0.3% 100%
Table 16: Calculation of mobile fuel combustion emissions in upstream leased assets
Emissions Source UOM Quantity /
Annum kg CO2e
per unit25
t CO2e
Mobile fuel combustion
ICT 45.28
Diesel (100% mineral diesel) lt 9 451 2.67614 25.29
Petrol (100% mineral petrol) lt 7 69926
2.29968 17.70
Petrol vehicle (passenger average) km 11 925 0.19126 2.28
Total 45.28
25
UK Government conversion factors for Company Reporting, version 2.0, 2015
26 3,953 Litres of the 7,699 litres of petrol was estimated based on rand value spend and an assumed petrol
cost of ZAR12.35 per litre.
Copyright sustainableIT® 2015 19
Table 17: Calculation of purchased electricity emissions in upstream leased assets
Emissions Source UOM Quantity /
Annum kg CO2e
per unit27
t CO2e
Purchased electricity
Electrical Engineering 1 629.11
Purchased electricity kWh 38 116 1.01000 38.50
Purchased electricity: Lesotho kWh 1 442 388 1.01000 1 456.81
Purchased electricity: Australia kWh 153 420 0.81360 124.82
Purchased electricity: USA kWh 18 012 0.49845 8.98
ICT 4 657.15
Purchased electricity kWh 4 607 250 1.01000 4 653.32
Purchased electricity: Sweden kWh 232 108 0.01650 3.83
Group Services 184.53
Purchased electricity kWh 182 702 1.01000 184.53
Total 6 470.79
Notes on purchased electricity consumption
Purchased electricity excluded at the sites Low Voltage Eastern Cape Port Elizabeth, Power
Installations Durban, Tank Industries and Westville: Nashua Communications due to lack of available
data.
For the sites Bloemfontein: Low Voltage Free State, Lyttleton Manor: Nashua Tshwane 2, Cape Town
- Nashua Ltd Cape Town, Nashua Winelands: Olive Grove and Midrand: ECN Offices electricity usage
was estimated based on rand value spend and an assumed electricity cost of ZAR1.80 per kWh.
Electricity usage for the ECN POP sites was estimated based on 2014 data.
27
South African grid emission factor sourced from Eskom’s Annual Integrated Report, 2015. The South African
grid emission factor has been applied to Lesotho. Australia, USA and Sweden emission factors sourced from
UK Government conversion factors for Company Reporting, version 2.0, 2015.
Copyright sustainableIT® 2015 20
Table 18: Calculation of material use emissions
Emissions Source UOM Quantity /
Annum kg CO2e
per unit28
t CO2e
Material use
Electrical Engineering 120 917.00
Paper tn 436.08 939.00000 409.47
Copper tn 14 402.30 3 771.00000 54 311.06
Aluminum tn 4 456.08 3 771.00000 16 803.88
Steel tn 837.97 3 771.00000 3 159.97
Galvanised Steel tn 7 831.31 3 771.00000 29 531.87
PVC tn 3 068.41 3 340.00000 10 248.49
Brass tn 90.85 3 771.00000 342.58
Recycled Copper tn 2 528.28 1 493.00000 3 774.73
Recycled Aluminum tn 1 155.72 1 493.00000 1 725.49
Recycled Steel tn 39.36 1 493.00000 58.76
Recycled Galvanised Steel tn 319.70 1 493.00000 477.31
Recycled PVC tn 29.88 2 456.00000 73.39
ICT 12.10
Paper tn 12.88 939.00000 12.10
Applied Electronics 50.81
Paper tn 6.00 939.00000 5.64
Copper tn 5.69 3 771.00000 21.48
Steel tn 4.93 3 771.00000 18.57
PVC tn 0.38 3 340.00000 1.26
Brass tn 0.02 3 771.00000 0.09
Nickel tn 1.00 3 771.00000 3.77
Total 120 979.90
28
Materials sourced from primary material production. Recycled materials sourced from closed loop recycling.
UK Government conversion factors for Company Reporting, version 2.0, 2015.
