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Article

The EMAS Registration of the Livenza Furniture District in the Province of Pordenone (Italy)

1
Department of Economics and Statistics, University of Udine, Via Tomadini 30/A, 33100 Udine, Italy
2
Metalmont, Via G. Marconi 92, 31020 Revine Lago (TV), Italy
3
ARPA Friuli Venezia Giulia, Via delle Acque 28, 33170 Pordenone, Italy
4
Unione Industriali Pordenone, Piazzetta del Portello 2, 33170 Pordenone, Italy
*
Author to whom correspondence should be addressed.
Sustainability 2020, 12(3), 898; https://0-doi-org.brum.beds.ac.uk/10.3390/su12030898
Submission received: 29 November 2019 / Revised: 16 January 2020 / Accepted: 23 January 2020 / Published: 25 January 2020

Abstract

:
One of the most important manufacturing areas of the Friuli Venezia Giulia region is the territory close to Pordenone, the Livenza furniture district. This industrial district, consisting of industries of wood, wood and cork products, furniture, straw articles, and weave materials, located in 11 municipalities of that area, was the first Italian district to obtain the Eco-Management and Audit Scheme (EMAS) Registration in 2006. Data and information from a questionnaire compiled by more than 100 firms and 11 municipalities of the district were used to draw up the territorial environmental analysis (TEA). For the EMAS registration renewal, obtained in 2016, the TEA was updated by reviewing the methodology of the environmental impact evaluation: the ecological footprint (EF) was compared with the carrying capacity (CC) of that area. The results put in light that the EF was greater than the CC. Several actions for reducing the environmental impacts of the district activities were highlighted.

1. Introduction

The bound between enterprises and environment is strong. Water footprint [1,2], carbon footprint [3,4], ecological footprint (EF) [5], life cycle assessment (LCA) [6] are used as recent indicators/tools of environmental sustainability, in the perspective of sustainable development goals [7].
The European Community (EC) chose the Eco-Management and Audit Scheme (EMAS) regulation as one of the tools to reduce environmental impacts of firms [8]. The development of the EMAS registration procedure has required a long period from the first version, which was limited only to industrial sites, to the actual third (the fourth version is ongoing): it can be adopted by all kinds of organizations, as services and public administrations.
In Italy, the European Commission (EC) Regulation No 761/2001 [9], known as EMAS II, enabled small and medium enterprises to improve the competition on the market fitting well in the Italian economic system [10]. The EMAS II Regulation required an elaboration of the environmental indicators using a common methodology, in order to obtain homogeneous data, easily comparable among the organizations of a specific sector [11].
In 2006, the Livenza furniture district, located in the province of Pordenone (Italy), was the first Italian industrial district that obtained the EMAS registration. The “Rapporto di Analisi Ambientale Territoriale del Distretto del Mobile di Pordenone (Report of Territorial Environmental Analysis (TEA) of the Furniture District of Pordenone), published in 2006, described the methodology adopted for the EMAS obtainment. A network of institutional subjects, Regional Agency for Environmental Protection of the Friuli Venezia Giulia region (ARPA FVG), Industrial Union of Pordenone, with the involved municipalities and the Friuli Venezia Giulia region, developed some ideas to reduce the environmental impact of the local productive furniture chain, starting from the environmental matrices and their pollution [12].
The EC No 1221/2009 Regulation [13], the so called EMAS III, gives more importance to the environmental performances of the organizations in all economic sectors [14,15], but the more restrictive rules for obtaining the registration caused a decrease of EMAS registrations in Italy in 2009 and 2010 [16]: because of the global crisis, since 2015, many organizations, in particular, small firms operating in the South of Italy, decided not to renew the EMAS registration [17].
Anyway, in 2016 the Livenza furniture district obtained the renewal of the EMAS registration and during the month of June 2017, one of the checks, periodically foreseen by the registration, ended with success [18].
The EMAS registration represents an occasion for all the organizations to foster not only the environmental objectives, but also the economic ones [19], as required by the strategic document “Circular Economy Package”, adopted by the European Commission [20], to drive European countries towards a more sustainable economic growth, in the perspective of a circular economy.
EMAS regulation leads companies to reduce energy and raw material consumption, optimizing waste production as well [21,22], to respect the law limits using the environmental indicators, stimulating the industrial symbiosis [20].
In 2017, Italy was the first European country for the number of certified EMAS organizations, 990, and sites, 1669, representing respectively 25% and 15% in Europe [16].
Literature shows many papers on EMAS registration: in the wood furniture sector [4,6,10,23], in Italian organizations [8], in Italian industrial districts [10,11,24,25,26,27,28]. In this work, an apart section is dedicated to a framework literature on registered EMAS Italian industrial districts.
Regarding industrial districts, the EMAS III Regulation further introduced the aim of involving all stakeholders of the territory, with public administration support, in order to improve not only the environmental performances of the considered area, but also to start up transparent and proactive communication with citizens [11].
Actually, a beneficial relationship with the stakeholders had already been pursued by the Livenza furniture district in occasion of the first EMAS registration in 2006. For its EMAS registration, updated in 2016, the methodology was improved: the EF [29] was compared with the carrying capacity (CC) of the territory.
This work not only proposes a methodology for understanding where and how the industrial productions of the Livenza furniture district exceeds the available natural resources [30], but also provides significant information about what can be improved for a sustainable future of the involved environment.

