Ceramic Industry 4.0: Paths of Revolution in Traditional Products

Ceramic Industry 4.0: Paths of Revolution in Traditional Products

João Barata, Francisco Silva, Marisa Almeida
DOI: 10.4018/978-1-5225-4936-9.ch012
OnDemand:
(Individual Chapters)
Available
$37.50
No Current Special Offers
TOTAL SAVINGS: $37.50

Abstract

Industry 4.0 presents new challenges for traditional sectors of the economy, for example, the production of ceramic products. This chapter reveals how traditional ceramic industries can (1) assess, (2) plan, and (3) execute Industry 4.0 adoption. The findings are based on the Portuguese ceramic sector. Three interrelated dimensions of the fourth industrial revolution are studied, namely, (1) digital ecosystems, (2) security and safety, and (3) digital sustainability. Industry 4.0 is not restricted to high-tech products and cannot be addressed by one-size-fits-all solutions. Moreover, it requires cooperation within business ecosystems. The authors propose a model for Ceramic Industry 4.0 and accessible guidelines for managers involved in global supply chains. This chapter suggests emergent research opportunities for (1) sectorial maturity models, (2) data quality and regulatory compliance, (3) cyber-security and risk management, and (4) an integrated vision of sustainability in the digital era.
Chapter Preview
Top

Introduction

Industry 4.0 is changing traditional sectors of the economy (Brettel & Friederichsen, 2014). The impact of the forth industrial revolution is particularly relevant in small and medium sized enterprises (SMEs) with high levels of manual work. This is the case of ceramic companies that export the majority of their production and must be prepared to compete at a global scale. The ceramic industry from the European Union (EU)-27 accounts for 23% of global ceramics production. According to the Eurostat, it represented a production value of 28 billion Euros in Europe and over 200.000 direct jobs in 2015.

Ceramic industry could be divided in ten major sub-groups: bricks and tiles, floor and wall tiles, sanitaryware, pottery & tableware, refractories, abrasives, clay pipes, expanded clay, porcelain enamel, and technical ceramics. All these ceramic industry subsectors are energy intensive, namely due to the drying and firing processes, which involve firing temperatures between 800 and 2000 ºC. The manufacture of ceramic products is a complex interaction of raw-materials, technological processes, people, and economic investments. It includes the transport and storage of raw materials, ancillary materials and additives (e.g. deflocculating agent – sodium silicate for preparation of raw materials), preparation of raw materials, shaping, drying, surface treatment, firing, and subsequent treatment (Quinteiro, Almeida, Dias, Araújo, & Arroja, 2014). Complexity of the production process is diverse and also the market requirements are different for each ceramic industry sub-group. Yet, the entire sector is affected by the fourth industrial revolution.

There are new technological opportunities for ceramic production. Recent examples include the use of mobile technologies in maintenance and product traceability (Barata, Cunha, Gonnagar, & Mendes, 2017), additive manufacturing, 3D printing, and simulation platforms (Smit, Kreutzer, Moeller, & Carlberg, 2016). However, Industry 4.0 in mineral non-metal manufacture raises many challenges for managers. We subscribe to the view of Oesterreich and Teuteberg (2016, p. 136) about the “urgent need for the development, understanding and assessment of frameworks, business models, reference models and maturity models for Industry 4.0 implementation with focus on technology, people and processes”. Industry 4.0 assessment models tailored for specific sectors of the economy will be essential. Other challenges include the creation of digital competencies (Prifti, Knigge, Kienegger, & Krcmar, 2017), the development of digital ecosystems (Andersen & Ross, 2016), improvement of work practices, and sustainable development (Chen et al., 2015). Moreover, there is an urgent need to identify and deploy pilot cases to guide the major changes towards industry of the future.

This chapter addresses Industry 4.0 in traditional sectors and specificities of mineral non-metal production in Portugal. The next section presents the background of our research. Afterwards, we identify challenges and opportunities in three key dimensions for the ongoing industrial revolution in ceramic, namely, digital ecosystems, safety and security, and digital sustainability. Next, we present the results of a field study and propose strategic recommendations. These developments emerged from a 120 participants’ workshop that mobilized the entire industry. The chapter concludes revealing future research directions in the scope of digital transformation of ceramic production.

Key Terms in this Chapter

Digital Ecosystem: Socio-technical system inspired in natural ecosystems that connects a group of companies/people/things via digital platforms. It requires a digital infrastructure and digital services to interact with external parties of the organization. Similarly to natural ecosystems, sustainability and safety are critical aspects.

Maturity Model: A tool used to assess the current state of an organization in a specific context of analysis. This type of models is also used to communicate best practices and guide organizational improvements.

Digital Sustainability: The opportunities raised by digital transformation to meet the sustainability goals and reduce the carbon footprint.

Ceramic Industry 4.0: The ongoing initiatives for digital transformation in the Portuguese ceramic sectors of the economy. The roadmap includes social, technical, and organizational changes that are necessary to compete in global supply chains.

Nanosafety: The different techniques, tools, and approaches related to the safety of nanotechnology. It involves the policies, standards, and research needed to ensure the proper development and use of nanomaterials in the factory of the future.

Life Cycle Assessment: Assessment of the environmental impacts applied to the different stages of a product's life cycle.

Safety-By-Design: The use of methods in early stages of the product life cycle to minimize hazards and comprehensively improve health and safety.

Complete Chapter List

Search this Book:
Reset