LCA & material health results & interpretation Small Profile High-Efficiency Urinal UT105U(V)(G)
Scope and summary
- Cradle to gate
- Cradle to gate with options
- Cradle to grave
Functional unit
One urinal in an average U.S. commercial environment that functions for 10 years. The period of 10 years is modeled as the period of application based on the average technical lifespan for commercial applications. The economical lifespan of commercial applications can be longer or lower due to aesthetic replacements or more intense use. The implication is that the LCA model assumes that the application ends at year 10 and that the materials will be treated in an end-of-life scenario.
Reference service life: 10 years
Default use phase scenario
10 years of service in an average U.S. commercial environment with 0.125 gallon/use and 18 uses/day during 260 days/year resulting in 5,850 gallons of water.
What’s causing the greatest impacts
All life cycle stages
The production stage is dominating all impact categories. Results show that the use stage is less dominant than the production stage, yet it is still significant in most of the impact categories. This is mostly due to the embedded energy arising from acquisition, treatment and distribution of the water used during the operation of the product (4-26%). The contributions covered under the construction/installation stage are mostly associated with the product delivery to the market. The recovery stage includes recycling benefits by preventing the need to produce primary materials. Recycling is a relevant factor for some of the impact categories, offsetting a portion of the impacts caused by production. Additionally, the delivery of the product to the construction/installation site as well as the processes for dismantling the product and final waste treatment during the end of life stage are slightly relevant in the global warming impact category.
Production stage
The ceramic parts dominate all impact categories except for eutrophication, non-carcinogenics and carcinogenics. The brass parts together with the turning brass process have dominating contributions to the eutrophication, non-carcinogenics and carcinogenics impact categories. The remaining parts and processes contribute between 2% and 32% of the overall impacts in the rest of the categories.
TOTO PeoplePlanetWater™ programs improving environmental performance
- Dual-Max®, E-Max®, Tornado Flush™, 1G®, and EcoPower® reduce water consumption in the use phase
- Energy efficiency programs optimize the firing process
- 50% electricity from renewable energy
- 100% of post-industrial ceramic waste is recycled
LCA results
Life cycle stage | Production | Construction | Use | End of Life | Recovery |
Information modules: Included | Excluded* Operational energy use is irrelevant to the life cycle of the modeled product. Reuse and energy recovery are not modeled for toilets and/or urinals. |
A1 Raw Materials | A4 Transporation/ Delivery | B1 Use | C1 Deconstruction/ Demolition | D1 Recycling |
A2 Transportation | A5 Construction/ Installation | B2 Maintenance | C2 Transportation | D2 Recovery | |
A3 Manufacturing | B3 Repair | C3 Waste processing | D3 Reuse | ||
B4 Replacement | C4 Disposal | ||||
B5 Refurbishment | |||||
B6 Operational energy use | |||||
B7 Operational water use | |||||
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SM Single Score
Learn about SM Single Score resultsImpacts per 10 years of service | 10.01 mPts | 0.23 mPts | 1.54 mPts | 0.06 mPts | -0.71 mPts |
Materials or processes contributing >20% to total impacts in each life cycle stage | Ceramic parts production as well as well zinc and brass parts together with zinc turning process. | Transportation of the product to installation site or consumer and disposal of packaging. | Volume of water use during the operation of the product and the embedded energy use (such as electricity) in the water used. | Transport to waste processing, waste processing and disposal of material flows transported to a landfill. | Plastic and metal components' recycling processes. |
TRACI
Life cycle stage | Production | Construction | Use | End of Life | Recovery |
Ecological damage
Human health damage
Resources depletion
Impact category | Unit | |||||
Fossil fuel depletion | MJ surplus Mega Joule surplus Fossil fuel depletion is the surplus energy to extract minerals and fossil fuels. |
1.65E+02 | 4.10E+00 | 1.35E+01 | 9.86E-01 | -2.23E+00 |
References
LCA Background Report
TOTO Sanitary Ceramic Products LCA Background Report (public version), TOTO 2014
SM Transparency Report Framework
Part A: Calculation Rules and Background Report Requirements v2018 (compliant with ISO14040-44, ISO14025, and EN 15804)
Part B: Product Group Definition – Commercial Urinals
"Transparency Reports™ / environmental product declarations enable purchasers and users to compare the potential environmental performance of products on a life cycle basis. They are designed to present information transparently to make the limitations of comparability more understandable. TRs/EPDs of products that conform to the same PCR and include the same life cycle stages, but are made by different manufacturers, may not sufficiently align to support direct comparisons. They therefore, cannot be used as comparative assertions unless the conditions defined in ISO 14025 Section 6.7.2. ‘Requirements for Comparability’ are satisfied." EPDs from different programs (using different PCR) may not be comparable. TRs/EPDs cannot be compared if they do not have the same functional unit, reference service life, and building service life.