2. EMAS Cluster Approach Literature

Since the revision of 2001, particularly by means of following specific regulatory acts, the EMAS Scheme allows all types of organizations to obtain EMAS registration, and promotes, in particular, the participation of Small and Medium Enterprises (SMEs) for which special opportunities are provided (such as to obtain a common registration) in the case of SMEs operating in well-defined geographical areas and producing the same or similar goods or services [9,10,26].
The third edition of EMAS Regulation [13] formally introduced the “EMAS cluster approach”. This opportunity well suited the application of EMAS Regulation in the Italian production system, in particular, because of the widespread presence of industrial clusters.
The application of the EMAS Scheme at the cluster level stimulated research about this topic.
For example, in 2005 a study performed by Citterio and Pizzurno aimed at understanding if the EMAS Cluster Approach had found application in the Italian industrial district context. Three case studies were taken into consideration and the study resulted in the definition of a track describing the steps, allowing an effective adoption of an environmental management system in industrial areas [10].
In 2012, Daddi et al. described the method adopted in a European project, involving the EMAS cluster approach, named Innovations for a “Made Green IN Europe” (IMAGINE), for the application of new tools (aimed at pursuing sustainability) to industrial clusters. From the study, the effectiveness of the opportunities offered by sustainability tools involved in the project emerged. The methodological approach of the project was considered worthy to be transferred in other supply chains and clusters [25].
The implementation of EMAS tools at the industrial district level was monitored by ISPRA (ISPRA Indagine conoscitiva) [11,24].
Another study was aimed at determining the effectiveness of Italian EMAS Cluster Certificate in: the involvement of local stakeholders, the creation of networks among cluster organizations, the improvement of environmental performance of the area, and the increase in EMAS single registration. From the study, it emerged, in particular, that Italian EMAS Cluster Certificate was considered effective in improving environmental performance of the area and enhancing cluster image, anyway only few companies were interested in EMAS registration due to the costs involved and the absence of incentives available from public institutions [26].
A study performed by Tessitore et al. [27] compared different experiences involving the cluster approach for the environmental management of SME, including the implementation of the EMAS Scheme.
An evaluation of the effectiveness of EMAS Cluster Approach when applied to environmental policies was made considering the case study of the industrial paper production cluster located in the Province of Lucca (Italy) [28]. Data collected from the companies of the specific industrial district, before and after the adoption of EMAS, were used to compare the environmental performance indicators for the Lucca’s paper industry. Considerable improvements for many environmental performance indicators were found.

3. Methods

In 2005, data and information were gathered by questionnaires sent to the enterprises and to the municipalities of the district, and by interviews with the main stakeholders of the territory.
The purpose of the questionnaire for the enterprises was to evaluate the socio-territorial impact of the enterprises of the district, by collecting information, in particular, about water supply and characteristics of industrial sewage, consumption of raw materials, waste production and management, energy consumption, noise, use of dangerous substances, electromagnetic pollution, transport impact and mobility, fire risk. Likewise, the purpose of the questionnaire for the municipalities was to evaluate the socio-territorial impact of the municipalities of the district, by collecting information, in particular, about water supply and characteristics of municipal and industrial sewage, waste production and management, energy consumption, emissions into the atmosphere, noise, electromagnetic pollution, soil and subsoil contamination, systems of mobility and transport of people and goods, soil occupation by production and residential activities, visual impacts, fire risk.
The purpose of the interviews with the territorial stakeholders was to know the following parameters: the environmental “state” as regards the peculiar environmental patterns, linked to the laws in force, the “answer” adopted by the in-charge authorities as regards the improvement of environmental strategies and its resources management and, finally, the population feedback over the criticalities pointed out on environmental topics.
Practically, a TEA was drawn up and allowed an overall evaluation of the environmental problems, which are joined with the productive activities of the furniture district by:
-
The characterization of the environmental scenario where the district is located;
-
The analysis of the furniture chain, by identifying the activities characterizing the production processes;
-
The identification and assessment of the environmental aspects and relative impacts deriving from the activities of the firms of the district;
-
The identification of the support processes for the enterprises of the furniture chain and of their environmental aspects;
-
The identification of the legislative rules for the furniture chain firms;
-
The identification of the activities of the municipalities and of the other local authorities of the district area;
-
The evaluation of the relationships among the environmental aspects, in terms of technical and managerial organization, both of public and of private authorities, present in the district.
Therefore, in the TEA data and information were reported:
-
Related to the territory of competence of the district;
-
About the environmental aspects and impacts of the furniture chain;
-
About the environmental aspects and impacts of the local authorities of the territory in which the district is located.
In 2015, environmental data and information, which ARPA FVG had already collected by the enterprises for its institutional purposes, were employed. Data and information relative to enterprise characteristics were taken from the Registro Imprese database by Infocamere [31].
All these data and information were employed to update the TEA and, in particular, to compare the EF of the district with the corresponding CC.

