ics-5000 capillary ion chromatograph€¦ · ion chromatography (part i) ... iodide 0.67 3....

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ICS-5000 ICS 5000 Capillary Ion Chromatograph

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  • ICS-5000ICS 5000Capillary Ion Chromatograph

  • Types of Surface Contamination

    Organic Impurities

    Particles

    Organic Impurities

    Adsorbed Molecules MetalsIons

    S fSurface

    14924

  • Standard Electronics Industry Methods Specifying Ion Chromatography (Part I)

    ● SEMI—Recommended Guidelines for Pure Waterfor Semiconductor Processingfor Semiconductor Processing

    ● ASTM—Guidelines for Electronics Grade Water● SEMI—Standard Test Method for Measurement of

    Ionic Contamination on Semiconductor Lead Frames● SEMI—Standard Test Method for Trace Contaminants

    in Molding Compoundsin Molding Compounds

    12277

  • Standard Electronics Industry Methods Specifying Ion Chromatography (Part II)

    ● SEMI—Alternative to Wet Chemistry for the Analysis of Mixed Acid Etchantsof Mixed Acid Etchants

    ● U.S. Military—Adhesives, Polymeric, Specifications for Use in Microcircuits

    ● IPC—Standard for Measurement of Residues on Circuit Boards● IDEMA—Measurement of Extractable/Leachable

    Anion Contamination Levels on Drive Components Anion Contamination Levels on Drive Components by Ion Chromatography

    ● IDEMA—Special Cations Analysis

    12278

    Main Menu

  • ICS-5000 - Dimension of Scale

    Overlay of chromatograms from 2 mm and 0.4 mm with appropriate injection volumesj

    Capillary (0.4 mm column) IC with 0.4 µL Injection Volume116

    LithiumSodium

    Potassium

    MagnesiumCalcium

    Conductivity

    0

    AmmoniaConductivity[µS]

    16Lithium

    Sodium

    Ammonia

    PotassiumMagnesium Calcium

    Standard (4 mm column) IC with 40 µL Injection Volume

    Conductivity

    0 2 4 6 8 10 12 14R t ti Ti [ i ]

    0

    Conductivity[µS]

    Retention Time [min]

  • Advantages of Capillary Ion Chromatography

    ● Capable of continuous operation with minimal intervention ● Ease of use, higher sample throughput, and improved calibration● Improved separation efficiency or speed● Improved trace analysis (10 µL injection = large loop injection)● Improved trace analysis (10 µL injection = large-loop injection)● Improved compatibility with MS and “small sample size”

    applications● Possibilities of offering new selectivity for difficult applications

    using new columns packed with more costly and difficult-to-make stationary phases stationary phases

  • Typical Operating Parameters for Conventional and Capillary RFIC™ Systemsp y y

    Conventional RFIC Capillary RFIC

    Column ID 4 mm 0.4 mm

    Flow Rate 1.0 mL/min 10 µL/min

    Injection Loop 25 µL 0.4 µL

    Suppressor Dead Volume 60 µL 0.6 µL

    EG C rrent (50 mM KOH) 80 4 mA 0 804 mA EG Current (50 mM KOH) 80.4 mA 0.804 mA

    EG Current (200 mM KOH) 321.6 mA 3.216 mA

    K+ Consumption/Year 26 3 Moles (50 mM KOH) 0 263 Moles (50 mM KOH) K+ Consumption/Year 26.3 Moles (50 mM KOH) 0.263 Moles (50 mM KOH)

    H2O Consumption/Year 525 L 5.25 L

  • Separation of 9 Anions on a Capillary AS19 Column

    )

    Column: AS19 column(0.4 mm x 30 cm)

    Eluent Source: Capillary EGC KOH cartridge 8.0

    de (

    1346

    6) (1

    4115

    )72

    )e

    (165

    88)

    e (1

    5542

    )

    (147

    25)

    (159

    19)

    rate

    (150

    46)

    Sulfa

    te (1

    2730

    ) Eluent Source: Capillary EGC-KOH cartridge Eluent: 20 mM KOH Flow Rate: 10 µL/minTemperature: 30 °C

