Open Access Green as soon as Postprint is submitted to ZB.
		
    Ultra high level dosimetry by ESR spectroscopy of crystalline quartz and fused silicate.
        
        Radiat. Prot. Dosim. 34, 291-294 (1990)
    
    
    
	    At present there is a great interest in ultra-high-level dosimetry exceeding the 0.5 MGy which can still be detected more conventionally by the ESR spectroscopy of alanine. Recently, the E1' defect in SiO2 was discovered for dosimetry. The defect generated in crystalline quartz by gamma irradiation was found to be an excellent candidate for ultra-high-level dosimetry at ambient temperatures up to 300°C.The E1' centre is observed in all pure forms of quartz and silicate, but its dosimetric properties are specific for each material. This provides the precondition for a wide range of applications in dosimetry. Here, the properties of the E1' centre are compared for fused silicates and crystalline quartz. For the first time, supralinearity was observed for the E 1' centre and that in silicate glass. The experiments are designed to be used at the HAW project in the Asse salt mine, Braunschweig, FRG.
	
	
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        Publication type
        Article: Journal article
    
 
    
        Document type
        Scientific Article
    
 
     
    
     
     
    
    
        Language
        english
    
 
    
        Publication Year
        1990
    
 
     
    
        HGF-reported in Year
        0
    
 
    
    
        ISSN (print) / ISBN
        0144-8420
    
 
    
        e-ISSN
        1742-3406
    
 
    
     
     
	     
	 
	 
    
        Journal
        Radiation Protection Dosimetry
    
 
	
    
        Quellenangaben
        
	    Volume: 34,  
	    Issue: 1-4,  
	    Pages: 291-294 
	    
	    
	
    
 
    
         
        
            Publisher
            Oxford University Press
        
 
        
            Publishing Place
            Oxford
        
 
	
         
         
         
         
         
	
         
         
         
    
         
         
         
         
         
         
         
    
        Reviewing status
        Peer reviewed
    
 
    
        Institute(s)
        Departments & Institutes
    
 
     
     
     
     
     	
    
        Scopus ID
        0025607209
    
    
        Erfassungsdatum
        1990-12-31