@prefix config: . @prefix meta: . @prefix rdf: . @prefix rdfs: . @prefix xsd: . @prefix owl: . @prefix dc: . @prefix dcmitype: . @prefix dcterms: . @prefix foaf: . @prefix geo: . @prefix om: . @prefix locn: . @prefix schema: . @prefix skos: . @prefix dbpedia: . @prefix p: . @prefix yago: . @prefix units: . @prefix geonames: . @prefix prv: . @prefix prvTypes: . @prefix doap: . @prefix void: . @prefix ir: . @prefix ou: . @prefix teach: . @prefix time: . @prefix datex: . @prefix aiiso: . @prefix vivo: . @prefix bibo: . @prefix fabio: . @prefix vcard: . @prefix swrcfe: . @prefix frapo: . @prefix org: . @prefix ei2a: . @prefix pto: . dcterms:title "Thermochemical Energy Storage - Adsorption. "; ou:codUnescoI "33"; ou:codUnescoIII "3322"; dcterms:description "Adsorption heat storage is based is the interaction between a liquid sorbate, usually water, and a solid sorbent (e.g. zeolites, silica gels, activated carbons). Heat is employed to drive a desorption process, which means that energy is stored in the form of adsorption potential energy. It is considered a promising technology both for seasonal and daily storage applications, although there is still need for development and research at materials, components and system level in order to make the technology commercially competitive."; a ou:LineaInvestigacion; ou:codUnescoII "3322". ou:tieneLineaInvestigacion .