201
L
Lactam PA, 180
Langmuir isotherm, 100
Laser diffraction, 97
Leaching, 143
Leafy vegetables, 7
Light-induced SMGs, 38–40
Limiting oxygen index (LOI), 168, 170, 179,
180, 185, 188
Limonene, 124, 126
Limonene-induced l-PF8T2 particles, 128
Linear low-density polyethylene (LLDPE), 15
M
Magnetic dipole transitions, 118
Magnetic resonance imaging, 153
Maleic anhydride grafted-PE, 15
Material extrusion (ME), 142
Material jetting (MJ), 142
Material separation, 41
Matrix-assisted laser desorption/ionization
(MALDI) technique, 99
Maxillofacial fields, 142
Maxillofacial prosthodontics, 151, 152
Medium density polyethylene (MDPE), 15
Methyl 3,4,5-tris(10-undecenoyloxy) benzoate
(UDBME), 168
Methyl methacrylate (MMA), 179
Microbial growth, 11
Microcrystalline cellulose, 14
Microorganisms, 11
Milled PMMA models, 150
Milling method, 150
Mini-emulsion, 87
MIP formats
beads
core-shell approach, 85
core-shell strategy, 90–92
emulsion polymerization, 87, 88
precipitation polymerization, 88, 89
preparation, 86
solid-phase synthesis, 89, 90
suspension polymerization, 86, 87
binding characteristics, 85
bulk polymerization, 85
polymerization strategies, 85
MIP membranes
composite membranes, 93
film imprinting and solidification
process, 93
in situ radical polymerization, 92
meso-/micropores, 92
phase inversion methods, 93
pores, 92
‘post implanting’ methods, 92
preparation, 92
PVC, 93
SAM formation, 93, 94
sensing applications, 93
MMA with diethyl(methacryloyloxyethyl)
phosphonate (MMA-DEAMP),
179, 180
MMA with diethyl(methacryloyloxymethyl)
phosphonate (MMA-DEMMP),
179, 180
Modified atmosphere packaging (MAP), 7, 10
Modified Mnts, 19
Moldable wax, 151
Molecular imprinting, 76–78
Molecularly imprinted polymers (MIP)
artificial receptors, 70
binding properties
apparent affinity constants, 101
concentration-dependent recognition
behavior, 100
experimental binding isotherms, 100
frontal chromatography, 101
ITC, 101
Langmuir isotherm, 100
molecular memory, 100
non-covalent imprinting, 100
QCM, 101
QCM-D, 102
radioligand binding assays, 101
SPR, 101
UV-Vis and fluorescence
spectrophotometry, 100
zonal chromatography, 101
molecular recognition mechanism, 70
morphological characterization
ellipsometric measurements, 95
microscopic analysis, 95, 96
nitrogen adsorption porosimetry, 95
particle size analysis, 97
pore size distribution, 95
surface area, 94, 95
physicochemical characterization
elemental analysis, 98
FTIR and Raman spectroscopy, 98
GPC, 98
MALDI technique, 99
microelemental analysis, 98
NMR spectroscopy, 97
sensor surfaces, 99
solid-state techniques, 97
superparamagnetic properties, 99
swelling capacity, 99
Index
L
Lactam PA, 180
Langmuir isotherm, 100
Laser diffraction, 97
Leaching, 143
Leafy vegetables, 7
Light-induced SMGs, 38–40
Limiting oxygen index (LOI), 168, 170, 179,
180, 185, 188
Limonene, 124, 126
Limonene-induced l-PF8T2 particles, 128
Linear low-density polyethylene (LLDPE), 15
M
Magnetic dipole transitions, 118
Magnetic resonance imaging, 153
Maleic anhydride grafted-PE, 15
Material extrusion (ME), 142
Material jetting (MJ), 142
Material separation, 41
Matrix-assisted laser desorption/ionization
(MALDI) technique, 99
Maxillofacial fields, 142
Maxillofacial prosthodontics, 151, 152
Medium density polyethylene (MDPE), 15
Methyl 3,4,5-tris(10-undecenoyloxy) benzoate
(UDBME), 168
Methyl methacrylate (MMA), 179
Microbial growth, 11
Microcrystalline cellulose, 14
Microorganisms, 11
Milled PMMA models, 150
Milling method, 150
Mini-emulsion, 87
MIP formats
beads
core-shell approach, 85
core-shell strategy, 90–92
emulsion polymerization, 87, 88
precipitation polymerization, 88, 89
preparation, 86
solid-phase synthesis, 89, 90
suspension polymerization, 86, 87
binding characteristics, 85
bulk polymerization, 85
polymerization strategies, 85
MIP membranes
composite membranes, 93
film imprinting and solidification
process, 93
in situ radical polymerization, 92
meso-/micropores, 92
phase inversion methods, 93
pores, 92
‘post implanting’ methods, 92
preparation, 92
PVC, 93
SAM formation, 93, 94
sensing applications, 93
MMA with diethyl(methacryloyloxyethyl)
phosphonate (MMA-DEAMP),
179, 180
MMA with diethyl(methacryloyloxymethyl)
phosphonate (MMA-DEMMP),
179, 180
Modified atmosphere packaging (MAP), 7, 10
Modified Mnts, 19
Moldable wax, 151
Molecular imprinting, 76–78
Molecularly imprinted polymers (MIP)
artificial receptors, 70
binding properties
apparent affinity constants, 101
concentration-dependent recognition
behavior, 100
experimental binding isotherms, 100
frontal chromatography, 101
ITC, 101
Langmuir isotherm, 100
molecular memory, 100
non-covalent imprinting, 100
QCM, 101
QCM-D, 102
radioligand binding assays, 101
SPR, 101
UV-Vis and fluorescence
spectrophotometry, 100
zonal chromatography, 101
molecular recognition mechanism, 70
morphological characterization
ellipsometric measurements, 95
microscopic analysis, 95, 96
nitrogen adsorption porosimetry, 95
particle size analysis, 97
pore size distribution, 95
surface area, 94, 95
physicochemical characterization
elemental analysis, 98
FTIR and Raman spectroscopy, 98
GPC, 98
MALDI technique, 99
microelemental analysis, 98
NMR spectroscopy, 97
sensor surfaces, 99
solid-state techniques, 97
superparamagnetic properties, 99
swelling capacity, 99
Index