4. Case Study Presentation

The Italian Law No 317/1991 [32] defined industrial districts as territorial systems, geographically limited and constituted by close areas, characterized by a high concentration of small and medium enterprises with the same productivity specialization. An industrial district is an optimal ambit for the integrated growth of competitiveness, since it is possible to exploit the same infrastructure to manage environmental impacts (wastewater treatment plants, waste production, etc.). In this area, public administrations have an important role, promoting the sustainability culture and financing local enterprises to achieve a high environmental level, contributing in this way to maintain and improve working and human resources [10].
With the Act No 457 of 3 March 2000 [33], the Friuli Venezia Giulia region identified the territory typified by the economic category “furniture manufacturing” according to ISTAT classification 36.1—Economic Activities (ATtività ECOnomiche—ATECO) 2002 [34] in the municipalities of Azzano Decimo, Brugnera, Budoia, Caneva, Chions, Fontanafredda, Pasiano di Pordenone, Polcenigo, Prata di Pordenone, Pravisdomini, and Sacile. Actually, the production chain involves also enterprises settled in the Veneto region, in the municipalities of Mansuè, Motta di Livenza, and Oderzo.
The Livenza district production includes different types of home/office furnishing, like kitchen units, living rooms, bedrooms, bathrooms, office furniture and seats, complements. Furthermore, several components of the furniture chain, such as shutter doors, drawers, and semi-manufactured articles, are produced by some enterprises of the same area, leader at the national and international levels.
Furniture production chain follows three main process flows: preparation of wooden blocks, for furniture or parts of it, made in solid wood; production and melamine coating of panels, for furniture or parts of it, made in chipboard; and production and preparation of wood veneer and coats, for melamine coating of panels.
In Table 1, the distribution in 2005 and 2015 of the furniture chain production companies, according to ATECO divisions, in the district municipalities is reported [35]. Only active companies (a subset of the companies registered in the Companies Register) were considered. ATECO divisions involved are: C16 “Wood and wooden and cork products (furniture excepted) industries and manufacturing of straw and interlacement materials products” and C31 “Furniture manufacturing”.
For each manufacturing category, total district companies decreased in the decade 2005–2015. In Table 2 and Table 3, total numbers of companies are divided in industrial companies and artisan companies for 2005 and 2015, respectively; the number of employees is associated to the number of manufacturing units.
In Table 4, the number of companies settled in the district and the number of employees (in absolute and in percentage values) in the years 2005 and 2015 are reported.
In both years considered, companies belonging to the furniture chain production constituted the production fabric characterizing the territory of the 11 municipalities examined. Nevertheless, in the whole district there was a reduction over time of the number of active companies and of the number of employees, both in absolute and in percentage values, as a consequence of the economic recession that had negative effects on most production fields, starting from 2008, not only in Italy, but in many industrialized countries: the number of active companies decreased from 253 (43.1% of total industries settled in the territory) to 214 (39.7% of total industries settled) and the number of employees decreased accordingly from 10,249 (56.6% of total employees of the industrial sector) in 2005 to 7159 units (51.1% of total employees of the industrial sector) in 2015.
Within the municipalities, variables followed the global trend on average. Despite this fact, it is still clear that, to understand the sustainability of the territory, it is necessary to analyze the chain production processes, not only in their specific aspects, but especially in interconnections among different productive units, inside the district, but also outside its boundaries.

5. Results and Discussion

5.1. Obtainment of the EMAS Registration in 2006

The revision of the EMAS regulation [9] provided the possibility of EMAS registration also by industrial districts. Consequently, in 2005, the Ecolabel Eco-Audit Committee supplied the indications for the application of the EMAS Regulation in “Homogeneous Production Areas” in Italy. Therefore, to obtain the EMAS registration, the Livenza furniture district followed the procedure proposed by the committee for the application of the regulation to industrial districts.
Data and information required for the drawing up of the report were gathered by questionnaires compiled by more than 100 firms and by the 11 municipalities of the district. The two questionnaires are not reported in the paper, in consideration of their notable length and of the fact that they were drawn up in Italian, but can be required for the corresponding author by all interested people.
By combining the data relative to the significance of the environmental aspects (SEA) of the district enterprises with the criticalities put in light by the analysis of the activities arranged by the local authorities, the priorities of interventions of environmental improvement were identified. More in detail, the pressures of the enterprises on environmental matrices (water resources, air, soil, etc.) were taken into consideration and, on the other hand, the situation of the environmental matrices, in terms of quality of water, air, soil, etc., were assessed. The goal was to underline possible elements of criticality by comparing the pressure data of the district firms and the indicators of the environmental state. Furthermore, the perception of local people about the environmental problems (air pollution, health protection, vehicular traffic, etc.) had a relevant weight for the determination of the intervention priorities.
A sequence of the SEA was defined by the following parameters:
-
Social and territorial sensitivity (STS), which in turn is represented by
(a)
territorial sensitivity on the quality of the environmental matrices,
(b)
social sensitivity of the population with respect to environmental and health themes;
-
Importance of the environmental aspects (IEA) by the chain firms.
Specific schedules were prepared for the objective evaluation of the SEA. The schedules organized to evaluate the level of territorial sensitivity were compiled on the basis of the indicators describing the state of the environmental matrices of the territory, related to the 11 municipalities taken into consideration.
Social sensitivity was evaluated both by a press review of the main national and local newspapers, and by a proper questionnaire, given to the involved parts of the district.
The study “Impatto della direttiva solventi sulle aziende industriali della filiera del legno nelle Province di Pordenone e Udine” (“Impact of the solvent directive on the industrial firms of the wood chain in the provinces of Pordenone and Udine”) of 2002 was utilized as the starting basis to determine SEA [36]. Furthermore, the indications provided by the study were updated with a questionnaire about environmental indicators connected with the phases of the process of the furniture chain. The questionnaire was proposed to more than 100 sample firms of the district.
The environmental indicators were: superficial water pollution (rivers, torrents, lakes); water sewage; air emissions; waste production; noise; soil and sub-soil contamination; pollution from ionizing and not ionizing radiations (radon); road network impact and mobility; soil occupation; fire risk.
Finally, to define the complete picture of the priorities of intervention, the level of significance of each environmental aspect was compared with the corresponding criticality of local authorities, that is, the level of suitability and efficacy of the answers given by local authorities (region, province, municipalities, and ARPA FVG), in terms of planning, control, and allocation of resources and infrastructures, connected with the national and local rules, that foresee fulfilments in the environmental field.
The main criticalities coming out from the investigation were:
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No firm declared to buy electric energy in accordance with the scheme of Green Certificates;
-
No interest towards environmental impacts (as deforestation and modification of eco-systems) generated by the provision of wood raw materials;
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Insufficient use of water paints;
-
Vehicular traffic by heavy trucks;
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Emissions of organic solvents into the atmosphere;
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Insufficient use of renewable energy sources as solar and photovoltaic panels.

