
30 years of designing optical systems for automotive, medical, and general lighting — the experience of a lifetime dedicated to creating superior optical solutions.
OPTICAL SYSTEMS DESIGN
Area Luce designs and manufactures optical components and systems for the automotive, aerospace, medical, and industrial sectors.
Founded in 2020, the company evolved from the former Optical Design Center (O.D.C.), a consulting firm active since 2010 in the design and development of optical and opto-mechanical systems and components.
Our goal is to provide both optical design expertise and manufacturing capability, offering our customers a comprehensive solution — from concept development and feasibility studies to the final product, whether individual components or complex systems.
To achieve this, we collaborate with highly qualified partners and specialized suppliers. This synergy allows us to maintain full control of the production process and ensure consistent quality across every stage.
We provide support at every stage of the production process, adapting to each customer’s specific requirements — from the initial concept, where we evaluate feasibility and define technical specifications, to design, prototyping, and final production.
When customers manage manufacturing internally, we can assist during the design phase or supply the required optical components. Conversely, if they develop the design in-house, we offer support in prototyping and production.
We also work closely with our clients to assess feasibility, functionality, and identify opportunities for design simplification and optimization.
MISSION
Our expertise covers both optical imaging and lighting systems.
We are committed to delivering the best possible visual experience across a wide range of contexts — from urban, interior, and museum lighting to medical applications.
Beyond the visible spectrum, we also design systems that extend human vision into other wavelength ranges, enabling access to valuable — and sometimes vital — diagnostic information.
In addition to ensuring the highest lighting quality in terms of uniformity, intensity, and color performance, we pursue excellence in optical imaging, providing our customers with the most effective imaging solutions — from camera optics and microscopy to projection systems.

HOW WE OPERATE
Our design process adapts to the specific field of application.
In optics, different types of modelling approaches can be employed — from geometrical to physical and radiometric/photometric modelling.
Each method is suited to analyzing the behavior of light and electromagnetic waves, and to interpreting the phenomena associated with them.
We use a range of specialized tools and simulation environments, each selected according to the nature of the optical system and the type of analysis required.
SOFTWARE SOLUTIONS EMPLOYED
Optical and optomechanical design necessarily involves tailored software solutions, which allow to analyze and optimize the systems of interest and to obtain reliable results. An important part of our resources is invested in software instruments, so that we can always rely on the best tool for each specific sector. Despite this, it may still be necessary in some circumstances to supplement them with specific features, which we autonomously provide for.
IMAGING OPTICS
In the field of imaging optics, once the project goals are defined, a preliminary paraxial design of the optical system is developed and then processed using Zemax.
The ideal optical system derived from this process defines the focal points, focal plane, and conjugate points of the final model, allowing for the calculation of its magnification.
Once the paraxial analysis is completed, we evaluate the real dimension of the object, considering off-axis aberration and providing their minimization. This optimization activity involves the modification of the power of the optical elements, splitting some of them into additional parts and modifying their positions.

NON IMAGING OPTICS
In the case of non-imaging optics, namely systems in which the main objective is represented by the radiative energy transmission, a different approach is required. In such instances, sources are carefully modelled, and radiation is analyzed in the way it interacts with the specific targets. These are firstly modelled in the mechanical CAD, then characterized and simulated in the optical CAD.

In the optimization of the system, the characteristics of the active parts are modified in order to achieve the required illuminance/luminance at the targets.
Depending on the aim of the study, the distribution of irradiance is optimized or, alternatively, the spectral composition or the total amount of energy collected/gathered and emitted/channelled in specific directions.

LASER APPLICATIONS
A different approach concerns laser applications, used in “time of flight” systems where the system emits and receives the laser signal within the same device and uses the delay between emitted and received pulse to calculate the object positions.
Lasers, due to their physical characteristics, must be considered separately from illumination systems, and their modelling requires specific instruments and skills.
Several types of lasers exist and Zemax provides for specific modellings for each of them, both in “far field” and “near field”.

