    µS

    Fluor

    idCh

    lorite

    Br

    omate

    (14

    37Ch

    loride

    Nitrit

    Chlor

    ate (

    Brom

    ide

    Nit r S Temperature: 30 C

    Suppressor: Electrolytic capillary anion suppressor

    Overlay of 30 consecutive runs% retention time RSD: 0.06% for chloride to 0.22% fluoride

    µ

    0 0 20 00.0

    Minutes0.0 20.0Minutes

  • Separation of 22 Anions on a Capillary AS19 Column

    Column: Capillary AS19 column (0.4 mm x 250 mm)

    16.0

    lfate

    Overlay of 30 consecutive runs% retention time RSD: 0.09% for arsenate to 0.18% for fluoride

    Eluent Source: EGC-KOH cartridge Eluent: 10 mM KOH (0 to 10 min), 10 to 52 mM

    KOH (10 to 42 min), 52 to 70 mM (42 to 45 min), 10 mM (45 to 50 min)

    Sul

    Selen

    ate

    Arse

    nate

    Flow Rate: 10 µL/minTemperature: 30 °CSuppressor: Electrolytic capillary anion suppressor

    µS

    e orite

    hlorid

    e

    ate Oxa

    late

    mate

    Phos

    phate

    umar

    at

    Fluor

    ide

    Aceta

    teFo

    rmat Ch

    lBr

    omate

    Ch

    Nitrit

    e Chlor

    ateBr

    omide

    Nitra

    Malon

    ate

    dide

    ulfate

    Chro

    m P Fu e

    Thioc

    yana

    te

    rchlor

    ate0.0 50.0

    0.0Minutes

    IodTh

    iosu Pe

    0.0 50.0Minutes

  • Anions in Coke on a Capillary AS19 Column

    Column: 0.4 x 250 mm AS19 and 0.4 x 50 mm AG19

    60.0

    Eluent: KOH (RFIC-EG)Gradient: 7 min 15 mM isocratic,

    in 18 min to 60 mM gradientCol. Temp.: 30 °C

    40.0

    [µS

    ]

    -Chl

    orid

    e

    hosp

    hate

    trate

    Col. Temp.: 30 CFlow Rate: 10 µL/minInj. Volume: 0.4 µLDetection: Suppressed ConductivitySample: Coke 1:10

    20.0

    ondu

    ctiv

    ity

    4 -

    itrat

    e

    -Sul

    fate

    11 -

    Mal

    ate

    14 -

    P h

    17 -

    Cit

    Sample: Coke 1:10

    10 0

    C

    7 -N 9

    - 1

    0.0 10.0 20.0 30.0-10.0

    Retention Time [min]

  • Cation Standard on a Prototype Capillary CS16 Column

    20.0 µS

    m m um

    Column: 0.4 x 250 mm CS16 and 0.4 x 50 mm CG16

    15.0

    y [µ

    S]

    thiu

    m

    Sod

    ium

    um 4 -

    Pot

    assi

    um

    5 - M

    agne

    siu

    6 - C

    alci

    u

    Eluent: MSA (RFIC-EG)Gradient: 6 mM in 30 min to 66 mM Col. Temp.: 40 °CFlow Rate: 0.010 mL/min

    5 0

    10.0

    Con

    duct

    ivity

    1 - L

    it

    2 -

    3 - A

    mm

    oni u 4 5 Flow Rate: 0.010 mL/min

    Inj. Volume: 0.4 µLDetection: Suppressed ConductivitySample: 6 Cation Standard 1:50

    2 0

    5.0

    min

    C

    0.0 10.0 20.0 30.0-2.0 min

    Retention Time [min]

  • Fast Separation of Six Cations on a Capillary CS12A-5 Column

    20 1 23

    5

    4

    6

    Column: CS12A-5 column (0.4 mm x 15 cm)Eluent Source: Capillary EGC-MSA cartridge Eluent: 20 mM MSA

    18 µL/min Flow Rate: 12 to 18 µL/minTemperature: 30 °CSuppressor: Electrolytic capillary cation suppressor