Copyright sustainableIT® 2015 21
Table 19: Calculation of water supply emissions
Emissions Source UOM Quantity /
Annum kg CO2e
per unit29
t CO2e
Water supply
Electrical Engineering 81.15
Municipal water supply kl 235 892 0.34400 81.15
ICT 16.35
Municipal water supply kl 47 532 0.34400 16.35
Applied Electronics 17.09
Municipal water supply kl 49 679 0.34400 17.09
Group Services 0.42
Municipal water supply kl 1 223 0.34400 0.42
Total 115.01
Note on water consumption
In 1 site effluent data was available while water supply data was lacking. In this case supply was
estimated double that of effluent30.
Table 20: Calculation of water treatment emissions
Emissions Source UOM Quantity /
Annum kg CO2e
per unit31
t CO2e
Water treatment
Electrical Engineering 295.86
Municipal effluent kl 417 884 0.70800 295.86
ICT 32.01
Municipal effluent kl 45 206 0.70800 32.01
Applied Electronics 219.96
Municipal effluent kl 310 680 0.70800 219.96
Group Services 0.88
Municipal effluent kl 1 240 0.70800 0.88
Total 548.71
Notes on water treatment
In 9 sites water supply data was available while effluent data was lacking. In these cases effluent was
estimated at 50% of water supply32.
29
UK Government conversion factors for Company Reporting, version 2.0, 2015
30 Approximately 50% of urban and industrial drainage is returned for reuse. CSIR referencing DEAT, 2006.
31 UK Government conversion factors for Company Reporting, version 2.0, 2015
32 Approximately 50% of urban and industrial drainage is returned for reuse. CSIR referencing DEAT, 2006.
Copyright sustainableIT® 2015 22
Table 21: Calculation of waste disposal emissions
Emissions Source UOM Quantity /
Annum kg CO2e
per unit33
t CO2e
Waste disposal
Electrical Engineering 148.49
General Waste
Commercial and Industrial Waste tn 923.58 93.00000 85.89
WEEE tn 50.71 21.00000 1.06
Brown Grades (incl. Cardboard) tn 40.84 21.00000 0.86
Mixed Grades tn 35.74 21.00000 0.75
Other plastics tn 700.72 21.00000 14.72
Ferrous tn 297.90 21.00000 6.26
Non-ferrous tn 301.12 21.00000 6.32
Other tn 208.83 93.00000 19.42
Hazardous Waste
Solid Waste containing Mercury tn 1.31 93.00000 0.12
Mixed batteries 0.11 65.00000 0.01
Waste Oils tn 0.89 21.00000 0.02
Solvents without halogens and Sulphur tn 13.31 93.00000 1.24
Mixed WEEE tn 6.56 21.00000 0.14
Oil Contaminated Waste tn 120.88 93.00000 11.24
Bitumous waste tn 3.89 93.00000 0.36
Pathological Waste tn 0.05 93.00000 0.005
Infectious Waste and Sharps tn 0.15 93.00000 0.01
Chemical Waste tn 0.01 93.00000 0.001
Miscellaneous tn 0.63 93.00000 0.06
ICT 15.23
General Waste
Commercial and Industrial Waste tn 140.59 93.00000 13.07
WEEE tn 29.42 21.00000 0.62
White Grades tn 4.71 21.00000 0.10
Mixed Grades tn 11.04 21.00000 0.23
Other tn 12.73 93.00000 1.18
Hazardous Waste
Mixed WEEE tn 0.90 21.00000 0.02
Applied Electronics 0.26
General Waste
Commercial and Industrial Waste tn 0.73 93.00000 0.07
Brown Grades (incl. Cardboard) tn 0.41 21.00000 0.01
White Grades tn 2.68 21.00000 0.06
Mixed Grades tn 0.35 21.00000 0.01
Polyethylene terephthalate tn 0.10 21.00000 0.002
33
Materials sourced from primary material production. Recycled materials sourced from closed loop recycling.
