Resumes
Resumes
Anton Lucchin Phones & Addresses
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1252 Rubenstein Ave, Cardiff, CA 92007
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Cardiff by the Sea, CA
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1674 Via Del Corvo, San Marcos, CA 92078 (760) 744-3341
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Escondido, CA
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15623 Via Marchena, San Diego, CA 92128 (858) 451-2404
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12212 Paseo Lucido, San Diego, CA 92128 (858) 451-2404
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Carlsbad, CA
Business Records
Name / Title
Company / Classification
Phones & Addresses
President
ANALYSER SYSTEMS COMPANY, INC
All Other Misc Mfg
All Other Misc Mfg
298 Enterprise St SUITE D, Escondido, CA 92029
(760) 450-9891, (760) 432-2027
(760) 450-9891, (760) 432-2027
Publications
Us Patents
Bulk Material Analyzer Assembly Including Structural Beams Containing Radiation Shielding Material
View pageUS Patent:
8138480, Mar 20, 2012
Filed:
Aug 10, 2007
Appl. No.:
12/376839
Inventors:
Raymond John Proctor - San Diego CA, US
Anton Mario Lucchin - San Marcos CA, US
Thomas Leland Atwell - Camp Verde AZ, US
Mark Rudy Chiesman - Ramona CA, US
Anton Mario Lucchin - San Marcos CA, US
Thomas Leland Atwell - Camp Verde AZ, US
Mark Rudy Chiesman - Ramona CA, US
Assignee:
Thermo Fisher Scientific Inc. - Waltham MA
International Classification:
G01N 23/222
US Classification:
2503591
Abstract:
A bulk material analyzer (FIG. ) is variably constructed from an assembly of components The analyzer (FIG. ) is the type that is used to analyze bulk material () transported on a conveyor belt () through an activation region () between at least one radiation source (element ) and at least one radiation detector () within the bulk material analyzer (FIG. ) The assembly includes a radiation-source box () for disposition either above the activation region () or below the conveyor belt (), a radiation-detector box () for disposition on the opposite side of the activation region () and the conveyor belt () from the radiation-source box (); and a set of stackable structural beams () predominantly containing radiation shielding material and configured for stacking about the activation region (), the radiation-source box () and the radiation-detector box () to prevent unwanted radiation being generated and transported to the radiation-detector box ().
Maintaining Measurement Accuracy In Prompt Gamma Neutron Activation Analyzers With Variable Material Flow Rates Or Material Bed Depth
View pageUS Patent:
20030102428, Jun 5, 2003
Filed:
Mar 15, 2002
Appl. No.:
10/098884
Inventors:
Thomas Atwell - Escondido CA, US
Victor Lanz - Carlsbad CA, US
Anton Lucchin - San Diego CA, US
Victor Lanz - Carlsbad CA, US
Anton Lucchin - San Diego CA, US
International Classification:
G21G001/06
US Classification:
250/252100, 376/159000
Abstract:
A method of maintaining measurement accuracy of specific constituents in prompt gamma neutron activation analyzers in a flow of bulk material having a known range of flow rates comprising of the steps of providing a plurality of samples of the bulk material in the form of standard geometric units, each said unit having the same concentration of the specific constituent to be measured and said units in a form that can be arranged to pass through the analyzer in the same manner as the bulk material; for insertion into the analyzer in geometries and quantities referred to as loading profiles that range from the smallest to the largest flow rates to be expected with the specific bulk material and the specific analyzer, successively inserting each of the loading profiles into the analyzer and measuring long enough to yield a measurement uncertainty that is small compared to the observed differences in analysis results from one loading to another, and recording these results and computing the differences of the measurements between loading profiles, hereafter referred as measured errors, in a table, and then removing the loaded profiles, mathematically fitting the measured errors for each constituent at each loading to one or more mathematical expressions that are derived from the loading values, so as to allow subsequent mathematical generation of the expected error at any loading value, utilizing the real-time flow rate of the unknown material to calculate expected errors for each constituent based upon the mathematical functions and parameters derived in said previous steps, and subtracting the estimated or predicted measurement errors determined in the prior step from the measured values to determine the corrected or true value.