The pharmaceutical industry is one of the vital sectors directly associated with human health and community well-being. However, its manufacturing and logistical operations contribute to carbon emissions due to energy consumption, raw material usage, transportation, storage, and distribution. Pharmaceutical supply chains consist of interconnected stages, beginning with raw material production and pharmaceutical manufacturing, followed by packaging, storage, transportation, and ultimately distribution to pharmacies and hospitals. Since each of these stages consumes energy and resources, reducing emissions and improving supply chain efficiency have become essential requirements for achieving sustainability in the pharmaceutical sector. Reducing emissions begins with the selection of raw materials and suppliers. Pharmaceutical institutions can minimize their environmental footprint by working with suppliers who comply with environmental standards and adopt sustainable production practices. Depending on availability, sourcing raw materials locally can also reduce transportation distances and the associated emissions. Furthermore, adopting more efficient production technologies with lower energy consumption, reusing materials, recycling chemical waste, and minimizing raw material wastage can significantly contribute to reducing environmental impact. Transportation is considered one of the major sources of emissions in pharmaceutical supply chains due to the use of road, air, and sea transport. These emissions can be reduced by expanding the use of electric and hybrid vehicles and optimizing transportation routes through digital systems and data analysis, thereby minimizing distances, travel time, and fuel consumption. Consolidating shipments and coordinating distribution operations can also reduce the number of trips and improve transportation efficiency. Storage and distribution also require particular attention, especially for temperature- and humidity-sensitive medicines, such as vaccines and biological products. Using highly efficient cooling and air-conditioning systems helps reduce energy consumption. Pharmaceutical warehouses can also benefit from renewable energy sources, particularly solar energy, to meet part of their electricity requirements. In addition, smart lighting systems and automated control technologies help optimize energy consumption and minimize waste. Digitalization and smart technologies play an important role in improving pharmaceutical supply chain efficiency and reducing emissions. Digital supply chain management systems enable accurate monitoring of transportation and storage operations, analysis of operational data, and identification of sources of waste and excessive energy consumption. Moreover, demand forecasting technologies help estimate actual pharmaceutical requirements more accurately, reducing overproduction, excess inventory, and product expiration. Consequently, emissions associated with unnecessary production, transportation, and storage operations can be minimized. Cooperation among manufacturers, suppliers, distributors, pharmacies, and hospitals is another essential factor in developing more sustainable pharmaceutical supply chains. Such cooperation may include sharing distribution facilities and services, coordinating shipping operations, developing programs for collecting and recycling pharmaceutical packaging and containers, and establishing common environmental standards that all stakeholders follow throughout the supply chain. Environmental training and awareness among employees are also fundamental to the success of emission reduction strategies. Daily practices, such as the efficient operation of transportation and refrigeration equipment, selecting appropriate shipping methods, conserving energy, and properly handling pharmaceutical and chemical waste, can significantly reduce environmental impact. Al-Mustaqbal University is the first one university in Iraq.