ENGINEERING

Industrial engineering integrates scientific and mathematical principles to design, optimize and manage complex systems, improving efficiency and productivity in all sectors of industry.

Electroinstrumental engineering integrates principles of electrical engineering and instrumentation to design and manage advanced electronic systems. This discipline focuses on the measurement, control, and automation of industrial processes through the use of sensors, measuring instruments, and control devices.

Environmental engineering is a branch of engineering dedicated to solving environmental challenges. Environmental engineers design sustainable solutions to manage waste, preserve natural resources and address pollution. This discipline integrates scientific and engineering principles to promote practices that contribute to the health of the planet.

Computer engineering is the field of engineering dedicated to the development and management of computer systems. Computer engineers design software, develop algorithms, manage networks, and solve computational problems. This interdisciplinary discipline is crucial to the evolution of technology and impacts various industries, including communications, health and automation.

Civil engineering is an engineering discipline dedicated to the design, construction and maintenance of civil infrastructure. These include buildings, roads, bridges, dams and water systems. Civil engineers work to ensure the safety, functionality and sustainability of the structures that form the fabric of our communities.

Architectural engineering is the engineering field dedicated to the design and construction of buildings. Architectural engineers integrate engineering skills with design principles to create buildings that are safe, sustainable, and functional, considering structural, energy, and aesthetic aspects.

Energy engineering focuses on the production, conversion and management of energy. Energy engineers design sustainable solutions to meet growing demand, working on renewable sources, energy efficiency and advanced technologies to ensure a reliable and sustainable supply of energy.

BIM (Building Information Modeling) engineering deals with the design, construction and management of buildings using three-dimensional digital models. This discipline integrates detailed information to optimize design, construction and maintenance, improving efficiency and reducing costs.

ENGINEERING

ANTISEISMIC

Targeted adaptation interventions for various types of structures.

The inadequacy and structural vulnerability of buildings are still too widespread in Italy, a high-risk country in which seismic events such as earthquakes, even minor ones, are often disastrous both from the point of view of damage to the urban heritage and historical but also above all on a human level.

Ricam Group follows all the steps to seismically adapt a building, starting from the tests for the characterization of the materials, to the vulnerability analysis, then moving on to the structural and plant design, up to the executive intervention.

Reliefs of
precision with
Laser Scanner

Investigations on
materials through
invasive and
non-invasive testing
Analysis of
vulnerability
seismic


Structural design preliminary,
definitive and executive

Executive
intervention


Institutions and businesses can take advantage of the SismaBonus until 12/31/2024 for the development of the entire process
(from analysis to intervention) necessary to make the properties safe.

TEST &

TESTING LABORATORY

Structural and material investigations through invasive and non-invasive tests.

The good result of a structural recovery project bases its validity above all in the initial phase of knowledge through an in-depth campaign of preliminary on-site tests, without which it is difficult to correctly interpret both the mechanical resistance of the materials and the vulnerabilities inherent in the building quality .

Ricam Group, thanks to the vast typology of tests carried out, is able to choose the optimal diagnostic technique depending on the structural type, in order to deepen the knowledge of the different building phases of the existing structure, the quality and resistance of the materials, and the forms of degradation to which it is subject.

NON-DESTRUCTIVE TESTING

SEMI DESTRUCTIVE TESTS

DESTRUCTIVE TESTING

ROADMAP

OF MAINTENANCE

The strategic approach and the operational plan

For too many years the Italian industrial building heritage has been abandoned to itself.

Similarly to what is already foreseen for production plants, the presence of a monitoring and maintenance plan is also necessary for civil structures that allows for constant interventions to be carried out over time and with a slight economic impact, which allow serious restructuring interventions to be avoided. , often of very high amounts, which weigh on the pockets of entrepreneurs, public and private bodies, and citizens.

Ricam Group draws up the maintenance plan and aims to extend the average life of the building itself.

STEP 1
STEP 2
STEP 3

DIAGNOSIS

– 3D laser scanner survey
– Invasive tests and evaluation
– Vulnerability
– Finite element simulation
– Asset DB

PROGRAMMING

– Operational risk assessment
– Operational continuity assessment
– Support system
– Definition of maintenance program

IMPLEMENTATION

– Support for the definition of tenders
– Management support
– Monitoring
– Support for certification activities

REVERSE

ENGINEERING

3D modeling of existing systems and structures.

Through manual on-site surveys and laser scanner technology, Ricam Group is able to obtain a 3D model with specific software of the existing plant and structural elements.

The digital projection is implemented within the point cloud to obtain an always updated three-dimensional geometric model that can be queried by the user: a sort of “virtual twin” that allows the customer to always have the maintenance status of the building under control. building but above all to predict the times and costs of each individual intervention.

The operator can query the graphic interface and receive information relating to any structural element.

By associating a monitoring system, it can also interact in real time with the network of sensors installed in the field that send feedback on the health status of the building.

WHEN IT'S CAN IT BE DONE?

Reverse Engineering can be implemented both for new buildings but also and above all for existing ones, where the documentation has often been lost over time or does not adhere to what was actually built.

WHAT ARE THE BENEFITS?

Re-extraction of P&I documents and project tables

Optimization of design times in case of changes to lines and structures

Optimization of revamping project times conducted on the basis of models adhering to reality

Optimization of intervention execution times, avoiding problems and variations in execution

Rapid implementation of stress analysis, structural analyzes already having useful models for the calculation

Creation of integrated plant alarm systems or virtual training

DESIGN OF STRUCTURES and

INFRASTRUCTURES

We plan and design buildings by selecting the most suitable construction methods, materials and equipment for the project.

CIVIL AND INDUSTRIAL ARCHITECTURAL DESIGN

Care of the municipal process, management of subdivision and implementation plans, analysis of architectural restoration interventions and eco-sustainable green building design.


STRUCTURAL DESIGN AND TESTING

Design through static, dynamic and push-over analysis, verification of existing buildings, extensions and renovations, seismic improvements and adaptations, appraisals and consultancy, drafting of ordinary and extraordinary maintenance plans.

RENEWABLE ENERGY DESIGN AND ENERGY SAVING

Diagnosis, layout and energy saving projects for both existing and new buildings. Energy certifications and tax deductions for redevelopment interventions and consultancy for the rehabilitation of unhealthy environments.