BIOCHEMICAL DIAGNOSIS OF DISEASES CAUSING OLIGOSACCHARIDURIA BY MASS SPECTROMETRY

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BIOCHEMICAL DIAGNOSIS OF DISEASES CAUSING OLIGOSACCHARIDURIA BY MASS SPECTROMETRY Pedro Ruiz-Sala, Isaac Ferrer-López Centro de Diagnóstico de Enfermedades Moleculares CEDEM, Universidad Autónoma de Madrid, CIBERER, IDIPAZ, Madrid, SPAIN

INDEX -What an oligosaccharide is -The oligosaccharidurias Oligosaccharidoses Other lysosomal oligosaccharidurias -Mass spectrometry in oligosaccharide analysis MS/MS Tandem mass spectrometry MALDI/TOF/TOF ESI/Triple Quadrupole Derivatised Oligosaccharides Results in patients

The oligosaccharides are polymers of a small number of monosaccharides For example: Biantennary N-glycan, composed of: galactose mannose fucose sialic N-acetylglucosamine

The oligosaccharidurias are a group of lysosomal storage dieases that excrete oligosaccharides above normality. Depending on the affected lysosomal enzyme, different oligosaccharides accumulate in tissues, organs and are excreted in urine. These enzymes are involved in the catabolism of: - N-linked glycoproteins (Oligosaccharidoses) - O-linked glycoproteins (Oligosaccharidoses) - Glycosphingolipids - Others

OLIGOSACCHARIDOSES (1): N-Linked Glycans Catabolism Defects 5 6 3 4 2 1 ASN Deficiency Disease 1. Aspartylglucosaminidase aspartylglucosaminuria 2. Alpha-L-fucosidase fucosidosis 3. Alpha-mannosidase B alfa-mannosidosis 4. Beta-mannosidase beta-mannosidosis 5. Alfa-Neuraminidase sialidosis (mucolipidosis I) 6. Cathepsin galactosialidosis 7. Sialin sialuria (Salla disease, SASD)

OLIGOSACCHARIDOSES (2): O-Linked Glycans Catabolism Defects Deficiency Alfa-N-acetylgalactosaminidase Disease Schindler disease Kanzaki disease

Other Oligosaccharidurias: Glycosphingolipids catabolism defects Concerning the catabolism of Gangliosides Deficiency Disease Gangliosidosis 1. Beta-galactosidase GM1 2. Beta-Hexosaminidase A isoenzyme GM2 (TaySachs disease) 3. Beta-Hexosaminidase A+B isoenzymes GM2 (Sandhoff disease) 1 2,3

Other Oligosaccharidurias: Glycosphingolipids catabolism Catabolism of Cerebrosides Deficiency Glucocerebrosidase Disease Cerebrosidosis Gaucher disease HO

Other Oligosaccharidurias Deficiency N-Ac-glucosamine-1P-transferase Disease Multiple lysosomal deficiency Mucolipidosis type II, III (I-cell) Glycogen storage diseases (glycogenosis) Alfa-(1,4)-glucosidase Pompe disease (GSD 2) Glucose-6-phosphatase GSD 1a Debrancher enzyme GSD 3 Brancher enzyme GSD 4 Hepatic phosphorylase kinase (alpha-sub.) GSD 9a

Oligosaccharide profile in urine samples of controls To keep in mind that: There is a wide variation in the excretion of oligosaccharides even in healthy controls or non-lysosomal storage disease patients. This variation could be the result of diet, parenteral nutrition, pregnancy, and drug use as well as blood group types. Urine from breast-milk-fed children, contains a wide range of oligosaccharides from milk. This also happens in urine samples of the mothers during breastfeeding. The excretion of oligosaccharides decreases as age increases.

