interpolation function (MathWorks Inc)
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interpolation function
Interpolation Function, supplied by MathWorks Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/interpolation+function/pmc12170577-68-42-41
Average 90 stars, based on 1 article reviews
Interpolation Function, supplied by MathWorks Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/interpolation+function/pmc12170577-68-42-41
Average 90 stars, based on 1 article reviews
interpolation function - by Bioz Stars,
2026-10
90/100 stars
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Irradiation:Article Title: The influence of alloy composition on neutron irradiation swelling of austenitic stainless steel by deep neural network Article Snippet: .. Factor Minimum value Maximum value The method to deal with the abnormal values 1 Cr 10.4wt% 18wt% Fill with 0 2 Ni 12.4wt% 17.6wt% Fill with 0 3 Ti 0wt% 2wt% Fill with 0 4 C 0.001wt% 1wt% Fill with 0 5 Si 0wt% 2.45wt% Fill with 0 6 P 0wt% 0.09wt% Fill with 0 7 Mn 0wt% 2wt% Fill with 0 8 Co 0wt% 0.1wt% Fill with 0 9 Mo 0wt% 3.35wt% Fill with 0 10 N 0wt% 0.01wt% Fill with 0 11 B 0wt% 0.006wt% Fill with 0 12 S 0wt% 0.01wt% Fill with 0 13 Nb 0wt% 0.8wt% Fill with 0 Cu 0wt% 0.54wt% Fill with 0 Ta 0wt% 0.36wt% Fill with 0 14 Al 0wt% 0.15wt% Fill with 0 15 V 0wt% 0.29wt% Fill with 0 Mg 0wt% 1.63wt% Fill with 0 W 0wt% 2.4wt% Fill with 0 16 Zr 0wt% 0.26wt% Fill with 0 17 crystal structure - - 1-BCC, 2-FCC 18 irradiation type - - 1-neutron, 2-C ion, 3-Ni ion, 4-Fe ion, 5-electron, 6-proton 19 irradiation dose 0.8dpa 91.8dpa Interpolation 20 irradiation dose rate 8.9×10 -9dpa/s 1.1×10-2dpa/s dose /time 21 irradiation temperature 394K 1014K Interpolation 22 dislocation density 3×1013 m-2 3.85×1015 m-2 Interpolation 23 pre injected He concentration 0 appm 4470 appm Fill with 0 24 void number density 0 m-3 7.3×1023 m-3 Interpolation 25 void size 0 nm 25 nm Injection:Article Title: The influence of alloy composition on neutron irradiation swelling of austenitic stainless steel by deep neural network Article Snippet: .. Factor Minimum value Maximum value The method to deal with the abnormal values 1 Cr 10.4wt% 18wt% Fill with 0 2 Ni 12.4wt% 17.6wt% Fill with 0 3 Ti 0wt% 2wt% Fill with 0 4 C 0.001wt% 1wt% Fill with 0 5 Si 0wt% 2.45wt% Fill with 0 6 P 0wt% 0.09wt% Fill with 0 7 Mn 0wt% 2wt% Fill with 0 8 Co 0wt% 0.1wt% Fill with 0 9 Mo 0wt% 3.35wt% Fill with 0 10 N 0wt% 0.01wt% Fill with 0 11 B 0wt% 0.006wt% Fill with 0 12 S 0wt% 0.01wt% Fill with 0 13 Nb 0wt% 0.8wt% Fill with 0 Cu 0wt% 0.54wt% Fill with 0 Ta 0wt% 0.36wt% Fill with 0 14 Al 0wt% 0.15wt% Fill with 0 15 V 0wt% 0.29wt% Fill with 0 Mg 0wt% 1.63wt% Fill with 0 W 0wt% 2.4wt% Fill with 0 16 Zr 0wt% 0.26wt% Fill with 0 17 crystal structure - - 1-BCC, 2-FCC 18 irradiation type - - 1-neutron, 2-C ion, 3-Ni ion, 4-Fe ion, 5-electron, 6-proton 19 irradiation dose 0.8dpa 91.8dpa Interpolation 20 irradiation dose rate 8.9×10 -9dpa/s 1.1×10-2dpa/s dose /time 21 irradiation temperature 394K 1014K Interpolation 22 dislocation density 3×1013 m-2 3.85×1015 m-2 Interpolation 23 pre injected He concentration 0 appm 4470 appm Fill with 0 24 void number density 0 m-3 7.3×1023 m-3 Interpolation 25 void size 0 nm 25 nm Concentration Assay:Article Title: The influence of alloy composition on neutron irradiation swelling of austenitic stainless steel by deep neural network Article Snippet: .. Factor Minimum value Maximum value The method to deal with the abnormal values 1 Cr 10.4wt% 18wt% Fill with 0 2 Ni 12.4wt% 17.6wt% Fill with 0 3 Ti 0wt% 2wt% Fill with 0 4 C 0.001wt% 1wt% Fill with 0 5 Si 0wt% 2.45wt% Fill with 0 6 P 0wt% 0.09wt% Fill with 0 7 Mn 0wt% 2wt% Fill with 0 8 Co 0wt% 0.1wt% Fill with 0 9 Mo 0wt% 3.35wt% Fill with 0 10 N 0wt% 0.01wt% Fill with 0 11 B 0wt% 0.006wt% Fill with 0 12 S 0wt% 0.01wt% Fill with 0 13 Nb 0wt% 0.8wt% Fill with 0 Cu 0wt% 0.54wt% Fill with 0 Ta 0wt% 0.36wt% Fill with 0 14 Al 0wt% 0.15wt% Fill with 0 15 V 0wt% 0.29wt% Fill with 0 Mg 0wt% 1.63wt% Fill with 0 W 0wt% 2.4wt% Fill with 0 16 Zr 0wt% 0.26wt% Fill with 0 17 crystal structure - - 1-BCC, 2-FCC 18 irradiation type - - 1-neutron, 2-C ion, 3-Ni ion, 4-Fe