    µS

    14 µL/min

    16 µL/minPeak Retention Time Concentration

    at 18 µL/min (mg/L) (minutes)

    1 Lithium 1 037 0 5 14 µL/min

    12 µL/min

    1 23 5

    46

    1. Lithium 1.037 0.5 2. Sodium 1.250 2.03. Ammonium 1.443 2.54. Potassium 1.813 5.0 5. Magnesium 4.507 2.56. Calcium 5.790 5.0

    0.0 2.0 4.0 6.0 8.0 10.0 12.00

    Minutes

  • Rapid Determination of Cations - Treated Waste Water

    Column: CS12A-5 column (0.4 mm x 15 cm)Eluent Source: Capillary EGC-MSA cartridge Eluent: 28 mM MSA 1

    Flow Rate: 18 µL/minTemperature: 30 °CSuppressor: Electrolytic capillary cation suppressor

    O l f 20 ti Sample: Treated Waste Water (1:10 dilution)

    Peak Concentration (mg/L)

    Overlay of 20 consecutive runsRetention time RDS (n=20): 0.053% (calcium) to 0.28% (sodium)Peak area RSD (n=20): 0.5% (sodium) to 0.9% (magnesium)

    1. Sodium 19.62. Potassium 0.83. Magnesium 3.54. Calcium 3.1

    23

    42

  • Trace Analysis Using Capillary Ion Chromatography

    ● Large-volume direct injection or pre-concentrationLarge volume direct injection or pre concentration

    ● A 10 µL injection onto a 0.4 mm ID column is equivalent to a 1000 µL injection onto a 4 mm I.D. column.

    ● Loading a 250 L sample onto a capillary concentrator can be accomplished with an AS autosampler in shorter time than loading a 25 mL sample onto a con entional concentrator ith an AS HV conventional concentrator with an AS-HV.

    ● Suitable for samples with low levels of matrix ions

  • Trace Analysis, Microbore IC

    4 00

    Reactor water sample, 75 ng/L Chloride

    FluorideChloride 2 mm AS14 column

    3.00

    4.00 2 mm AS14 column0.38 mL/ min

    2.00

    µS

    1.00

    0.00

    10 2015Retention time, minutes

    2 mL Sample, Direct Injection

  • Inorganic Anions at Trace Concentrations with 10 µL Injection

    Column: Prototype AS20 column (0.4 x 250 mm)Eluent Source: Capillary EGC-KOH cartridge Eluent: 35 mM KOH Flow Rate: 10 µL/minTemperature: 30 °CSuppressor: Electrolytic capillary suppressorDetection: Suppressed conductivityInjection Volume: 10 µL

    0.22511

    Injection Volume: 10 µL Peaks: 1. Thiosulfate 0.33 µg/L

    2. Iodide 0.673. Thiocyanate 0.674. Perchlorate 1.0

    µS4. Perchlorate 1.0

    22 33 44

    0 160.210

    Minutes

    1515

  • Trace Bromate in Drinking Water Large Loop (10 µL) Injections

    2.0

    Column: Capillary AS19 column (0.4 x 250 mm)2.0

    Brom

    ate

    Eluent Source: Capillary EGC-KOH cartridge Eluent: 10 mM KOH (0 to 10 min), 10 to 52 mM

    KOH (10 to 42 min), 52 to 70 mM (42 to 45 min) 10 mM (45 to 50 min)

    µS

    (42 to 45 min), 10 mM (45 to 50 min) Flow Rate: 10 µL/minTemperature: 30 °CSuppressor: Electrolytic capillary anion suppressor

    Sunnyvale drinking waterSunnyvale drinking water + 2 ppb bromate

    0.0 40.00.50

    Minutes

    Sunnyvale drinking water + 2 ppb bromate Sunnyvale drinking water + 4 ppb bromate

  • Separation of Inorganic Anions at Trace Concentrations10 µL Injection

    0.47

    Column: AS19 column (0.4 mm x 25 cm)Eluent Source: Capillary EGC-KOH cartridge Eluent: 20 mM KOH 1Flow Rate: 10 µL/minTemperature: 30 °CSuppressor: Capillary anion suppressor