UK Government conversion factors for Company Reporting, version 2.0, 2015
Copyright sustainableIT® 2015 23
(PETE)
Other plastics tn 1.36 21.00000 0.03
Glass tn 0.20 21.00000 0.004
Ferrous tn 2.02 21.00000 0.04
Non-ferrous tn 0.15 21.00000 0.003
Other tn 0.13 93.00000 0.01
Hazardous Waste
Liquid Waste containing Mercury tn 0.05 93.00000 0.005
Pathological Waste tn 0.004 93.00000 0.0004
Infectious Waste and Sharps tn 0.004 93.00000 0.0004
Miscellaneous tn 0.22 93.00000 0.02
Group Services 3.75
General Waste
Commercial and Industrial Waste tn 39.10 93.00000 3.64
WEEE tn 0.32 21.00000 0.01
White Grades tn 5.20 21.00000 0.11
Total 167.72
Note on waste disposal
Waste disposal is part reported and therefore emissions are believed to be underestimated.
Copyright sustainableIT® 2015 24
Table 22: Calculation of business travel emissions
Emissions Source UOM Quantity /
Annum kg CO2e
per unit34
t CO2e
Business travel in non-company owned assets
Electrical Engineering 223.39
Vehicle Rental CO2e gm 11 900 585 11.90
Domestic Economy Class p.km 773 496 0.15757 121.88
Domestic Business/First Class p.km 3 307 0.15757 0.52
Short-haul Economy Class p.km 160 739 0.08795 14.14
Short-haul Economy+ Class p.km 3 972 0.08795 0.35
Short-haul First/Business Class p.km 2 115 0.13195 0.28
Long-haul Economy Class p.km 702 982 0.07339 51.59
Long-haul Economy+ Class p.km 29 167 0.11745 3.43
Long-haul Business Class p.km 89 583 0.21286 19.07
Diesel (100% mineral diesel) lt (derived) 60 2.67614 0.16
Petrol (100% mineral petrol) lt (derived) 33 2.29968 0.07
ICT 1 896.29
Vehicle Rental CO2e gm 8 928 782 8.93
Vehicle Rental Small35
km 1 414 0.15374 0.22
Vehicle Rental Medium36
km 49 212 0.18797 9.25
Vehicle Rental Large37
km 196 044 0.24312 47.66
Domestic Economy Class p.km 1 131 625 0.15757 178.31
Short-haul Economy Class p.km 145 518 0.08795 12.80
Short-haul First/Business Class p.km 3 286 0.13195 0.43
Long-haul Economy Class p.km 836 738 0.07339 61.41
Long-haul Economy+ Class p.km 62 430 0.11745 7.33
Long-haul Business Class p.km 85 298 0.21286 18.16
Diesel (100% mineral diesel) lt 16 325 2.67614 43.69
Diesel (100% mineral diesel) lt (derived) 46 2.67614 0.12
Petrol (100% mineral petrol) lt 203 466 2.29968 467.91
Petrol (100% mineral petrol) lt (derived) 168 392 2.29968 387.25
Unknown fuel lt 163 897 2.29968 376.91
Unknown fuel lt (derived) 119 981 2.29968 275.92
Applied Electronics 716.35
Vehicle Rental CO2e gm 20 517 040 20.52
Flight CO2e gm 41 058 0.04
Domestic Economy Class p.km 1 885 738 0.15757 297.14
34
Air travel factors provide for a distance uplift of 8% to compensate for uplift and planes not flying using the
most direct route however do not account for radiative forcing. UK Government conversion factors for
Company Reporting, version 2.0, 2015.