ion, 5-electron, 6-proton 19 irradiation dose 0.8dpa 91.8dpa Interpolation 20 irradiation dose rate 8.9×10 -9dpa/s 1.1×10-2dpa/s dose /time 21 irradiation temperature 394K 1014K Interpolation 22 dislocation density 3×1013 m-2 3.85×1015 m-2 Interpolation 23 pre injected He concentration 0 appm 4470 appm Fill with 0 24 void number density 0 m-3 7.3×1023 m-3 Interpolation 25 void size 0 nm 25 nm other:Article Title: A Role for KCNQ Channels on Cell Type-Specific Plasticity in Mouse Auditory Cortex after Peripheral Damage Article Snippet: We then interpolated to a Article Title: A Comprehensive Evaluation Method for Generalized Reliability of CNC Machine Tools Based on Improved Entropy-Weighted Extensible Matter-Element Method Article Snippet: Computerized numerical control (CNC) machine tools are typically repairable products.. Reliability indicators should be combined with maintenance and availability indicators to fully reflect the level of operational reliability of the machine tools.. At present, most of the methods for the comprehensive evaluation of the generalized reliability of CNC machine tools are based on a specific indicators system, the model has a strong subjectivity and can not be changed in a timely manner when the indicators change. Article Title: Room-temperature-processed transparent hemispherical optoelectronic array for electronic eyes Article Snippet: a Department of Biomedical Engineering, City University of Hong Kong, Hon g Kong, China Department of Materials Science and Engineering, and State Key Laboratory of Marine Pollution, City University of Hong Kong, Hong Kong, China c Hong Kong Centre for Cerebro-Cardiovascular Health Engineering, Hong Kong, China Department of Chemistry, City University of Hong Kong, Hong Kong, China e Hong Kong Branch of National Precious Metals Material Engineering Research Center, City University of Hong Kong, Hong Kong, China f Shenzhen Research Institute, City University of Hong Kong, Shenzhen 518057, China Department of Chemistry, The Chinese University of Hong Kong, Hong Kong, China Department of Materials Science and Engineering, City University of Hong Kong, Hong Kong, China Article Title: Predictive Thermodynamics for Isochoric (Constant-Volume) Cryopreservation Systems Article Snippet: A downloadable interpolation function from Control:Article Title: Imaging joy with generalized slice dithered enhanced resolution and SWAT reconstruction: 3T high spatial–temporal resolution fMRI Article Snippet: .. As a control comparison to ensure that the observed benefits of SWAT reconstruction are not artificially inflated due merely to the presence of additional time points (i.e., up-sampled interpolation), we also performed simple 5-fold Comparison:Article Title: Imaging joy with generalized slice dithered enhanced resolution and SWAT reconstruction: 3T high spatial–temporal resolution fMRI Article Snippet: .. As a control comparison to ensure that the observed benefits of SWAT reconstruction are not artificially inflated due merely to the presence of additional time points (i.e., up-sampled interpolation), we also performed simple 5-fold Sequencing:Article Title: Imaging joy with generalized slice dithered enhanced resolution and SWAT reconstruction: 3T high spatial–temporal resolution fMRI Article Snippet: .. As a control comparison to ensure that the observed benefits of SWAT reconstruction are not artificially inflated due merely to the presence of additional time points (i.e., up-sampled interpolation), we also performed simple 5-fold Software:Article Title: Refractive index optical sensor using gold-walled silicon nanowire Article Snippet: This paper presents a novel optical sensor that can determine the refractive index of many materials, alloys and fluids.. In this method, by using a small silicon wire structure with dimensions of 4 m × 0.7 m,× 0.3 m with two reciprocating walls covered with gold and a vertical window, we will be able to calculate the refractive index of materials at the wavelength of 1.3 μm.. The settling time to determine the refractive index of this optical sensor is only 375 fs, so it will be able to record very fast refractive index changes. |