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2nd meeting of IAEA CRP on FENDL-323-26 March 2010. Proton and deuteron activation cross section data for FENDL-3 Progress report on experiments and data evaluations made by the ATOMKI Group 2009-2010 Activation cross section data for deuteron induced reactions. F. Tarkanyi, B. Kiraly - PowerPoint PPT Presentation
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Institute of Nuclear Research, Cyclotron Application Department Proton and deuteron activation cross section data for FENDL-3 Progress report on experiments and data evaluations made by the ATOMKI Group 2009-2010 Activation cross section data for deuteron induced reactions F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences 2nd meeting of IAEA CRP on FENDL-3 23-26 March 2010
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Page 1: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

Institute of Nuclear Research, Cyclotron Application Department

Proton and deuteron activation cross section data for FENDL-3

Progress report

on experiments and data evaluations

made by the ATOMKI Group

2009-2010

Activation cross section data for deuteron induced reactions

F. Tarkanyi, B. Kiraly

Institute of Nuclear Research of the Hungarian Academy of Sciences

2nd meeting of IAEA CRP on FENDL-3 23-26 March 2010

Page 2: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

2 Institute of Nuclear Research, Cyclotron Application Department

Proton induced reactions

Motivation: activation calculations for IFMIF

First library in EAF-2007

Generated by TALYS model code

At this stage no improvements or renormalizations

Only a start, requires:

Uncertainty data Improvements Validation

Page 3: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

3 Institute of Nuclear Research, Cyclotron Application Department

Compilation of proton induced data

Compilation of proton induced activation cross sections were started up to 100 MeV

In the first stage only the EXFOR database was used

Targets: Ag, Al, C, Co, Cr, Cu, Fe, Li, Mn, Mo, N, Nb, Ni, O, P, S, Sb, Si, Sn, Ta, Ti, V, W

The number of reactions is around 400

The preparation of the list of the missing, duplicated and wrong EXFOR entries is in progress

Page 4: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

4 Institute of Nuclear Research, Cyclotron Application Department

Proton induced reactionsTarget Product Comp

iled Talys 2009

EAF PADF JENDL HE

ATOMKI data

Ag 3H 7Be 94mTc, 94gTc 97Ru 99gRh, 100gRh, 101mRh, 102gRh, 105gRh 100Pd, 101Pd, 103Pd, 104Pd 103Ag, 104Ag, 105Ag, 106mAg, 106gAg 104Cd, 105Cd, 107Cd, 109Cd

x

x

Al 3H 7Be, 9Be, 10Be 14C 18F 22Na, 24Na 23Mg, 28Mg 26Al 26Si, 27Si

x

x

C 3H 7Be, 10Be 10C, 11C, 14C 13N

x

Co 7Be 44mSc, 46gSc, 47Sc 48V, 53V 48Cr, 51Cr 51Mn, 52mMn, 52gMn, 54Mn, 56Mn 52Fe, 53mFe, 53gFe, 55Fe, 59Fe 55Co, 56Co, 57Co, 58mCo, 58gCo 56Ni, 57Ni, 59Ni, 60Ni

x

x

Cr 45Ti 48V 48Cr, 49Cr, 51Cr 50mMn, 50gMn, 51Mn, 52mMn, 52gMn, 53Mn, 54Mn, 56Mn

x

Cu 7Be 44mSc, 44gSc, 46gSc 48V 48Cr, 49Cr, 51Cr, 52Mn, 54Mn 56Mn, 52Fe, 55Fe, 59Fe 55Co, 56Co, 57Co, 58mCo, 58gCo, 60Co, 61Co 56Ni, 57Ni 60Cu, 61Cu, 62Cu, 64Cu 60Zn, 62Zn, 63Zn, 65Zn, 66Zn

x

x

Fe 3H 7Be, 10Be 36Cl 44mSc, 44gSc, 46gSc, 47Sc, 48Sc 44Ti 48V 48Cr, 51Cr 51Mn, 52mMn, 52gMn, 53Mn, 54Mn 52gFe, 53mFe, 53gFe, 55Fe 55Co, 56Co, 57Co, 58mCo, 58gCo, 59Co

x

x

Li 3H, 7Be

x

Mn 10Be 43K 44mSc, 46Sc, 47Sc, 48Sc 48V 48Cr, 51Cr 52gMn, 54Mn 52Fe, 53mFe, 53gFe, 55Fe

x

x

Mo 86Y, 87mY, 87gY, 88Y 86Zr, 88Zr, 89mZr, 89gZr 88mNb, 88gNb 89gNb, 90Nb, 92mNb, 95mNb, 96Nb, 97Nb 90Mo, 93mMo, 99Mo 93mTc, 93gTc, 94mTc, 94gTc, 95mTc, 95gTc, 96mTc, 96gTc, 99mTc, 99gTc