5.2. Renewal of the Recognition in 2016

For the EMAS registration renewal, obtained by the district in 2016, a fundamental step was the updating of the TEA. In fact, during the previous years the environmental rules, as well as the district productive structure, substantially changed.
The TEA allows a total assessment of the environmental problems linked to the productive activities, by the characterization of the environmental scenery of the Livenza furniture district, emphasizing the existence of sensible zones (physical and anthropic elements) and impacts of anthropic nature; the analysis of the furniture production chain, by identifying the activities of the productive processes; the identification and evaluation of the environmental elements and the related impacts due to the production activities of the district, with the aim of establishing the most pollutant ones; the identification of the environmental laws of the sector; the identification of the municipal and other public authorities activities, located in the district area; the relationship between the environmental aspects of the public and private organizations of the district.
The TEA aims are to find common solutions to solve the environmental problems, to elaborate an environmental policy and a territorial environmental program, to use the same infrastructures, like water treatment plants, landfills etc., to create organizations as associations/consortiums, to participate in the environmental projects. The TEA represents a fundamental step for obtaining the EMAS registration. The TEA can identify the environmental aspects/impacts of the district by defining and assigning its significance level.
Therefore, in particular, the calculation methodology of SEA and the quantification procedure of REA were revised. More in detail, the TEA involved the aspects related to:
-
Monitoring,
-
Scenario definition,
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Planning and perspective monitoring.

5.2.1. Monitoring of the environmental aspects due to firms’ activities

The environmental aspects due to the firms’ activities (consumption of raw materials and energy, waste production, etc.), were assessed by a new tool, more complete and systematic/analytical, EF.

Ecological Footprint

EF is an indicator proposed by Wackernagel and Rees in 1996 [29], based on the comparison between the consumption of resources by human activities and the availability of resources within the eco-system. The comparison is an instrument for understanding the right ways of economic and environmental management of a territory, and for formulating the proper administrative tools. The analysis represents a form of environmental accounting finalized to the respect of the ecologic limits of the Earth and of its geographic areas. The comparison aims at understanding whether the processes, involving consumption of resources, can be acceptable in the perspective of sustainable development, and can be applied at different levels: single activities, processes, organizations, productive sectors, entire regions or continents, or the whole planet. The EF fundaments are represented by the idea that every unit of raw material or energy consumed is joined to a specific size of territory, guaranteeing the relative supply of resources and the absorption of waste produced [29]. This calculation tool allows to convert into the same measure unit different parameters, as consumption of electric power, wood, raw materials, etc., and the necessity of waste absorption, by transforming them in “surface of corresponding productive territory”.
It is necessary to preliminarily estimate consumed resources and produced waste, and then to convert these resource fluxes into the corresponding biologically productive area, necessary to guarantee them [37]. The informative sources, useful for the calculation of this indicator, are available in the National Footprint Accounts and are constantly updated by the Global Footprint Network [38].

The Environmental Matrices

After the quantification of the environmental aspects of the district firms, it is necessary to identify the environmental matrices on which the effects of the environmental aspects show themselves. Air, water, soil, and physical agents (electromagnetic fields, noise, etc.) were the environmental matrices considered. By taking into account and by combining the environmental aspects and the matrices of impact, relevance can be calculated, which is expressed by a numeric sequence, useful for the subsequent phases of planning and perspective monitoring. Inside the relevance concept, the level of significance is present, the lower limit under which actions of modification are not considered as necessary. For these purposes, relevance was divided into two variables: consumption sustainability and operational sustainability.
Consumption sustainability: Consumption sustainability (CS) represents the comparison between EF and CC, that is, the sustainability level of the consumption of natural resources, caused by the enterprises’ activities. Since human activities have huge consequences on the environment, Earth can sustain a limited sociodemographic and economic load capacity, because it has finite dimensions [39]. If CC represents a limit, human activities’ weight has to be defined to understand its external or internal position with respect to the limit. Single consumptions are transformed into a measure unit which can be compared with the availabilities [29]. This approach was considered by Bagliani et al. [39] to put in evidence that the speed of the taking phase of resources cannot be higher than that of their regeneration.
To compare the CC with the corresponding EF, both can be expressed by a common measure unit, global hectare (gha), representing the surface able to produce resources and adsorb waste. The comparison between CC and EF can put in evidence whether a population or a productive activity needs more resources than those offered by the occupied territory [40]. In this way, the institutions have the possibility to understand the goal necessary to be achieved at the territorial level.
To calculate relevance, CS was quantified by considering two variables: the ratio between EF and CC was corrected by taking into account the trend during time of the specific consumption type, as well.
Operational sustainability: Operational sustainability (OS) represents the environmental aspects considered as negative externalities caused by productive activities. OS was calculated for each polluting agent considered within the environmental aspects, by taking into account and quantifying several parameters (dangerousness, geographic and/or temporal extension, sensitivity of the receptor, probability of the event).
Dangerousness was defined on the basis of the Registration, Evaluation, Authorization of Chemicals (REACH) Regulation (CE Regulation No 1907/2006) [41] and Classification Labelling and Packaging (CLP) (CE Regulation No 1272/2008) [42] European regulations and quantified as indicated in Table 5.
The importance of an environmental aspect is greater when the associated geographic and/or temporal extensions increase. Therefore, the geographic and temporal variables were quantified according to the intrinsic characteristics of the impact, as indicated in Table 6.
Furthermore, to evaluate the impact linked to the diffusion of the environmental aspect over the territory, the “extrinsic extension” variable, obtained by the ratio between the number of enterprises responsible for the environmental aspect considered and the total number of enterprises of the district, was taken into account. The extrinsic extension was combined with the intrinsic one to obtain a synthesis table of the considered parameter, as indicated in Table 7.
Sensitivity of the receptor is the variable that allows to weight the potential impact of the environmental aspects on the quali-quantitative characteristics of the environmental matrices interested by the danger. For each environmental matrix, a sensitivity scale was built to describe the characteristics of the receptor.
Probability of the event represents the parameter on which enterprises show a greater capacity of incidence, and then, is the most sensitive to the variations generated by the activities of continuous improvement of the firms’ performances. As a consequence, this parameter has to be quantified with criteria of flexibility, by taking into account several aspects (evaluation of the best available technologies, of legislative limits, of specific procedures adopted by enterprises, etc.).

