SmarTap has been developing a new technology for the next generation of thermostatic electronic faucets. This technology enables the user to monitor and control the water consumption in his property in real time. Shower systems based on this technology offer a unique shower experience combined with safety features and water and energy monitoring and saving capabilities. The systems supply water at the desired temperature and flow without wasting it: the shower will discharge water only at the desired temperature and flow.
Fuel cell technologies
Fuel cell technologies
- Type:OrganisationCountry of registration:South KoreaRelation to CTCN:Network MemberSector(s) of expertise:
As a government-funded research institute under the Ministry of Science, ICT and Future Planning of the Republic of Korea, the mission of Korea Institute of Materials and Science KIMS is to comprehensively facilitate R&D, test, evaluate and provide technical support in order to promote innovative technology and industrial development. Important research achievements related to climate technology include Plasma-Treated Albaca fiber reinforced composites for industrial application.
- Type:OrganisationCountry of registration:South AfricaRelation to CTCN:Network Member
The Energy Research Centre is a research and academic type of institution established in 1989. The institution provides thought leadership and research on key issues related to climate change mitigation in developing countries under the following key focal areas: Energy- Environment and Climate Change, Energy- Poverty and Development, Renewable Energy, Energy Efficiency, and Energy Systems Analysis & Planning.
- Type:WebinarDate and time:Wednesday, September 14, 2016 - Wednesday, September 14, 2016 Europe/CopenhagenOrganiser:
Global demand for climate technologies is growing fast and every region is keen to drive local economic development and grow local industries that can meet a portion of this demand both locally and for exports.
Fuel cells are used to produce electricity. They are considered a promising technology to replace conventional combustion engines in vehicles. Fuel cells may also replace batteries in portable electronic equipment. The most widely used types of fuel cells for mobile devices are Proton Exchange Membrane fuel cells (PEM FC) which are often used in vehicles, and Direct Methanol fuel cells, used in portable applications. PEM fuel cells use hydrogen or certain alcohols such as methanol as fuel.
Hybrid technology systems combine two or more technologies with the aim to achieve efficient systems. Possible combinations are: wind-solar photovoltaic (PV) hybrid systems, wind-diesel hybrid systems, fuel cell-gas turbine hybrid systems, wind-fuel cell hybrid systems, etc. (see the short descriptions below). Hybrid systems combine numerous electricity production and storage units to meet the energy demands of a given facility or community (Solar Energy Technologies Program, 2006).
- Type:OrganisationKnowledge partnerCountry of registration:SwedenRelation to CTCN:Network MemberKnowledge PartnerSector(s) of expertise:
The mission of InnoVentum is to bring Power to the People. Innoventum has developed and commercialised a range of environmentally friendly renewable energy solutions: small wind and solar installations as well as hybrid wind-solar stations. The 12 m towers of Innoventum are made of wood and can be easily installed without a crane. Innoventum has experience in configuring and installing renewable energy mini-grids with battery and diesel backup.
A plug in hybrid electric vehicle (PHEV) is a hybrid electric vehicle with the ability to recharge its energy storage with electricity from an off-board power source such as a grid. PHEVs have the potential to displace a significant amount of fuel in the next 10 to 20 years. It is estimated that they can reduce fuel consumption by up to 45% relative to that of a comparable combustion engine vehicle.
Background: One of the major focuses of research on proton exchange membranes (PEMs) has been improving proton conductivity at elevated temperatures above 100˚ C. PEMs conventionally operate at 80˚ C or below in order for the membranes to remain hydrated and maintain their proton conductivity properties. The low limit on operating temperature has a detrimental effect on the efficiency of the electrodes due to diminished oxygen reduction kinetics and increased carbon monoxide (CO) poisoning of the electrodes.