x

x

N 3H 7Be, 10Be 11C 13N 14O, 15O

x

Nb 94Mo, 93mMo, 93gMo 90Mo 92mNb, 91mNb, 90Nb, 89mNb 89gZr, 88Zr 88Y, 87mY, 87gY, 86gY

x

x

Ni 3H 7Be, 10Be 26Al 41Ca 44mSc, 46gSc, 47Sc 47V, 48V, 49V, 50V 48Cr, 51Cr 52Mn, 53Mn, 54Mn 52Fe, 53mFe, 55Fe, 59Fe, 60Fe 55Co, 56Co, 57Co, 58mCo, 58gCo, 60Co, 61Co 56Ni, 57Ni, 59Ni 59Cu, 60Cu, 61Cu, 62Cu, 64Cu

x

x

O 7Be,10Be 11C, 14C 13N 15O 17F, 18F

x

P 22Na,24Na 29Al 28Mg 30P

x

S 22Na, 24Na 28Mg 34mCl

x

Sb 117Te, 118Te, 119mTe, 119gTe 121mTe, 121gTe, 123mTe, 123gTe 120mSb, 122Sb 117mSn

Si 3H 7Be,10Be 14C 18F 22Na, 24Na 27Mg, 28Mg 25Al, 26Al, 28Al, 29Al 27Si

x

Sn 109gIn, 110gIn, 111In, 114mIn, 117mIn 113gSn, 117mSn 115Sb, 116mSb, 116gSb, 117Sb, 118mSb, 118gSb, 119Sb, 120mSb, 120gSb, 122mSb, 122gSb, 124m1Sb, 124m2Sb, 124gSb

x

x

Ta 167Tm 169Yb 169Lu, 170Lu, 171Lu, 172Lu, 173Lu, 174gLu, 179Lu 170Hf, 172Hf, 173Hf, 175Hf, 179m2Hf 175Ta, 176Ta, 177Ta, 178mTa, 178gTa, 180gTa 178W, 179W, 180W, 181W

x

x

Ti 7Be, 10Be 24Na 34mCl, 36Cl, 38Cl, 39Cl 42K, 43K 47Ca 43Sc, 44mSc, 44gSc, 46gSc, 47Sc, 48Sc 44Ti, 45Ti 47V, 48V, 49V

x

x

V 7Be 24Na 38Cl, 39Cl 42K, 43K 45Ca, 47Ca 43Sc, 44mSc, 44gSc, 46gSc, 47Sc, 48Sc 44Ti, 45Ti 48V, 49V 48Cr, 49Cr, 51Cr

x

x

W 83Rb 85gSr 87gY, 88Y 88Zr 169Yb 171Lu, 173Lu, 177Lu 173Hf, 175Hf, 179m2Hf, 181Hf 176Ta, 177Ta, 182Ta, 183Ta, 184Ta 178W 180Re, 181Re, 183Re, 184mRe, 184gRe, 186mRe, 186Re

x

x

Page 5: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

5 Institute of Nuclear Research, Cyclotron Application Department

Deuteron induced reactions

Preliminary library in EAF-2005.1

Used for calculations of impurities in Li target

Generated by TALYS model code

Improved for EAF-2007 by use of:

Additional data sources

Renormalization of some reactions to EXFOR

Only a start, requires:

Uncertainty data

Improvements

Validation

Motivation: activation calculations for IFMIF

Page 6: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

6 Institute of Nuclear Research, Cyclotron Application Department

Compilation of deuteron induced data

Deuteron activation cross sections were compiled up to 50 MeV

In addition to the EXFOR database, some other important reference sources should be checked (e.g. Nuclear Science References, NNDC, Brookhaven National Laboratory and Landolt-Bornstein books)

The number of reactions is above 400

Targets: Ag, Al, C, Co, Cr, Cu, Fe, Li, Mn, Mo, N, Nb, Ni, O, P, S, Sb, Si, Sn, Ta, Ti, V, W

Additional targets were included: Au, Cd, In, Ir, Mg, Pb, Pd, Pt, Rh, Y, Zn, Zr

The preparation of the list of the missing, duplicated and wrong EXFOR entries is in progress

Page 7: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

7 Institute of Nuclear Research, Cyclotron Application Department

Deuteron induced reactionsTarget Product Compiled Talys 2009 EAF ATOMKI

data Ag 3H

105Ag, 106mAg, 106gAg, 108mAg, 110mAg, 110gAg 107Cd, 109Cd 109gPd

x x

x

x

Al 1H, 2H, 3H 3He, 4He 7Be 27Mg 22Na, 24Na 28Al 27Si

x

x

x

x

C 1H 13N, 14N 11C, 14C 10B 8Li 7Be

x

x

x

Co 56Ni, 57Ni 55Co, 56Co, 57Co, 58Co, 60Co, 60mCo 52Fe, 59Fe 52Mn, 54Mn, 56Mn 51Cr 48V 46Sc, 47Sc