35 Petrol up to 1.4 lt, diesel up to 1.7lt
36 Petrol 1.4 - 2.0 lt, diesel 1.7 - 2.0 lt
37 Petrol > 2.0 lt, diesel > 2.0 lt
Copyright sustainableIT® 2015 25
Domestic Business/First Class p.km 112 744 0.15757 17.77
Short-haul Economy Class p.km 398 483 0.08795 35.05
Short-haul First/Business Class p.km 23 799 0.13195 3.14
Long-haul Economy Class p.km 3 486 436 0.07339 255.89
Long-haul Business Class p.km 339 098 0.21286 72.18
Long-haul First Class p.km 49 857 0.29361 14.64
Group Services 161.58
Vehicle Rental CO2e gm 1 085 932 1.09
Vehicle Rental Small38
km 2 941 0.15374 0.45
Vehicle Rental Medium39
km 4 074 0.18797 0.77
Domestic Economy Class p.km 717 260 0.15757 113.02
Short-haul Economy Class p.km 7 010 0.08795 0.62
Short-haul First/Business Class p.km 9 154 0.13195 1.21
Long-haul Economy Class p.km 58 900 0.07339 4.32
Long-haul Business Class p.km 133 527 0.21286 28.42
Diesel vehicle (passenger ave.) km 3 620 0.18232 0.66
Petrol (100% mineral petrol) lt 4 793 2.29968 11.02
Total 2 997.61
38
Petrol up to 1.4 lt, diesel up to 1.7lt.
39 Petrol 1.4 - 2.0 lt, diesel 1.7 - 2.0 lt.
Copyright sustainableIT® 2015 26
Greenhouse Gas Equivalencies Reunert Limited’s total footprint is equivalent to each of the following statements40:
38 198
Passenger vehicle use for one year
24 957
Homes’ electricity use for one year
973
Railcars worth of coal burned
65 033
Tons of waste sent to the landfill
4 652 333
Carbon sequestered by tree seedlings over 10 yrs
148 722 Carbon sequestered annually by acres of US forest
Exposure to proposed carbon taxation Based on the Draft Carbon Tax Bill released by National Treasury in November 201541, Reunert
Limited should allow for the following taxation:
1. Direct taxation on the combustion of natural gas if combustion installation exceeds 10MW.
2. Increased fuel spend as carbon tax on liquid fuels will be added to the current fuel tax
regime.
3. Increased costs in up- and downstream transport related activities such as business travel
and logistics.
Taking into account revenue recycling measures, the tax has been designed to ensure that its overall
impact will, in the initial phase, be neutral on the price of electricity. Financial exposure would
therefore only include that of tax on fuel.
Based on this year’s activity data on direct fuel combustion, the calculated financial impact of
taxation is shown in the table below.
40
Source: EPA Equivalencies Calculator http://www2.epa.gov/energy/greenhouse-gas-equivalencies-calculator
41 National Treasury Draft Carbon Tax Bill, November 2015.
http://www.treasury.gov.za/public%20comments/CarbonTaxBill2015/Carbon%20Tax%20Bill%20final%20for%
20release%20for%20comment.pdf
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Table 23: Calculation of carbon tax exposure on direct emission sources
Emissions42 t CO2e
Effective tax rate43
Cost per annum
Cost implication of direct taxation
Scope 1 stationary fuel (natural gas) 3 687.39 R 48.00 R 176 995
Cost implication of increased fuel levy
Scope 1 stationary liquid fuels 369.04 R 48.00 R 17 714
Scope 1 mobile liquid fuels 1 361.88 R 48.00 R 65 370
Total direct costs R260 079
Business travel cost implication of increased fuel levy
Scope 3 business travel 2 997.61 R 48.00 R 143 885
Total indirect costs R143 885
With the exception of business travel, the financial impact on up- and downstream emission sources
which may be affected has not been calculated.
42
Emissions totals differ from reported emissions as calculations have been based on the emissions factors put
forward by National Treasury. Mileage activity data has been excluded from these estimations.