Relevance of the Environmental Aspects

In this way, relevance was quantified, and consequently it is possible to compare its numeric values to define a priority order in the assignation of resources for the improvement of firms’ performances. In practice, a significance sequence, or better a set of intervals, was established to separate the relevance values into homogeneous groups on the basis of the priorities of interventions. Furthermore, it is possible to decide the value corresponding to the lowest limit of significance, under which actions of intervention are not arranged. The significance sequence was applied to both the OS and the CS. The significance sequence adopted for the two variables, together with the indication of the lowest limit of significance, is shown in Table 8.
The quantification of the significance sequence and of the lowest limit of significance are useful during the subsequent step of scenario definition.

5.2.2. Scenario Definition

The calculation of relevance and the corresponding definition of the significance sequence allow to indicate the environmental aspects with a “potential” merit of intervention. However, particularly in a contest of limited resources, it is necessary to evaluate the measures that can be “really” put in act. Therefore, the calculation of Relevance represents only a part of the necessary information to outline a planning that can be started by taking into consideration the reliable scenarios, the goals that can be achieved, and the related use of resources. The consequent actions of environmental improvement can be focused either on the level of natural resources taken from the environment, or on the negative externalities generated by the industrial activities. Anyway, every action is evaluated on the basis of the related efficacy and efficiency, that is, of environmental incidence (EI) and of cost incidence (CI). This allows to put in light whether an action has the characteristics necessary for the implementation and to define a list of possible actions. Furthermore, it is possible to establish a limit over which the action can be considered as implementable, and under which it has not the characteristics to be put in act. Anyway, it is sufficient that only one of the two parameters (EI and CI) is not satisfied to block the implementation of the action.
EI is represented by a percentage multiplied by the level of initial significance; in practice, efficacy of the action taken into account is established by quantifying how much the importance of an environmental aspect can be reduced by implementing the action itself, and by defining the level from which the reduction starts. CI is represented by a percentage; an action shows the cost characteristics to be efficiently implemented as the value gradually approaches 100%.
In the choice of the action to be carried out, a district action has the priority with respect to an action relative to a single productive unit, coherently with the principles of an ecologically equipped productive area, which evaluate the strategies foreseeing a sharing of goals as priorities.

5.2.3. Planning and Perspective Monitoring

The phases of monitoring and scenario definition give the informative basis for the activities of planning and perspective monitoring, which represent the punctual definition of the activities that enterprises have to realize to achieve the expected goals with the available resources. In particular, planning means the phase starting from the actions identified by the scenario definition, and gives the punctual characteristics to each of them. Perspective monitoring is the organization of tools, activities, strategies, and numeric values in order to compare the results of the implementation of actions with which planning had defined. Therefore, planning and perspective monitoring are interdependent and allow to practically translate the chosen actions, by arranging the criteria for the evaluation of the actions themselves.
The three phases just described, even if separated, are interconnected, and describe an iterative way that, at its conclusion, re-starts from the obtained results, in the perspective of continuous improvement.

5.2.4. Application of the Methodology to the Case Study

The described methodology was applied to the district in order to identify at an early stage, during the monitoring phase, the relevance of environmental aspects towards the considered environmental matrices. As for the required commitment to carry out the study, the main difficulty found in the methodology application was the data acquisition, in particular, of the data to be obtained from the companies. Often the enterprises have to provide data about their production and emissions; therefore, the study used as possible alternative sources (offices and regional or provincial land offices) to decrease significantly the interviews to the plant managers. The analysis of the collected data requires the application of easy algorithms.
EF of the district is shown in Table 9.
The most relevant aspect is the fact that consumption of wooden raw materials largely represented the main factor responsible for the total EF of the district in both years considered.
To calculate CC of the district, we employed the data relative to soil consumption (Table 10) elaborated by ARPA FVG for the Friuli Venezia Giulia region [12].
where A represents the area considered. Equivalence factors and yield factors are calculated annually by Global Footprint Network, but their utilization requires the payment of a fee. Therefore, to estimate CC in the case considered, values (reported in Table 11) from literature sources were used, which approximated at the best extent the informative need [43,44] yielding the data reported in Table 12.
Finally, the calculation was corrected, since CC at a global level has to be reduced by 12%, to subtract an area necessary to the maintenance of ecosystem diversity and healthiness, and consequently not subject to human needs and activities [43,45]. The application of such correction to the district territory reduced CC to the value of 115,827.0 gha.
The comparison between EF and CC put in light that EF is much greater than CC of the territory. In fact, the ratio between the two indicators showed a value greater than 3 in 2005 and greater than 8 in 2015. Therefore, reduction of the EF of the district activities seems a proper action of political, economic, and environmental planning. However, significant relevance conditions were found only in the case of air and soil matrices. Moving to the phase of scenario definition, EI and CI of possible actions were evaluated to set a ranking of priorities. In Table 13, possible identified actions, and environmental aspects that could be improved as a result of the implementation of the actions themselves, are presented.
In the territorial and environmental plan related to the 2016 EMAS certificate, actions have been included directly carried out by the components of the certificate managing authority (Industrial Union of Pordenone, Friuli Venezia Giulia region, Province of Pordenone, Regional Agency for Environmental Protection of the Friuli Venezia Giulia region, Chamber of Commerce), with the aim of maximizing the possibility to realize the assessment. The actions of the plan have the same objectives of those suggested in the study with the aim of creating a suitable contest to their future realization.
The environmental territorial plan contains many recommendations to involve the population towards sustainability. Specific seminars, publications, and meetings on the topic were planned, in occasion of festivals with a large audience participation. The involvement of the major number of representatives of all the sectors, in particular, those of the school sector, is one of the guiding principles of intervention in the policy of the district EMAS certificate.

