Environmental management and sustainable development during industrial transformation. Building functioning environmental impact systems at high-hazard enterprises. Integrating ecological departments into the ESG strategy.
Implementation of low-temperature pyrolysis technology for the disposal of carbon-containing waste (tires, oils, oil-containing materials) at remote construction sites. The project enabled on-site waste processing, the production of secondary resources (pyrolysis fuel, gas, ash-mineral residue), and a significant reduction in logistics costs and third-party contractor services.
The article describes the practical experience of creating an eco-friendly and comfortable working environment using the company Gazstroyprom as an example. The author explains how the implementation of separate waste collection, resource conservation, electronic document management, and eco-education helps build useful eco-habits among employees. Caring for the environment in the workplace enhances the comfort and safety of personnel, directly contributing to productivity growth and the overall...
Integrating environmental safety culture principles into the production waste management system. Implementing environmental requirements in procurement documentation, mandatory development of Work Execution Plans (WEP) by contractors with waste generation schedules, and using visual waste management diagrams at workplaces.
A comprehensive system for identifying and managing environmental risks at the design and operation stages of industrial facilities. It includes monitoring regulatory changes, independent ESG risk assessment for investment projects, and regular quality audits of instrumental emission control.
Implementation of applied science climate projects jointly with a university, including greenhouse gas monitoring in peat bogs and the creation of an integral biodiversity map for safe infrastructure design. Implementation of an online equipment energy consumption monitoring system and infrared scanning to find methane leaks in order to reduce the carbon footprint.
Implementation of a unified environmental risk management methodology for major investment projects using a 5x5 matrix, criticality attributes (showstopper, schedule delay, budget increase), and measure effectiveness evaluation. The process is automated in the Insight information system module, and face-to-face cross-functional risk sessions are held at each project Stage-Gate or annually.
Transformation of the environmental risk management system at a large metallurgical enterprise, transitioning from reactive violation recording to proactive analysis. The practice involves engaging the production unit by translating environmental deviations into technological and financial risks, and changing the ecologist's role from controller to internal analyst.
Integrating HSE and environmental goals into the overall business strategy of a food industry company with regular reporting to the management board. Implementing a management system based on ISO 45001 and ISO 14001 standards, using Yandex Forms to collect near-misses and safety tags, and linking employee career growth to HSE knowledge.
The article considers the application of cogeneration power plants at enterprises as an effective way to adhere to ESG principles and increase energy efficiency. The use of modular units running on natural gas allows simultaneous production of thermal and electrical energy, reducing the need for purchased resources. The implementation of cogeneration ensures independence from external power supply, reduces energy production costs, and complies with environmental regulations.
Implementation of innovative emulsion-aerosol fire suppression technology at tank farm loading racks. Transitioning to bottom loading systems to minimize risks of static electricity and falls from height, as well as comprehensive work with contractors using 3D simulators and joint exercises with EMERCOM.
Comprehensive implementation of the climate agenda and circular economy principles in a large industrial holding. Introduction of CO2 capture and storage technologies, use of UAVs and AI for emissions and safety monitoring, and creation of a closed-loop recycling system for rubber products using pyrolysis.
The transition of a pharmaceutical production facility to in-house power generation (gas reciprocating units) and water supply (artesian wells). Eliminating unscheduled equipment shutdowns due to external network failures reduces the need for emergency repair work and minimizes risks for operating personnel.