    1

    3 7

    µS

    Detection: Suppressed conductivity Injection Volume: 10 µL

    P k C t ti ( /L)

    2 4 56

    Peak Concentration (µg/L)1. Fluoride 0.2 2. Chloride 0.33. Nitrite 1.04. Bromide 1.05 Nit t 1 0

    —— Standards in deionized water—— Deionized water

    Minutes0.0 20.00.36

    5. Nitrate 1.06. Carbonate 7. Sulfate 1.0

  • Trace Analysis Using Capillary Ion Chromatography

    ● Two-dimensional ion chromatography using a capillary column in the second dimension

    ● Perform large-loop injection and separation of matrix ions using a 4 mm ID column in the 1st dimension

    F th i f i t t i t t l ft i i th 1 t● Focuses the ions of interest in a concentrator column after suppression in the 1stdimension

    ● Perform separation using a 0.4 mm ID column of different selectivity in the 2nd dimensiondimension

    ● Provide sensitivity enhancement that is proportional to the flow rate ratio (e.g. a factor of 100)

    ● Suitable for samples with high levels of matrix ions

  • ICS-5000 2D RFIC™ System Using a Capillary Column in the Second Dimension

    Auto-

    Waste

    L

    WWaste

    Sampler Detector

    CRD 200

    L

    W

    CL

    S

    P

    Pump

    Suppressor

    CL

    S

    P

    Capillary Concentrator Column

    0.4 mm Guard & Sample Loop

    4 mm Guard & Analytical ColumnSuppressor

    Capillary Pump

    Analytical Column

    DetectorDetector

    Standard Bore: 4 mm, 1 mL/min Capillary: 0.4 mm, 10 L/min

  • Determination of Trace Perchlorate Using a 2D RFIC™ System with a Second-Dimension Capillary Column

    1st dimension chromatogram

    A. First-Dimension ConditionsColumn: IonPac® AG16, AS16, 4 mm Flow Rate: 1.0 mL/min

    1.0

    chromatogram1.0 S full scale Eluent: 65 mM KOH (EG)Suppressor: 4 mm SRS 300

    Inj. Volume: 4000 µLTemperature: 30 °CB. Second-Dimension Conditions

    µS

    1

    10.0

    2 d di i

    B. Second Dimension ConditionsColumn: Prototype AS20 (0.4 mm x 25 cm)Flow Rate: 10 µL/minEluent: 35 mM KOHSuppressor: Capillary Anion SuppressorTemperature: 30 °C

    0.00.0 60.0

    1

    µS

    2nd dimension chromatogram10 S full scale

    Temperature: 30 CConcentrator: Capillary concentrator,

    5000 µL of 1st dimension suppressed effluent (19 to 24 minutes)

    Peak: 1 Perchlorate 1 0 g/L

    1

    0.0 60.00.0 Minutes2

    Peak: 1. Perchlorate 1.0 g/L

    Perchlorate Peak Area1st Dimension: 0.0115 µS*min2nd Dimension: 1.75 µS*minµ

  • Determination of Trace Perchlorate Using a 2D RFIC™ System with a Second-Dimension Capillary Column

    A. First-Dimension ConditionsColumn: IonPac® AG16, AS16, 4 mm Flow Rate: 1.0 mL/min El t 65 M KOH (EG)

    1.00

    rate

    Eluent: 65 mM KOH (EG)Suppressor: 4 mm SRS 300 Inj. Volume: 4000 µLTemperature: 30 °CB. Second-Dimension Conditions

    Perch

    lor

    B. Second Dimension ConditionsColumn: Prototype AS20 (0.4 mm x 25 cm)Flow Rate: 10 µL/minEluent: 35 mM KOH (EG)Suppressor: Capillary Anion SuppressorT t 30 °C

    µS

    Temperature: 30 °CConcentrator: Capillary concentrator,

    5000 µL of 1st dimension suppressed effluent (19 to 24 minutes)