5.2.5. Some Proposals for Improving EF of the Livenza District

Two actions proved to be overriding to reduce the EF of the district and to employ the best available practices, in line with the definition of eco-innovation [46]. Regarding the air matrix, the action that could be implemented is technological improvement in manual varnishing and use of water paintings, in order to reduce atmospheric emissions of volatile organic compounds. Technological improvement is represented mainly by a modern system of manual painting and the use of the carousel, a specific tool for painting. Regarding soil consumption criticality, the most effective action that could be implemented is the recovery of disused production plants.
Other actions were identified, as well.
Use of certified wood. Several species of wood are employed by the enterprises of the Livenza furniture district: pine, red fir, toulipier, beech, ayous, oak, and cherry are the most used. In 2005, 111,010 tons of wood were consumed, while 381,333.5 tons in 2015. Because of their provenience, the management of some woods presents criticalities [47]. Sustainable forest management is the goal of the European Forest Action Plan (2007–2011), balancing the three dimensions of sustainability. Even if, at present, about 40% of the firms of the district exploits certified wood coming from forests managed in a sustainable way [48], the situation could be improved further on.
Sustainable workers’ mobility. Even if the transport of employees has a small “weight” on the district EF (10.7 gha in 2005, 8.78 gha in 2015), it is possible to improve this aspect. Most workers use their private cars to reach the workplaces, and workers’ habits can be hardly changed. Possibly, a modern and efficient bus service, for workers’ transport, could be arranged. Alternatively, the building of car parking areas, with the roofs covered by photovoltaic panels, could be the easier solution to be adopted. Furthermore, a future integration between photovoltaic panels and electric vehicles could reduce the carbon footprint [49] and consequently EF [50]. Otherwise, sustainability of transportation could be improved by car sharing; this modern system of transport could positively affect not only environmental conditions, but also traffic, allowing a reduction in the number of accidents, and improving social relations among people. Anyway, the figure of mobility manager will suggest the advantages and the opportunities deriving from every strategy to be adopted.
Burning of wood waste. One of the possible initiatives for reducing EF of the district is represented by the construction of a co-generation plant, which could burn the wood waste coming from at least part of the district enterprises. Some years ago, such a project was taken into consideration, but not realized, because of concerns for environmental and human health problems, and lack of cooperation among the enterprises of the district [48]. Currently, small incineration plants, burning the scraps of the production of single enterprises, are present in the district; they allow production of hot water for internal use by the firms themselves [24]. However, the combustion of wood waste of the furniture activities can give problems owing to possible contaminations by organic solvents, adhesives, and paints [51,52,53].
The most interesting perspective is represented by the construction of a co-generation plant for the production of electric energy and heat, by using wood waste coming from the district activities and biomasses produced as by-products by agricultural and zoo-technical farms of the territory. In 2007, the Ministero delle Politiche Agricole, Alimentari e Forestali (Ministry of Agricultural, Food and Forestry Policies) issued a number of decrees which fixed the incentives payable for the production of energy from biomasses in Italy [54]. At the regional level, an example of a virtuous region is represented by Emilia Romagna [55]. The Regional Law No 39 of 28 December 1999 [56] already envisaged a measure, included in the 2000–2006 regional Rural Development Plan, which provided for economic benefits to make electricity and/or heat generation plants fed by vegetable matrices derived from crops. Incentives were strengthened in the programming period 2007–2013 [57].
Production of wood panels. As an alternative to thermo-exploitation, another possibility is represented by the building up, inside the district area, of a plant for the production of wood panels by employing wood waste of previous workings, in the perspective of circular economy.

6. Conclusions

In 2006, the Livenza furniture district was the first Italian industrial district that obtained the EMAS registration. In 2015, the TEA was deeply revised in view of the renewal of the registration, which was obtained by the district in 2016. More specifically, EF was calculated to quantify the environmental impacts of the district, and then compared with the corresponding CC. In this way, it was possible to put in light that EF is much greater than CC of the territory. Some possible actions which could be implemented to reduce EF were indicated, and their possibility to be carried out was taken into account both from the technical and economic points of view. The methodology proposed represents a significant innovation in respect of what is usually required to obtain and/or to renew the EMAS registration. In fact, in most cases, a commitment is simply required relative to continuous improvement of environmental performances by an enterprise and its joined activities. The methodology adopted in this study allows to notably widen the horizon of the research, as it suggests to compare the EF with the corresponding CC of the territory in which the enterprise works. It is therefore possible to evaluate the sustainability of the production activity in a definitely more satisfactory way. As for the possibility to finalize the results of this environmental analysis, each suggested action in the study has been evaluated in function of its feasibility. Therefore, the following variables have been assessed: the expenditure for the enterprise, the subject in charge to finalize the study, the dead time for the implementation of the project, the social sensitiveness of the users. The creation of a consortium for the scrap recovery as raw secondary materials for panels has been evaluated as the most difficult to realize, in particular, because of the required time for its realization and its economic expenditure.
Finally, the methodology proposed could be applied also to other industrial districts with a different production with respect to that of the Livenza one, with the aim of improving the environmental performances of the enterprises, in line with the principles of sustainable development.