43 Based on a tax rate of R120 per tonne CO2e with a 60% basic tax-free threshold.
Copyright sustainableIT® 2015 28
Understanding uncertainty and disclaimer
There are uncertainties associated with greenhouse gas inventories which can be broadly categorised into scientific uncertainty and estimation uncertainty. Scientific Uncertainty
Scientific uncertainty arises when the science of the actual emission and/or sequestration process is
not sufficiently understood and the emission factor is uncertain. For example, many of the direct and
indirect emissions factors associated with global warming potential for emission estimates involve
scientific uncertainty. Analysing and quantifying such scientific uncertainty is extremely problematic
and is beyond the scope of most company’s inventory efforts. The emissions factors used in this
report are based on reliable sources and all are referenced throughout the document, however, all
are subject to scientific uncertainty.
Estimation Uncertainty
Estimation uncertainty arises any time greenhouse gas emissions are quantified. Therefore all
emission or removal estimates are associated with estimation uncertainty. Estimation uncertainty
can be further classified into two types: model uncertainty and parameter uncertainty.
Model uncertainty refers to the uncertainty associated with the mathematical equations (i.e.
models) used to characterise the relationships between various parameters and emission
processes. For example, model uncertainty may arise either due to the use of an incorrect
mathematical model or inappropriate parameters (i.e. inputs) in the model. Like scientific
uncertainty, estimating model uncertainty is beyond the scope of most company’s inventory
efforts. Any model uncertainty is beyond the scope of this report.
Parameter uncertainty refers to the uncertainty associated with quantifying the parameters
used as inputs (e.g. activity data, emission factors, or other parameters) to estimation models.
Parameter uncertainties can be evaluated through statistical analysis, measurement equipment
precision determinations, and expert judgment.
This report is based on activity data gathered by the client. sustainableIT bears no responsibility for
the accuracy of the primary data provided by Reunert Limited. The primary data that this report has
been based on has not been verified.
Copyright sustainableIT® 2015 29
Contact details
Carina de Klerk
Investor Relations and Communications
Reunert Limited
Nashua Building
Woodmead North Office Park
54 Maxwell Drive
Woodmead
Sandton
T +27 11 517 9000
Teresa Legg
GHG Assessor
The Carbon Report
1st Floor, Convention Towers
Cnr of Walter Sisulu and Heerengracht Streets
Foreshore
Cape Town
T +27 21 403 6411
www.thecarbonreport.co.za
Copyright sustainableIT® 2015 30
Abbreviations
CH4 Methane
CC Carbon content
CO2 Carbon dioxide
CO2e Carbon dioxide equivalent
FTE Full time employee
GHG Greenhouse gases
GWP Global warming potential
HCFC Hydro chlorofluorocarbon
HFC Hydro fluorocarbon
HVAC Heating, ventilation and air conditioning
IPCC Intergovernmental Panel on Climate Change
N2O Nitrous oxide
NF3 Nitrogen trifluoride
ODU Oxidised during use
PFC Perfluorocarbons
SF6 Sulphur hexafluoride
UOM Unit of measure
WBCSD World Business Council for Sustainable Development
WRI World Resources Institute
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Glossary of terms
Boundaries – The inventory boundaries to
determine which emissions are accounted and
reported by the company. Boundaries can
include organisational, operational and
geographic.
Carbon footprint – The total greenhouse gas
emissions caused directly and indirectly by an
organisation, typically over a period of 12
months.
CO2e – Carbon dioxide equivalent – The
universal unit of measurement to indicate the
global warming potential (GWP) of each of the
reported greenhouse gases, expressed in
terms of the GWP of one unit of carbon
dioxide. It is used to evaluate greenhouse
gases against a common basis.
Direct emissions – GHG emissions from
sources that are owned or controlled by the
reporting company.
Emissions – The release of greenhouse gases
into the atmosphere.
Emission factor – A factor allowing GHG
emissions to be estimated from a unit of
available activity data and absolute GHG
emissions.
Greenhouse gases (GHG) –Under this
Standard GHGs are the seven gases listed in
the Kyoto Protocol, namely carbon dioxide,
methane, nitrous oxide, hydrofluorocarbons,
perfluorocarbons, sulphur hexafluoride and
nitrogen trifluoride.
GHG offset – Offsets are GHG reductions used
to compensate for GHG emissions elsewhere.
