Having sustainable facilities and applying sustainable policies is the first step towards a better, safer and more resilient world.
Focusing on environmental impact, the following topics will be shared through a recent case study of a new biotech pharmaceutical facility. Considering pharmaceutical sustainability, the outcomes of the applied design solutions will demonstrate relevant sustainable and economic benefits.
Decarbonization is one of the most challenging targets of the present century. The problem complexity is enormous as GHG emissions are linked to almost every activity related to a company: production processes, services, business travel commuting and all supply chain activities.
Read the full article to find out how some sustainable engineering solutions for a new biotechnological manufacturing facility have contributed to the reduction of Scope 1 and Scope 2 emissions, generating a triple effect and positively impacting Scope 3 emissions throughout the supply chain.
Regarding manufacturing plants, the complexity of achieving energy efficiency increases because both personnel behaviors and equipment operations can impact the plant’s energy efficiency and often, the energy consumption is not accurately aligned with actual needs.
Read the full article to find out the three tmain measures applied and its results to improve energy efficiency for a new biotechnological manufacturing facility: the building envelope insulation improvement, the hot water production through a heat recovery chiller and the supply air flow rate in classified areas.
The conservation of resources is one of the pillars of sustainability for the protection of the environment. The demand of water by industrial manufacturing facilities is significant, generating a considerable footprint on the entire planet. Water is used in the industry for different purposes, among which are primarily manufacturing processes (dissolution, dilution), washing and rinsing, heat transfer (heating and cooling), hygienic services, safety (firefighting), and steam generation.
Read the full article to find out how to optimize the use of water by implementing design solutions and good practices for plant operations and maintenance.
By embracing circularity, we aim to optimize resource use, reduce waste, and mitigate our footprint on the planet. To effectively implement circularity principles, we must first understand everything involved in the processes. This includes considering inbound and outbound materials and goods, as well as solid, liquid, gaseous effluents and auxiliary services and functions.
Read the full article to explore how implementing circularity principles in material selection, facility design, and operational practices can significantly reduce waste and effluents, enhancing sustainability in pharmaceutical manufacturing.
“Sustainable engineering for us is not only just about reduction, recycling, and reuse. It’s a concept that extends above this general paradigm. It’s about adding value by developing projects that have a positive impact on society and that contribute to environmental concerns mitigation in a sustainable way for businesses.”
Pier Angelo Galligani
Partner, Head of Sustainability and Innovation Depts.
at Techniconsult Group
“Sustainable design starts with respect founded in the awareness of the value represented by human beings, including their rights and by nature, hosting and welcoming them. Understand that design elements and choice originate through nature and directly interact with it, causing short and long-term consequences. This drives what we bear in mind when designing a project: life cycle optimization utilizing full integration of technology and innovation with good design practice can lead to materials, energy and waste reduction, with possibly significant future economical benefits.”
Mariella di Franco
Engineering Operations & Technical Director
at PQE Group
Assessment «E»
Gap Analysis
Feasibility Study
Implementation Plan
Design
Construction
Commissioning
Qualification (if applicable)