Author Contributions

The authors contributed equally in idea conception, acquisition of information, data analysis and comment, drafting of the manuscript. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Conflicts of Interest

The authors declare no conflict of interest.

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Table 1. Distribution of furniture chain production companies (active enterprises), according to ISTAT classification 36.1—Economic Activities (ATtività ECOnomiche—ATECO) divisions, in the district municipalities, in 2005 and 2015 (personal elaboration from [12,31]).
Table 1. Distribution of furniture chain production companies (active enterprises), according to ISTAT classification 36.1—Economic Activities (ATtività ECOnomiche—ATECO) divisions, in the district municipalities, in 2005 and 2015 (personal elaboration from [12,31]).
Year 2005Year 2015
MunicipalityATECO C16 DivisionATECO C31 DivisionTotalATECO C16 DivisionATECO C31 DivisionTotal
Azzano Decimo233861153348
Brugnera2476100145872
Budoia7815538
Caneva61319189
Chions714212911
Fontanafredda242751161834
Pasiano di Pordenone236891204262
Polcenigo3472810
Prata di Pordenone157186105060
Pravisdomini232649142034
Sacile275279193857
Total182397579118287405
Table 2. Distribution of furniture chain production companies (active enterprises) and related employees in the district municipalities in 2005 (personal elaboration from [12]).
Table 2. Distribution of furniture chain production companies (active enterprises) and related employees in the district municipalities in 2005 (personal elaboration from [12]).
Whole DistrictAzzano DecimoBrugneraBudoiaCanevaChionsFontanafreddaPasiano di PordenonePolcenigoPrata di PordenonePravisdominiSacile
Industry, Active Companies
Industrial business number210184875720312341919
Employees number78894082.042182229142634999752406401371
Employees per establishment37.622.742.526.045.820.331.732.237.570.821.119.5
Artisan Business, Active Companies
Artisan business number177232135412361212625
Employees number115217310232323662472137193183
Employees per establishment6.57.54.91.04.65.85.56.92.06.57.47.3
Industrial and Artisan Business, Total Active Companies
Total companies387416910101132673554544
Total employees904158121441852521657001246772543594554
Employees per establishment23.414.231.118.525.215.021.918.625.746.213.212.6
Table 3. Distribution of furniture chain production companies (active enterprises) and related employees in the district municipalities in 2015 (personal elaboration from [31]).
Table 3. Distribution of furniture chain production companies (active enterprises) and related employees in the district municipalities in 2015 (personal elaboration from [31]).
Whole DistrictAzzano DecimoBrugneraBudoiaCanevaChionsFontanafreddaPasiano di PordenonePolcenigoPrata di PordenonePravisdominiSacile
Industry, Active Companies
Industrial business number214174943615365371527
Employees number7159436151539103975231344832033395591
Employees per establishment332631103416353717552622
Artisan Business, Active Companies
Artisan business number191312346519265231930
Employees number1133207138103736901367144155173
Employees per establishment676367551686
Industrial and Artisan Business, Total Active Companies
Total companies40548728911346210603457
Total employees82926431653491401336131480902177550764
Employees per establishment2013236161218249361613
Table 4. Occurrence of furniture sector over total industries present in the district (personal elaboration from [12,31]).
Table 4. Occurrence of furniture sector over total industries present in the district (personal elaboration from [12,31]).
MunicipalityActive IndustriesEmployees
Year 2005Year 2015Year 2005Year 2015
Azzano Decimo27 (14.8 %)17 (23%)739 (24.6%)436 (28.6%)
Brugnera31 (64.5%)49 (4%)1.921 (73.8%)1.515 (70.9%)
Budoia6 (50.0%)4 (4%)212 (59.0%)39 (41.1%)
Caneva16 (37.5%)3 (25%)372 (70.7%)103 (46.6%)
Chions19 (31.6%)6 (1%)694 (25.9%)97 (10.4%)
Fontanafredda34 (32.4%)15 (30.4%)1.970 (21.3%)523 (23.2%)
Pasiano di Pordenone28 (64.3%)36 (57.4%)1.208 (70.7%)1.344 (81.0%)
Polcenigo5 (40.0%)5 (31.3%)156 (47.4%)83 (31.1%)
Prata di Pordenone38 (63.2%)37 (58.8%)2.065 (88.1%)2.033 (85.1%)
Pravisdomini8 (87.5%)15 (50.7%)226 (96.0%)395 (59.7%)
Sacile41 (19.5%)27 (31.5%)686 (36.6%)519 (31.7%)
Total253 (43.1%)214 (39.7%)10.249 (56.6%)7.159 (51.1%)
Table 5. Properties of the considered pollutant agents and related assigned value for each class of dangerousness [41,42].
Table 5. Properties of the considered pollutant agents and related assigned value for each class of dangerousness [41,42].
Toxicological PropertiesEco-Toxicological PropertiesChemical-Physical PropertiesAssigned Value
Lethal, carcinogenic, mutagenic, toxic for reproductionPBT, vBvT, damaging substances for stratospheric ozoneExplosive, extremely flammable2
Toxic, noxiousToxic or noxious with long time effects (acidification, eutrophication, ozone precursor)Comburent, potentially explosive, highly flammable1.75
Irritant, potentially noxiousToxic or noxiousFlammable, easily flammable1.5
Potentially irritantPotentially noxious, synergicPotentially flammable, potentially corrosive for metals1.25
AbsentInertInert1
Table 6. Values assigned to the geographic and temporal variables related to environmental impacts.