GHG Inventory – A quantified list of an
organisations GHG emissions and sources.
GHG Protocol – Greenhouse Gas Protocol
Corporate Accounting and Reporting
Standard.
Global warming potential – a factor describing the degree of harm to the atmosphere of one unit of a given GHG relative to one unit of CO2. Indirect emissions – emissions that are a
consequence of the operations of the
reporting company, but occur at sources
owned or controlled by another company.
Operational boundary – The boundaries that
determine the direct and indirect emissions
associated with operations owned or
controlled by the reporting company.
Organisational boundary – The boundary that
determines the operations owned or
controlled by the reporting company,
depending on the consolidation approach
taken.
Reporting Period – the period of time,
typically a calendar or financial year, the
report covers.
Scope 1 emissions – Direct emissions from
sources that are owned or controlled by the
reporting company.
Scope 2 emissions – Indirect emissions
associated with the generation of electricity,
heating/cooling and steam purchased for own
consumption.
Scope 3 emissions – Indirect emissions other
than those covered in Scope 2.
Sequestered atmospheric carbon – Carbon
removed from the atmosphere by biological
sinks and stored in plant tissue.
Copyright sustainableIT® 2015 32
References
UK Government, 2015. UK Government conversion factors for Company Reporting, version 2.0, 2015.
Environmental Protection Agency (US). Greenhouse Gas Equivalencies calculator.
http://www2.epa.gov/energy/greenhouse-gas-equivalencies-calculator.
Eskom, 2015. Eskom Annual Integrated Report 2015.
National Treasury, 2015. Draft Carbon Tax Bill.
Intergovernmental Panel on Climate Change. IPCC Guidelines Chapter 1 of Volume 2 on Energy.
World Resources Institute. Hot Climate, Cool Commerce. A service sector guide to greenhouse gas
management.
World Resources Institute and World Business Council for Sustainable Development. The
Greenhouse Gas Protocol Corporate Accounting and Reporting Standard.
World Resources Institute. GHG Protocol guidance on uncertainty assessment in GHG inventories
and calculating statistical parameter uncertainty.
Copyright sustainableIT® 2015 33
Appendix A: Methodology
The Greenhouse Gas Protocol Corporate Accounting and Reporting Standard (Revised) (herein
referred to as the GHG Protocol) has directed the greenhouse gas emissions measurement and
reporting process.
Greenhouse Gas Protocol Corporate Accounting and Reporting Standard The Greenhouse Gas Protocol Initiative is a multi-stakeholder partnership of businesses, non-
governmental organisations, governments, and others convened by the World Resources Institute
(WRI) and the World Business Council for Sustainable Development (WBCSD). Launched in 1998 the
initiative’s mission is to develop internationally accepted greenhouse gas accounting and reporting
standards for business and to promote their broad adoption worldwide.
The GHG Protocol’s Standard is the most widely used standard for mandatory and voluntary GHG
programs. The standard is analogous to the generally accepted financial accounting standards for
companies’ consistent accounting and reporting practices.
Organisational boundary
Organisational boundaries determine which business units are included in the GHG inventory.
An organisational boundary can be established using one of three approaches: operational control,
financial control or equity control.
Operational Scope
Operational boundaries determine which activities generate emissions and how these activities
should be categorised (i.e. as Scope 1, Scope 2, Scope 3).
The established organisational and operational boundaries together constitute a company’s
inventory boundary.
The GHG Protocol requires that Scope 1 and Scope 2 are included. Scope 1 and Scope 2 emissions
present but not included must be disclosed with a justification for exclusion. Reporting Scope 3 is
voluntary and recommended where material.
Greenhouse Gases
All emissions calculated are reported in carbon dioxide equivalent (CO2e). Because GHGs vary in
their ability to trap heat in the atmosphere, some are more harmful to the climate than others. Each
greenhouse gas has a global warming potential (GWP), which refers to its heat trapping ability
relative to that of CO2. Greenhouse gases are therefore often reported as CO2 equivalents (CO2e),
allowing like for like comparisons.
