342
L. Baiardi et al.
The approach is systemic and sees all the envisaged elements as necessarily and
systematically interdependent.
The technical–administrative due diligence (planning and construction) includes
the investigation of structural and energy diagnostics, thermal bridges and 3D BIM
output modelling.
In order to reconfigure and make real estate products on the market attractive, it
is necessary to develop the project to match the expectations of potential demand as
much as possible.
For this reason, it is necessary to carry out a suitable analysis of the competitive
supply and demand in the reference sector.
A functional benchmarking analysis was thus conducted in support of the identification of best business practices applicable to the Eco system Temporary House
model.
The underlying philosophy of the Benchmarking process consists of four elements/work phases:
– Knowing one’s activities;
– Knowing the business leaders or competitors;
– Incorporating the best;
– Achieving excellence in managing one’s activities (Ciaramella and Bellintani
2008).
The identification of the objectives/performance principles the building must
attain provides important information for the definition of the project, and as a result,
for the building-installation sub systems to be intervened on.
The building is designed as a highly technological eco-system designed in an
integrated manner in its architectural, structural and installation parts, thanks to the
use of Building Information Modelling software (BIM).
A BIM model not only represents the geometry of the project, but it contains within
it all the technical, scientific, commercial and economic information that allows us
to have a complete virtual representation of the work planned as the final result, with
all the benefits arising from it.
The use of BIM also contributes to the creation of a database capable of containing
technical and economic information.
This form of archiving makes it possible to correlate the considerable amount of
information necessary in order to maintain an active management of the real estate
assets. This information can provide further support in forecasting and monitoring
of maintenance activities.
Building information management is the basis of the standards and requirements
applied to the data aimed at the use of BIM. The continuity of data allows an effective
exchange of information in a context in which sender and receiver understand the
information (Va BIM Guide 2010).
The mitigation of the impact on the territory in terms of lower emissions is pursued by applying a “circular” system to the building sector system translated into
energy and structural redevelopment interventions, choice of materials and products
designed to be circular.
L. Baiardi et al.
The approach is systemic and sees all the envisaged elements as necessarily and
systematically interdependent.
The technical–administrative due diligence (planning and construction) includes
the investigation of structural and energy diagnostics, thermal bridges and 3D BIM
output modelling.
In order to reconfigure and make real estate products on the market attractive, it
is necessary to develop the project to match the expectations of potential demand as
much as possible.
For this reason, it is necessary to carry out a suitable analysis of the competitive
supply and demand in the reference sector.
A functional benchmarking analysis was thus conducted in support of the identification of best business practices applicable to the Eco system Temporary House
model.
The underlying philosophy of the Benchmarking process consists of four elements/work phases:
– Knowing one’s activities;
– Knowing the business leaders or competitors;
– Incorporating the best;
– Achieving excellence in managing one’s activities (Ciaramella and Bellintani
2008).
The identification of the objectives/performance principles the building must
attain provides important information for the definition of the project, and as a result,
for the building-installation sub systems to be intervened on.
The building is designed as a highly technological eco-system designed in an
integrated manner in its architectural, structural and installation parts, thanks to the
use of Building Information Modelling software (BIM).
A BIM model not only represents the geometry of the project, but it contains within
it all the technical, scientific, commercial and economic information that allows us
to have a complete virtual representation of the work planned as the final result, with
all the benefits arising from it.
The use of BIM also contributes to the creation of a database capable of containing
technical and economic information.
This form of archiving makes it possible to correlate the considerable amount of
information necessary in order to maintain an active management of the real estate
assets. This information can provide further support in forecasting and monitoring
of maintenance activities.
Building information management is the basis of the standards and requirements
applied to the data aimed at the use of BIM. The continuity of data allows an effective
exchange of information in a context in which sender and receiver understand the
information (Va BIM Guide 2010).
The mitigation of the impact on the territory in terms of lower emissions is pursued by applying a “circular” system to the building sector system translated into
energy and structural redevelopment interventions, choice of materials and products
designed to be circular.