Table 6. Values assigned to the geographic and temporal variables related to environmental impacts.
Area/Indicative Length of the Impact (Hours)PunctualArealDistrictInter-Regional
<11.251.51.751.75
<61.51.751.752
<241.751.7522
>241.75222
Table 7. Mix of the intrinsic and extrinsic extensions.
Table 7. Mix of the intrinsic and extrinsic extensions.
Intrinsic Extension
1.251.51.752
Extrinsic extension0–0.251.251.51.752
0.25–0.501.51.51.752
0.50–0.751.751.751.752
0.75–12222
Table 8. Division into intervals of the relevance variable expressed as operational sustainability and consumption sustainability, and indication of the corresponding order of priority.
Table 8. Division into intervals of the relevance variable expressed as operational sustainability and consumption sustainability, and indication of the corresponding order of priority.
Operational SustainabilityConsumption Sustainability
IntervalsOrder of PriorityIntervalsOrder of Priority
0 → 0.16n.s.0 → 0.9n.s.
0.16 → 110.9 → 11
1 → 221 → 1.52
2 → 3.531.5 → 23
3.5 → 542 → 2.54
>55>2.55
n.s. = not significant; 1 = of little importance; 5 = overriding.
Table 9. Ecological Footprint (EF) of the district.
Table 9. Ecological Footprint (EF) of the district.
20052015
IndicatorsFootprint (gha)%Footprint (gha)%
Energy consumption27,577.67.225,770.42.6
Wood consumption330,388.885.9910,991.691.0
Transport of workers10.70.08.780.0
Paints and glues9314.22.430,736.93.1
Plants and building materials2092.80.52092.80.2
Water consumption0.010.00.050.0
Waste15,331.74.031330.93.1
Total384,715.8100.01,000,931.4100.0
Table 10. Soil consumption in the municipalities of the district (ha).
Table 10. Soil consumption in the municipalities of the district (ha).
MunicipalityArtificially Shaped AreasAgricultural AreasWoodland Areas and Half-Natural EnvironmentsHumid AreasWater Bodies
Azzano Decimo820.384060.65188.3965.55
Brugnera754.532104.9239.4922.23
Budoia201.66935.572638.070.00
Caneva480.901396.952290.4116.34
Chions363.792704.37265.3815.55
Fontanafredda787.673660.31151.894.578.71
Pasiano di Pordenone562.593795.96131.3865.17
Polcenigo240.481047.923652.681.52
Prata di Pordenone528.341691.8114.1254.47
Pravisdomini222.161284.56102.030.00
Sacile925.812210.0071.8051.59
Total5888.3124,893.029545.644.57301.23
CC of a territory can be calculated according to the formula; CC = Σ (A × equivalence factor × yield factor).
Table 11. Equivalence factors and yield factors per area type, according to [43,44].
Table 11. Equivalence factors and yield factors per area type, according to [43,44].
Area TypeEquivalence Factors (gha/ha)Yield Factors (gha/ha)
Artificially shaped areas2.511.5
Agricultural areas2.511.5
Woodland areas and half-natural environments1.261.3
Humid areas1.080.9
Water bodies0.370.8
Table 12. Carrying Capacity (CC) of the district territory (gha).
Table 12. Carrying Capacity (CC) of the district territory (gha).
MunicipalityArtificially Shaped AreasAgricultural AreasWoodland Areas and Half-Natural EnvironmentsHumid AreasWater BodiesTotal
Azzano Decimo3088.7315,288.35308.5819.4018,705.1
Brugnera2840.817925.0364.696.6110,837.1
Budoia759.263522.424321.160.008602.8
Caneva1810.595259.513751.704.8410,826.6
Chions1369.6710,181.96434.694.6011,990.9
Fontanafredda2965.5813,781.07248.794.452.5817,002.5
Pasiano di Pordenone2118.1514,291.79215.2019.2916,664.4
Polcenigo905.403945.425983.090.4510,834.4
Prata di Pordenone1989.206369.6623.1316.128398.9
Pravisdomini836.434836.38167.130.005839.9
Sacile3485.678320.65117.6115.2711,939.2
Total22,169.4993,722.2215,635.764.4589.17131,621.6
Table 13. Possible actions and related environmental aspects that could be improved in the district.
Table 13. Possible actions and related environmental aspects that could be improved in the district.
ActionsEnvironmental Aspects
Covering of car parks by photovoltaic panelsReplacing conventional energy sources with renewable energy
Car sharing among companiesReduction of carbon dioxide emissions
Creation of a consortium for recovery of wooden residues as panelsReduction of consumption of wooden raw material and of carbon dioxide emissions
Varnishing automation in small companies and use of water-based paintsReduction of emissions of volatile organic solvents
Recovery of disused production plantsReduction of soil consumption
RelampingReduction of energy consumption

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Novelli, V.; Geatti, P.; Bianco, F.; Ceccon, L.; Del Frate, S.; Badin, P. The EMAS Registration of the Livenza Furniture District in the Province of Pordenone (Italy). Sustainability 2020, 12, 898. https://0-doi-org.brum.beds.ac.uk/10.3390/su12030898

AMA Style

Novelli V, Geatti P, Bianco F, Ceccon L, Del Frate S, Badin P. The EMAS Registration of the Livenza Furniture District in the Province of Pordenone (Italy). Sustainability. 2020; 12(3):898. https://0-doi-org.brum.beds.ac.uk/10.3390/su12030898

Chicago/Turabian Style

Novelli, Veronica, Paola Geatti, Francesco Bianco, Luciano Ceccon, Stefania Del Frate, and Paolo Badin. 2020. "The EMAS Registration of the Livenza Furniture District in the Province of Pordenone (Italy)" Sustainability 12, no. 3: 898. https://0-doi-org.brum.beds.ac.uk/10.3390/su12030898

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