SPCleantech is a network of cooperating entities related to Cleantech industry, that combine their resources, knowledge and skills in order to achieve common goals.
The main goal of SPCleantech is to create a dynamic ecosystem that encourages the exchange of knowledge, promotes innovation and drives economic growth and competitiveness of its members.
Here are some of the main benefits of membership in innovative SPCleantech cluster:

  • Cooperation and networking 
  • Access to resources
  • Exchange of knowledge and training
  • Innovation and research 
  • Joint promotion and marketing
  • Institutional support 
  • Solving common problems

Together we can do more - join us

SPCleantech supports actions taken to reduce the negative impact on the natural environment and to ensure a more sustainable and ecological approach to economic activity, as well as regarding the use of modern digital technologies to optimize business processes, increase efficiency and improve competitiveness.

Learn more about the benefits of membership

Platform: “Smart-low carbon buildings, BMS-management systems and ecological building materials”

Architects:

  • Bjerg Arkitekter Polska
  • BLOK Architekci
  • Horizon Studio
  • SUMA Architektów

Technological companies:

  • AG System
  • Anew Institute
  • APAGroup
  • BMW
  • C6 Polska
  • DIMPLEX Polska
  • Frapol
  • KIDS&Co
  • Lumico
  • MARR
  • MPEC Kraków
  • Nilan
  • NordicHouse
  • PalettenWerk
  • RM Filipowicz
  • Slag Recycling
  • SMS Group
  • THB
  • Termoklima
  • Tines
  • Yabimo

Construction:

  • Łęgprzem
  • Podium Park
  • PP Leman

Institutions:

  • Akademia Górniczo Hutnicza (AGH)
    • Centrum Energetyki
    • Center for Sustainable Development and Energy Conservation
    • Centrum Zaawansowanych Technologii Miasta Przyszłości AGH
  • Politechnika Krakowska
    • INTECH PK
    • Małopolskie Centrum Budownictwa Energooszczędnego (MCBE)
  • Uniwersytet Ekonomiczny
  • Uniwersytet Jagielloński
  • Uniwersytet Rolniczy
  • Gmina Raciechowice

NGO:

  • Energie Cités

Partners:

Stowarzyszenie Budowniczych Domów i Mieszkań, PGE Energia Ciepła, PLGBC, Ecophon-Saint Gobain, Glasssolutions, Macrosoft, ORLEN Oil, Ponzio, Phillips, Samsung

Cluster members such as architects, construction companies, photovoltaic producers, green building materials, building management systems, universities, municipalities and NGOs participate in the platform’s cooperation. The aim of cooperation is to promote innovation among cluster members and to develop an innovative, competitive product to the Polish market.

An Intelligent Building is one that:

  • Provides a productive and cost-effective built environment through optimization of its four basic components – structure, systems, services and management – and the interrelationships between them:
Focusing on the benefit of the owners and their desired indoor environment.
  • So as to maximize the efficiency of its occupants: 
Focusing on the benefit of the users and creating desired indoor environment for occupants
  • Allows effective management of resources with minimum life costs: 
Focusing on the benefit of the Managers and the environmental and economic impact of creating desired indoor environment.

Therefore:

  • The built environment should be productive, safe, healthy, thermally, aurally and visually comfortable.
  • The building has potential to serve future generations: sustainability, or adaptability over the life cycle of the building and safeguarding the earth and environment resources.
  • Financial aspect: the building can be built within some cost constraints whilst retaining market value.

Life Cycle Design

A “cradle-to-grave” analysis of building products, from the gathering of raw materials to their ultimate disposal, provides a better understanding of the long-term costs of materials. These costs are paid not only by the client, but also by the owner, the occupants, and the environment. The principles of Life Cycle Design provide important guidelines for the selection of building materials. Each step of the manufacturing process, from gathering raw materials, manufacturing, distribution, and installation, to ultimate reuse or disposal, is examined for its environmental impact.

A material’s life cycle can be organized into three phases:

Pre-Building; Building; and Post-Building. These stages parallel the life cycle phases of the building itself. The evaluation of building materials’ environmental impact at each stage allows for a cost-benefit analysis over the lifetime of a building, rather than simply an accounting of initial construction costs.

Buildings – Energy Efficiency report

On 28 June 2013, the Commission published a report on progress by member States towards Nearly Zero-Energy Buildings (NZEB), which are to become the norm for all new buildings in the EU by the end of 2020, and two years earlier for public buildings. This report is largely based on the information contained in the national plans for NZEBs submitted by eight Member States (BE, DK, CY, FI, LT, NL, SE and UK) as of the end of November 2012. In addition, information was drawn from the second National Energy Efficiency Action Plans.

The conclusion of the report is that too little progress has been made by the Member States in their preparations towards NZEBs by 2020. Member States have to significantly step up their efforts to implement the requirements regarding NZEBs in the EPBD to ensure that the EU’s longer-term climate objectives are not jeopardised and the building sector can take full advantage of the opportunities NZEBs present.