MASS SPECTROMETRY TECHNIQUES (MS) - Mass spectrometry (MS) is an analytical technique that measures the m/z (mass-to-charge) ratio of the molecules present within a sample. - These molecules must be ionized - m/z and molecular ion are coincident when charge is +/-1 - m/z does not change between isomers, so: - Glucose, galactose, mannose: are Hexoses (Hex) - N-Acetylglucosamine, N-acetylgalactosamine: are N- AcetylHexosamines (HexNAc) - It seems there is no isomers of fucose, sialic, glycosylneuraminic, glucuronic acids

MS/MS TECHNIQUES (Tandem mass spectrometry) - MS/MS is an analytical technique that measures the m/z of a molecular ion and its fragments. - Identification, specificity, sensitivity are improved - Ionization is achieved by: - -MALDI (Matrix-Assisted Laser Desorption/Ionization) - -ESI (electrospray ionization) - Mass analysis (mass analysers) by: - TOF/TOF (time of flight) - QQQ (triple quadrupole) - MS n (MS raised to n, by an ion trap) - MS/MS can be coupled to: - -liquid chromatography - -capillary electrophoresis Useful to resolve isobaric structures

MS/MS Techniques: MALDI/TOF Samples are dry and fixed on a metal plate This fact makes difficult to couple with online separation techniques Offline purification methods are needed (SPE) Ionization and analysis in positive, negative, protonated or deprotonated but also adducts with Na+ or K+ Different matrix and reagents to derivatize (or without derivatization) could be used Sialic acid could fragment depending on the energy imparted TOF is accurate mass analyser, with higher resolution than quadrupoles, and a wider mass range (>2000 m/z) TOF/TOF could identify fragments (sugars), and then the sequence, in the oligosaccharide

MS/MS Techniques: TRIPLE QUADRUPOLE There are different modes to analyse the samples - MRM mode: multiple reaction monitoring (the analysis of 1 molecular ion and 1 specific fragment) - Neutral loss mode: Analysis of a family of compounds with a common loss after fragmentation) - Ion precursor mode: Analysis of a family of compounds with a common fragment - The oligosaccharides can be derivatised. This oligosaccharide profile is strongly informative, The abnormal compounds can be identified and also be quantified So, it is a good alternative to traditional tests like TLC

Continuing with Oligosaccharidurias and MS/MS Techniques Sensitivity of ESI decreases as the mass of oligosaccharides increases, displaying a poor ionization But: Derivatization can improve the efficiency (sensitivity, shape of chromatographic peaks ) of the analysis There are several kinds of derivatization, e.g.: -permethylation: -that enables uniform ionization - and improves sensitivity of neutral and acidic oligosaccharides -PMP (1-phenyl-3-methyl-5-pyrazolone) -to analyse sialylated and neutral oligosaccharides -to produce a common fragment with m/z 175 in all product ion scans So, selective analysis can be done by Precursor Ion mode

Derivatisation with PMP (1-phenyl-3-methyl-5-pyrazolone) O N N PMP PMP reacts sugar: with a reducing CH OH 2 O OH OH OH OH O N N CH 2 OH OH O OH OH OH N N NH NH O Product is Hexose-PMP m/z 511

PMP (1-phenyl-3-methyl-5-pyrazolone) Fragmentation of Hexose-PMP by MS/MS m/z 175 C H 2 O H O H O H O N N H O H O H O N H N So, In Precursor Ion mode of m/z 175 analysis, m/z = 511, that fragmens to m/z 175, will be an Hexose

In the same way 162 is the molecular mass of one hexose, then, 511+162 = 673 Hex 2 +162 = 835 Hex 3 +162 = 997 Hex 4 For example: MS/MS = 698/175 Which oligosaccharide could be? We can try to separate the addition into these numbers: 698 = 175 + 377 + 146 Fucose PMP HexNAc (GlcNAc/GalNAc) This oligosaccharide increases it excretion in FUCOSIDOSIS

Of course, previously to the MS/MS analysis, a clean-up is recommended by: Solid Phase Extraction (SPE) to remove - salts - solvents - reagents using stationary phases with - C18 - carbon, carbograph

Sample preparation and analysis of PMP-oligosaccharides by ESI/MS/MS (based Ramsay et al. 2005 Analytical Biochem.) 1. Urine dried under N 2 2. +PMP + methyllactose (internal standard) ph 9 3. Heated at 70 C for 90 min 4. Sample is washed with chloroform to remove the excess of PMP 5. Clean up in SPE C18 cartridge 6. Extract is injected by FlA/ESI/MS/MS Sciex4500 Precursor ion mode of 175 7. Quantification by the MRM pair Molecular ion/175, relating the peak high to that of the internal standard (with known concentration) Chemoview software.

