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As part of the routine work of the medical committees in the Israel Defense Forces, a unique nationwide computerized control system is being implemented to assess and manage medical processes. The purpose of this paper is to report on that implementation.

The computerized system consists of three main components: a specific status indicating the processes in each file, an appointment system, and an internal computerized system that uses a magnetic card for the regulation of the local waiting lists.

The combined computerized system improves the control and management of the medical processes and informatics from the point‐of‐view of both the patients and system operators. Different parameters of quality control regarding the medical and administrative processes are assessed (such as efficiency), and solutions are sought. Computerized system‐based design and re‐allocation of human and medical resources were implemented according to the capacities and limitations of the medical system. A reduction in the daily number of invited recruits improved the quality of the medical encounters. Specific combined status codes were introduced for the efficient planning of the medical encounters. Implementation and automation of medical regulations and procedures within the computerized system make the latter play a key role and serve as a control tool during the decision‐making process.

The computerized system allows efficient follow‐up and management of medical processes and informatics, led to a better utilization of human and medical resources, and becomes a component of the decision making by the system operators and the administrative staff. Such a system could be used with success in clinics, hospitals, and other medical facilities.

The purpose of this paper is to review cases of artificial reefs built through additive manufacturing (AM) technologies and analyse their ecological goals, fabrication process, materials, structural design features and implementation location to determine predominant parameters, environmental impacts, advantages, and limitations.

The review analysed 16 cases of artificial reefs from both temperate and tropical regions. These were categorised based on the AM process used, the mortar material used (crucial for biological applications), the structural design features and the location of implementation. These parameters are assessed to determine how effectively the designs meet the stipulated ecological goals, how AM technologies demonstrate their potential in comparison to conventional methods and the preference locations of these implementations.

The overview revealed that the dominant artificial reef implementation occurs in the Mediterranean and Atlantic Seas, both accounting for 24%. The remaining cases were in the Australian Sea (20%), the South Asia Sea (12%), the Persian Gulf and the Pacific Ocean, both with 8%, and the Indian Sea with 4% of all the cases studied. It was concluded that fused filament fabrication, binder jetting and material extrusion represent the main AM processes used to build artificial reefs. Cementitious materials, ceramics, polymers and geopolymer formulations were used, incorporating aggregates from mineral residues, biological wastes and pozzolan materials, to reduce environmental impacts, promote the circular economy and be more beneficial for marine ecosystems. The evaluation ranking assessed how well their design and materials align with their ecological goals, demonstrating that five cases were ranked with high effectiveness, ten projects with moderate effectiveness and one case with low effectiveness.

AM represents an innovative method for marine restoration and management. It offers a rapid prototyping technique for design validation and enables the creation of highly complex shapes for habitat diversification while incorporating a diverse range of materials to benefit environmental and marine species’ habitats.