The Standard covers the accounting and reporting of the greenhouse gases covered by the Kyoto
Protocol:
• Carbon dioxide (CO2)
• Methane (CH4)
Copyright sustainableIT® 2015 34
• Nitrous oxide (N2O)
• Hydro fluorocarbons (HFCs)
• Perflourocarbons (PFCs)
• Sulphur hexafluoride (SF6)
• Nitrogen trifluoride (NF3)
Greenhouse gas emissions are categorised as direct and indirect; and grouped into Scopes for
accounting and reporting.
Direct Emissions – Scope 1
Direct GHG emissions are emissions from sources that are owned or controlled by the company, for
example, emissions from combustion in owned or controlled boilers, furnaces, vehicles, etc.
Direct GHG emissions are called Scope 1 emissions and are accounted for as such.
Indirect Emissions – Scope 2 and Scope 3
Indirect GHG emissions are emissions that are a consequence of the activities of the company, but
occur at sources owned or controlled by another company. Indirect GHG emissions are categorised
as either Scope 2 emissions for purchased electricity or Scope 3 for all indirect emissions, for
example, travel on commercial airlines, paper use, etc.
Guiding Principles Assessments are produced under the following guiding principles of the GHG Protocol:
Relevance
The GHG inventory appropriately reflects the GHG emissions of the company and serves the
decision-making needs of users – both internal and external to the company.
Completeness
All GHG emission sources and activities within the chosen inventory boundary are accounted for and
reported. Exclusions are disclosed and justified.
Consistency
Consistent methodologies are applied that allow for meaningful comparisons of emissions over time.
Any changes to the data, inventory boundary, methods, or any other relevant factors in the time
series are transparently documented.
Transparency
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All relevant issues have been addressed in a factual and coherent manner, and are based on a clear
audit trail. Relevant assumptions are disclosed and appropriate references to the accounting and
calculation methodologies and data sources used are made.
Accuracy
The quantification of GHG emissions is systematically neither over nor under actual emissions, as far
as can be judged, and uncertainties are reduced as far as practicable. Where we believe accuracy
has been compromised it is documented in the report.
Copyright sustainableIT® 2015 36
Appendix B: Base year and base year recalculation/adjustment
policies
Selection of base year The following has been considered in selecting and stating 2015 as base year for future emissions
tracking:
The availability of reliable emissions data.
A single year is representative of the company’s typical emissions profile.
The base year can confidently be used as a basis for setting and tracking progress towards a
GHG target.
Base year adjustments When tracking an organisation’s emissions over time, it is important to compare like with like.
Therefore, in the event of structural or other changes the base year emissions may need to be
recalculated.
In accordance with the GHG Protocol, The Carbon Report recommends that base year emissions are
adjusted in the event of:
Structural changes such as mergers, acquisition and divestments; where the facility existed
in the base year.
Outsourcing and in-sourcing of emitting activities where activities where not reported in the
base year under scope 2 or 3.
Changes in calculation methodology or improvements in the accuracy of emissions factors or
activity data; where significant.
Discovery of significant errors.
Organic growth or organic decline does not necessitate adjustments to the baseline.
The Carbon Report recommends the following readjustment policies:
Structural changes
A company that acquires, mergers with or divests of another company should include; or exclude in
the case of divestment; the emission sources from the acquired, merged of divested company in the
acquiring/divesting company’s base year inventory (and current year inventory) where the base year
falls prior to the structural change.
Where a structural change occurs in the middle of a reporting year, the GHG Protocol recommend
that emissions are not pro-rated, and total annual emissions are applied to the full base year and the
full reporting year.
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Methodology Changes
For a change in calculation methodology, we recommend that the GHG Inventory from the base year
forward is updated.
Changes due to an updated emissions factor will become necessary when the emission factor data
becomes available. A change in an emission factor will cause an update to the year the emission
factor applies to.
If an error has occurred, and its impact on emissions is significant, we recommend it is corrected and
the change noted.