Control Values Due to the great difference in the excretion of oligosaccharides, several groups of age ranges were established in controls: < 1 month 2 6 months 7 12 months > 1 year

Results of the Analysis of Oligosaccharides in urine by ESI/MS/MS by Precursor ion scan mode of m/z 175 (PMP derivatized) Intensity, cps 4.0e5 3.8e5 3.6e5 3.4e5 3.2e5 3.0e5 2.8e5 2.6e5 2.4e5 2.2e5 2.0e5 1.8e5 1.6e5 1.4e5 1.2e5 1.0e5 481.5 511.5 Pent Hex HexPent Hex 2 Methyl-lactose (IS) 8.0e4 673.7 Ua 6.0e4 643.6 525.5 4.0e4 687.7 657.7 2.0e4 552.6 682.7 707.7 534.5 728.7 789.8 964.0 853.9 997.0 1128.1 1252.3 1286.3 1310.3 1485.5 1525.5 1593.6 500 600 700 800 900 1000 1100 1200 1300 1400 1500 1600 1700 m/z, amu HexAc Hex 2 -Neu5Ac x Control Urine Profile Almost absence of oligosaccharides with high MW

Analysis of Oligosaccharides in urine by ESI/MS/MS Precursor ion scan of m/z 175, PMP derivatized Hex * Hex 2 HexNAc-Hex 2 * Methyl-lactose (IS) HexNAc-Hex HexNAc-Hex 3 HexNAc-Hex 4 HexNAc-Hex 5 Alpha-mannosidase deficiency Alpha-mannosidosis Excretion of OS with 1 HexNAC+ several Hexoses

Centro de Diagnóstico de Enfermedades Moleculares Universidad Autonóma de M adrid Tel.: 914974868/4589; Fax: 914974863 Facultad de Ciencias C-10, planta 2 e-mail: cedem@cbm.uam.es Av. Francisco Tomás y Valiente 7, 28049 M adrid http://www.cbm.uam.es/cedem ANALISIS DE OLIGOSACARIDOS EN ORINA POR ESPECTROMETRIA DE MASAS EN TANDEM Analysis of Oligosaccharides in urine by ESI/MS/MS Ref: creat: 10,5 mmol/l ion analito mmol/mol creat V.N. 511 Hex1 24,88 33,77 ± 33,4 673 Hex2 19,54 18,77 ± 18,3 835 Hex3 0,89 0,63 ± 0,53 997 Hex4 0,50 0,33 ± 0,22 1159 Hex5 0,02 0,03 ± 0,04 1321 Hex6 0,01 0,02 ± 0,02 1483 Hex7 0,02 0,01 ± 0,02 714 HexNAc-Hex 0,90 0,57 ± 0,35 876 HexNAc-Hex2 20,39 0,15 ± 0,11 1038 HexNAc-Hex3 1,86 0,03 ± 0,03 1200 HexNAc-Hex4 0,75 0,02 ± 0,03 1362 HexNAc-Hex5 0,15 0,01 ± 0,02 1524 HexNAc-Hex6 0,02 0,00 ± 0,01 643 Hex-Pent 2,59 2,86 ± 1,68 657 Hex-dHex 1,58 3,22 ± 5,44 698 HexNAc-dHex 0,16 0,16 ± 0,10 819 Hex2-dHex 0,10 0,27 ± 0,27 860 HexNAc-Hex-dHex 0,19 0,41 ± 0,66 965 Hex2-dHex2 0,74 0,84 ± 0,59 1022 HexNAc-Hex2-dHex 0,45 0,12 ± 0,17 1127 Hex3-dHex2 0,00 0,02 ± 0,03 1168 HexNAc-Hex2-dHex2 0,12 0,14 ± 0,22 1184 HexNAc-Hex3-dHex 0,05 0,03 ± 0,04 1330 HexNAc-Hex3-dHex2 0,01 0,02 ± 0,03 1346 HexNAc-Hex4-dHex 0,02 0,02 ± 0,02 1492 HexNAc-Hex4-dHex2 0,00 0,00 ± 0,01 1508 HexNAc-Hex5-dHex 0,00 0,00 ± 0,01 964 Hex2-Neu5Ac 1,17 0,80 ± 0,47 1005 Hex-HexNAc-Neu5Ac 0,30 0,21 ± 0,13 1079 Hex2-HexNAc2 0,04 0,03 ± 0,03 1241 Hex3-HexNAc2 0,05 0,02 ± 0,02 1282 Hex2-HexNAc3 0,01 0,01 ± 0,02 1403 Hex4-HexNAc2 0,01 0,01 ± 0,02 1444 Hex3-HexNAc3 0,00 0,01 ± 0,02 1532 Hex3-HexNAc2-Neu5Ac 0,01 0,01 ± 0,01 1606 Hex4-HexNAc3 0,00 0,00 ± 0,01 1647 Hex3-HexNAc4 0,01 0,00 ± 0,01 1695 Hex4-HexNAc2-Neu5Ac 0,01 0,00 ± 0,01 1345 Neu5Gc-HexNAc-Hex3 0,04 0,01 ± 0,02 1695 Hex5-HexNAc3 0,01 0,00 ± 0,01 1851 Hex3-HexNAc5 0,00 0,00 ± 0,00 525 UA 8,07 15,10 ± 14,32 552 HexNAc 4,40 5,24 ± 3,87 632 HexNAc-(S) 0,19 0,21 ± 0,14 Concentrations (mmol/mol creat.) Alpha-mannosidase deficiency Alpha-mannosidosis

