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The document outlines the application of mapping and navigation tools for invasive alien plant (IAP) management. It explains the use of different map scales, specifically recommending 1:10,000 for identifying Natural Biological Alien units (Nbals), and describes the utility of topographical and aerial maps for assessing terrain and accessibility. Additionally, it provides instructions on using magnetic compasses to determine bearings and GPS devices to record coordinates of landmarks for later retrieval.

The document explains how to reduce home heating and cooling expenses by improving the building envelope. It details the physics of heat loss and gain, provides guidance on selecting and installing insulation materials, offers methods for identifying and sealing air leaks, and evaluates various window upgrade options from low-cost films to full replacements.

The document argues that conventional 'drop-and-store' and 'flush-and-discharge' sanitation systems are unsustainable due to water scarcity, pollution, and nutrient loss. It proposes ecological sanitation (eco-san) as a closed-loop system that treats human urine and faeces as resources. The guide details technical methods for sanitizing excreta—primarily through dehydration and decomposition—and provides diverse examples of eco-toilets from Vietnam, China, Zimbabwe, and Sweden. It emphasizes the agricultural value of recycled nutrients, the management of greywater, and the necessity of community participation and behavioral change for successful implementation. The document concludes with a vision for 'eco-cities' and 'eco-stations' to manage urban waste sustainably.

The document outlines a framework for 'green building' that prioritizes materials with low embodied energy, minimal toxicity, and high recyclability. It argues that the Industrial Revolution's reliance on fossil fuels and non-local materials has stressed global life support systems and degraded indoor air quality. The author recommends specifying low-VOC products, utilizing local masonry or adobe, and considering the high carbon footprint of cement, which accounts for over eight percent of human CO2 emissions worldwide. The guide also compares the energy efficiency and environmental trade-offs between steel and wood framing, while advocating for engineered wood products and reclaimed timbers to protect old-growth forests.

This document is a work package guide (Doc No.: 192/E/6, Revision 2) for the inspection and calibration of the Continuous Emission Monitoring System (CEMS) at the Ankerlig Power Station. It outlines the safety precautions, required tools, and step-by-step technical procedures for maintaining general equipment and calibrating NO, CO, and SO2 analysers.

The Climate Bonds Initiative (CBI) has expanded the Climate Bonds Standard version 2.1 to include a wider variety of debt instruments for certification. Beyond standard bonds, eligible instruments now include revenue bonds, project bonds, securitized bonds, green bond funds (specifically the debt instruments they issue), convertible bonds, Schuldschein loans, syndicated loans, loan facilities, commercial paper, bilateral loans, and Sukuk. The document defines these instruments and provides examples of certified entities, such as NAB, ANZ, and Nordex, to support the mobilization of debt capital for climate solutions.

The document defines first-loss facilities as tools that absorb the earliest layer of losses to reduce risk for senior investors, while second-loss facilities provide an additional protective layer after the first is depleted. These instruments are particularly relevant for adaptation, resilience, and nature-based solutions where projects often have variable returns and limited track records. The text details the roles of commercial and public providers, the impact on debt sustainability, and the internal and regulatory capacities required for governments to integrate these structures. It also outlines challenges to uptake, such as limited technical expertise in Ministries of Finance and high transaction costs for adaptation projects.

The document outlines the structure and access requirements for the Climate TRACE public dataset on Google BigQuery, including a detailed data catalog of emissions, metadata, and sector-specific tables. It provides step-by-step instructions for querying the data, managing permissions, and exporting results via CSV, JSON, or Parquet formats, while noting that query costs are borne by the user.

The document describes coal ash as a toxic industrial waste stream containing carcinogens and neurotoxins that contaminate air, soil, and water when improperly managed. It evaluates various disposal methods, identifying unlined surface impoundments as the most hazardous and encapsulated reuse in concrete or gypsum as the safest. The guide outlines specific technical standards for landfills and ponds—including impermeable liners, groundwater monitoring, and siting prohibitions—and argues for enforceable, site-specific permits and financial assurance to ensure long-term remediation.

The document outlines how municipal wastewater treatment works (WWTWs) in South Africa can reduce energy consumption and carbon footprints through optimized sludge management. It details specific technical interventions in primary sedimentation, dewatering, thickening, and stabilisation, while providing a business case for biogas production and a framework of financing mechanisms for implementing these energy efficiency projects.

The document explains the functionality of the mapping tool, which allows users to toggle city boundary layers and compare land use and land cover maps from 2015 and 2019 against a permanent Google satellite map background.

The Mini-Grid Emissions Tool, developed by Sustainable Energy for All (SEforALL), addresses the lack of standardized carbon tracking in the mini-grid sector. Unlike previous methods that rely on a single default emissions factor and total energy generated, this tool calculates emissions avoided based on actual energy consumed and the diverse range of previous energy sources used by customers. It incorporates specific data for different household energy access tiers, kerosene lamp types, and fossil fuel generator efficiencies to provide a more accurate estimate of climatic benefits.

The document provides technical instructions for using the Demand Branch Properties screen in LEAP to specify the fuel economy of newly purchased vehicles. It details the available units of measurement, the use of lifecycle profiles to account for vehicle aging, and the software's ability to automatically calculate stock average fuel economy based on sales and survival data. It also emphasizes the importance of entering historical fuel economy values to ensure accurate base year stock average calculations.

The document provides technical instructions for referencing results variables in LEAP, detailing the syntax for scaling and filtering by dimensions such as fuel or cost. It specifies that results variables generally require the use of functions like PrevYearValue to reference past data, except when defining calculated Indicator variables.

The document provides technical instructions for using the IBC tab in LEAP settings to manage health impact calculations and particulate matter scaling. It details how to create Key Assumption Branches to switch between different versions of the Global Burden of Disease relative risk functions (2010, 2015, 2019), two different PM scaling methods (including one based on van Donkelaar, 2016), and IIASA ECLIPSE background emission scenarios (versions 5 or 6).

The document provides technical instructions for creating models in LEAP that combine exogenous and endogenous variables. It details the naming syntax for referencing branches and variables, the process for specifying scaling factors and units, and the use of tag filters to limit summed branches. Additionally, it covers the referencing of fuel characteristics, molecular weight constants, and data from the TED database.

The document describes the functionality of TED for entering environmental loadings, highlighting the use of mathematical expressions to link emissions to fuel composition data stored in LEAP.

The 'Renewable Qualified' variable allows users to specify the percentage of a process's output that is considered renewable, ranging from 0% to 100%. While typically used for wind, solar, hydro, and biomass, the document warns that users can manually mark any process as renewable regardless of feedstock, and notes that some hydro and biomass projects may not meet specific Renewable Portfolio Standard (RPS) qualifications.

The document explains the process of creating named geographic mappings in LEAP by importing raster GIS data files, which are then used to allocate energy and emissions results to a common grid for visualization. It details supported file formats, the software's ability to automatically re-scale and normalize data, and the memory-based cell limits for 32-bit and 64-bit versions of the application. Additionally, it lists external GIS data providers such as NASA's SEDAC, ESRI, the World Resources Institute, and the United Nations Environment Programme.

The Time-Series Wizard is a three-page tool in LEAP used to create time-series expressions through various mathematical functions and data sources. Users can select from interpolation, step functions, and smooth curves for future data points, or use linear, exponential, and logistic projections to extrapolate from historical data. Data can be entered manually via keyboard, imported or linked from Microsoft Excel, or retrieved from the LEAP Cloud Database Server (LCDS), which provides international open-source data on energy, emissions, and development.