    Deionized Water 30 ng/L perchlorate in deionized water

    29.0 44.00.00

    Minutes

    30 ng/L perchlorate in 1000 mg/L chloride,sulfate and bicarbonate

  • Determination of Perchlorate in Bottled Water Samples Using an ICS-5000 2D RFIC™ Systemg y

    A. First-Dimension ConditionsColumn: IonPac® AG16 AS16 4 mm 2.5 hl

    orat

    e

    Column: IonPac® AG16, AS16, 4 mm Flow Rate: 1.0 mL/min Eluent: 65 mM KOH (EG)Suppressor: 4 mm SRS 300 Inj. Volume: 4000 µL

    Perc

    h

    Temperature: 30 °CB. Second-Dimension ConditionsColumn: Prototype AS20 (0.4 mm x 25 cm)Flow Rate: 10 µL/minEluent: 35 mM KOH (EG)

    µSEluent: 35 mM KOH (EG)Suppressor: Capillary Anion SuppressorTemperature: 30 °CConcentrator: Capillary concentrator,

    5000 µL of 1st dimension —— Brand A bottled water (263 ng/L perchlorate)B d B B ttl d t (38 5 /L hl t ) suppressed effluent (19 to 24 minutes)13

    30 0 45 0-1.0

    Minutes

    —— Brand B Bottled water (38.5 ng/L perchlorate)—— 30 ng/L perchlorate in DI water—— DI water

    30.0 45.0Minutes

  • Determination of Trace Bromate in a Bottled Water Sample Using an ICS-5000 2D Capillary RFIC System g p y y

    0.5

    e

    A. First-Dimension ConditionsColumn: IonPac® AG19, AS19, 4 mm Fl R 1 0 L/ i

    Brom

    ate Flow Rate: 1.0 mL/min

    Eluent: 10 to 60 mM KOH (EGC-KOH )Suppressor: 4 mm SRS 300 Inj. Volume: 1000 µLTemperature: 30 °C

    µS

    Temperature: 30 C

    B. Second-Dimension ConditionsColumn: Prototype AS20 (0.4 mm x 25 cm)Flow Rate: 10 µL/min

    O ( GC O )

    —— Dionized water

    Eluent: 35 mM KOH (EGC-KOH)Suppressor: Capillary Anion SuppressorTemperature: 30 °CConcentrator: Capillary concentrator,

    2500 µL of 1st dimension —— Brand A bottled water (54 ng/L)—— 100 ng/L bromate in deionized water—— 30 ng/L bromate in deionized water

    17.0 20.0 -0.3

    Minutes

    1

    2500 µL of 1st dimension suppressed effluent (7.5 to 10 minutes)

    Minutes

  • Operating Conditions of a Capillary IC System with MS/MS Detection

    ● Capillary IC System:● Column: Prototype AS20 (0.4 mm x 250 mm)● Eluent Source: Capillary EGC-KOH cartridge ● Flow Rate: 10 to 20 µL/min● Temperature: 30 °CTemperature: 30 C● Suppressor: Electrolytic capillary anion suppressor

    operated in the external water mode (20 µL/min) ● ABI SCIEX API 2000TM MS/MS System:

    P t dditi f t it il t 15 L/ i i d d 0 15 b ● Post-suppressor addition of acetonitrile at 15 µL/min via a grounded 0.15 mm bore mixing Tee

    ● Negative ESI with optimized probe position ● Optimized multiple reaction monitoring (MRM) channels for target analytes.

  • Determination of Inorganic and Organic Anions Using a Capillary IC and API 2000™ MS/MS System

    Column: Prototype AS20 (0.4 mm x 250 mm)Eluent Source: Capillary EGC-KOH cartridge Eluent: 4-55 mM KOH Flow Rate: 15 µL/minTemperature: 30 °C

    520006

    11 Temperature: 30 CSuppressor: Electrolytic capillary anion suppressor Detection: API2000 MS/MS with post suppressor

    addition of acetonitrile at 15 µL/min; Negative ESI

    Injection vol.: 10 µLj µMRM (m/z)