Analysis of Oligosaccharides in urine by ESI/MS/MS Precursor ion scan of m/z 175, PMP derivatized Hex Methyl-lactose (IS) Hex 2 HexNAc-dHex HexNAc-Hex-dHex dhex Fucose Fucosidosis (fucosidase defect) Increased excretion of oligosaccharides with dhex (deoxyhexoses)

Analysis of Oligosaccharides in urine by ESI/MS/MS Precursor ion scan of m/z 175, PMP derivatized Pent x? Hex: Man, Gal Hex Methyl-lactose (IS) Hex 2 HexNAc-Hex 2 HexNAc 2 -Hex 3 HexNAc 2 -Hex 4 GM1 gangliosidosis (beta-galactosidase def) Increased excretion of oligosaccharides with different numbers of Hex and HexNAc

Analysis of Oligosaccharides in urine by ESI/MS/MS Precursor ion scan of m/z 175, PMP derivatized Methyl-lactose (IS) Hex 2 HexNAc 2 -Hex 2 HexNAc2-Hex3 HexNAc 3 -Hex 3? GM2 gangliosidosis Sandhoff (beta-hexosaminidase def) HexNAc 4 -Hex 3 Increased excretion of oligosaccharides with different numbers of Hex and HexNAc

Analysis of Oligosaccharides in urine by ESI/MS/MS Precursor ion scan of m/z 175, PMP derivatized Hex Hex 2 Hex 4 tetraglucose Methyl-lactose (IS) Hex 4 Pompe Disease (Alpha-glucosidase def GSD 2) Increased excretion of Hex4

Analysis of Oligosaccharides in urine by ESI/MS/MS Precursor ion scan of m/z 175, PMP derivatized There are some diseases that result in aglycone moieties at the reducing end, (asparagine, and occasionally threonine and serine), excreted in aspartylglucosaminuria, and Schindler/Kanzaki diseases. These particular diseases require alternate procedures and internal standards.

Analysis of Oligosaccharides in urine by ESI/MS/MS Precursor ion scan of m/z 175, PMP derivatized However, since this method enables the analysis of oligosaccharides with reducing ends, these following lysosomal storage diseases can be detected: Mannosidosis Sialidosis Galactosialidosis Fucosidosis Sialic acid storage disease (SASD) GM1 GM2 TaySachs GM2 Sandhoff Gaucher disease Mucolipidosis II (I-cell) Pompe disease