    Peaks: 1. Acetate 10 g/L 59/592. Formate 10 45/453. Chlorite 10 67/514. Bromate 10 126.7/110.8ns

    ity, c

    ps

    8 5. Bromoacetate 10 137/78.86. Dichloroacetate 10 127/82.97. Dibromoacetate 10 214.7/170.78. Chlorate 10 83/66.99. Bromide 10 79/79

    Inten

    1

    34 5

    79

    8

    10. Nitrate 10 62/4611.Trichloroacetate 10 161/116.812.Tribromoacetate 10 250.8/78.813.Perchlorate 1.0 99/83

    Minutes0.02000

    2 10 12 13

    28.0Minutes 28.0

  • Separation of Six Monosaccharides

    Column: CarboPac PA 20 (0.4 mm x 150 mm)

    T 30 °C

    40

    Temp.: 30 °CEluent: 10 mM KOH Flow Rate: 10 µl/minInj. Vol. : 0.4 LDetection: PAD (Carbohydrate Quadruple

    30

    2Detection: PAD (Carbohydrate Quadruple

    Waveform)Electrode: ED Au

    Sample: Standards (10 µM)

    nC 20

    4

    3

    1

    Peaks: 1. Fucose (Fuc)2. Galactoseamine (GalN) 3. Glucoseamine (GalN)

    10 64

    5

    4. Galactose (Gal)5. Glucose (Glc)6. Mannose (Man)

    Minutes0 2 4 6 8 10 12

    0

  • ICS-5000 Technology – Ease of Use

    Guard and Separation ColumnCRD 200

    Side view of ACESSide view of ACESSuppressor

    Suppressor Injection ValveEG Degas

    j

  • ICS-5000 System Top Values

    ● Just Add Water once a Quarter –Add Samples any TimeAdd Samples any Time

    ● Just Increase Sensitivity –Ultimate Sensitivity (IC x IC)

    ● Just Save Money● Just Save Money –Low Cost of Ownership

    The Next Big Thing in IC is Small

  • Summary

    ● Capillary RFIC™ systems with suppressed conductivity detection offer highly reproducible isocratic and gradient separations of target analytes p g p g y

    ● Capillary RFIC™ systems provide improved capability for trace analysis

    ● Capillary RFIC™ systems can be used to achieve fast separation (Fast IC) ● Capillary RFIC™ systems can be used to achieve fast separation (Fast IC) and determination of common anions and cations

    ● Capillary RFIC systems with MS/MS and electrochemical detection are highly iti l ti l t lsensitive analytical tools

    ● Capillary RFIC systems leads to improved ion chromatographic methods for determination of ionic analytes in CMP consumables, chemicals, DI water and y , ,on post-CMP surfaces

  • Anion Sample

    Peak Name Amount (ppt)

    1.00

    (ppt)F 24.033Cl 22.307

    NO2 42 532NO2 42.532

    µS

    F Cl NO2

    –0.200 5 10 15 20 26

    Minutes23414

  • Anion Sample

    Overlay of 20 Runs 0.206

    FF

    ClNO2

    SO4µS NO2 Br NO3 PO4

    –0.0744.1 10 15 20 23.7

    Minutes23415

  • Cation Sample

    Peak Name Amount (ppt)

    0.500

    (ppt)Li 11.511Na 28.403

    NH4 13 499NH4 13.499K 15.197

    Mg 7.729Ca 11 238

    µSCa 11.238

    Li Na NH4 KMg Ca

    –0.1000 5 10 15 20 26Minutes

    23420

  • Overlay—Cation Sample

    Overlay of 20 Runs0.312

    Peaks: 2. Li 6.7673. Na 9.2334. NH4 11.7805. MEA 12.440y0.3126. DEA 13.9537. — 14.5678. K 16.7579. TEA 17.477

    10 17 853

    µS

    10. — 17.85311. Mg 21.72012. Ca 24.000

    2

    µS

    3

    1112

    47 8 9

    106

    –0 029

    5 96

    6.1 10 15 20 24.70.029

    Minutes23421

  • Cation Blank

    1.00

    µS

    Na NH4 Mg Ca

    –0.20

    Minutes0 5 10 15 20 26

    0.20

    23423