x

x

x

x

Cr 50mMn, 51Mn, 52Mn, 52mMn, 53Mn, 54Mn, 56Mn 49Cr, 51Cr, 55Cr 48V, 52V

x

x

x

Cu 3H 4He 52Mn, 56Mn 52Fe, 59Fe 57Co, 58Co, 60Co 57Ni, 65Ni 61Cu, 62Cu, 64Cu, 66Cu 62Zn, 63Zn, 65Zn

x

x

x

x

Fe 4He 51Cr 52mMn, 52gMn, 54Mn, 56Mn 53Fe, 59Fe 55Co, 56Co, 57Co, 58Co

x

x

x

x

H 1H, 2H, 3H 3He, 4He

x

x

Li Neutron 1H, 3H 3He, 4He 7Be, 8Be, 9Be 5Li, 6Li, 7Li, 8Li

x

x

Mn 55Fe 51Cr 54Mn, 56Mn

x

x

x

Mo 88Zr 90Nb, 92mNb, 95mNb, 95gNb, 96Nb 99Mo, 101Mo 93mTc, 93gTc, 94mTc, 94gTc, 95mTc, 95gTc, 96Tc, 97mTc, 99mTc, 101Tc

x

x

x

x

N 11C 13N, 16N 15O 8Li

x

x

Nb 1H, 3H 93mMo 90Nb, 91mNb, 92mNb, 95Nb 90Y 88Zr, 89Zr

x

x

x

x

Ni 1H, 2H, 3H 3He, 4He 51Cr 52gMn, 54Mn, 56Mn 55Co, 56Co, 57Co, 58Co, 60Co, 61Co 56Ni, 57Ni, 65Ni 55Fe, 59Fe 59Cu, 60Cu, 61Cu, 62Cu, 64Cu

x

x

x

x

O 13N, 14N, 16N 18F, 17F 19O

x

x

P No data in EXFOR, other sources should be checked

x

x

S 34mCl 30P, 32P

x

x

Sb 116Te, 118Te, 119Te, 121mTe, 121gTe, 123mTe 118mSb, 119Sb, 122Sb, 124Sb 108Sn, 113Sn, 117mSn, 121Sn 111In, 114mIn

x

x

Si 7Be 22Na, 24Na 28Al, 29Al 29P, 32P

x

x

Sn 3H 111gIn, 114mIn 110Sn, 113gSn, 117mSn, 123mSn, 123gSn 115Sb, 116mSb, 117Sb, 118mSb, 120mSb, 122Sb, 124Sb, 125Sb

x

x

x

Ta 1H 175Ta, 178Ta, 180gTa, 182mTa, 182gTa 176W, 177W, 178W, 181W 173Hf, 175Hf, 179mHf, 180mHf, 181Hf 126Xe, 127Xe, 128Xe

x

x

x

x

Ti 4He 43Sc, 44mSc, 44gSc, 46Sc, 47Sc, 48Sc 47V, 48V, 49V

x

x

x

x

V 3H 4He 47Ca 48Cr, 49Cr, 51Cr 44mSc, 44gSc, 46Sc, 47Sc, 48Sc 48V, 49V 41Ar 42K, 43K

x

x

x

W 185W, 187W 181Re, 182mRe, 182gRe, 183Re, 184mRe, 184gRe, 186gRe 182Ta, 183Ta, 184Ta

x

x

x

x

Au 190Hg, 191mHg, 192Hg, 193mHg, 195mHg, 195gHg, 196Hg, 197mHg, 197Hg, 199mHg 192Au, 194Au, 196mAu, 196gAu, 198gAu, 198gAu,

x x x

Cd 110mIn, 110gIn, 111In, 112mIn, 113mIn, 114min, 115mIn, 116mIn, 117mIn 111mCd, 115mCd, 115gCd, 117mCd, 117gCd, 105gAg, 106mAg,, 110mAg, 111Ag, 112Ag

x x x

In 113Sn 111In, 113mIn, 114mIn, 115mIn, 116mIn 111mCd, 115gCd 112Ag

x

x

x

Ir 188Pt, 189Pt, 191Pt, 193mPt 189Ir, 190gIr, 192gIr, 194mIr, 194gIr

x x x

Mg 22Na, 24Na, 25Na 27Mg 25Al, 28Al

x x

Pb 202Bi, 203Bi, 204Bi, 205Bi, 206Bi, 207Bi, 202Pb, 203Pb,209Pb 201Tl, 202Tl

x x x

Pd 103Ag, 104Ag, 106mAg, 110mAg, 111Ag +

x

Pt 191Au, 192Au, 193Au, 194Au, 195Au, 196Au, 196m2Au, 198mAu, 198gAu, 199Au 191Pt, 195mPt, 197Pt 192Ir

x x x

Rh 1101mRh, 101gRh, 102mRh, 102gRh, 103Pd +

x x x

Y 87Zr, ,88Zr, 89mZr, 89gZr, 87mY, 87gY, 88Y, 90mY, 90gY, 85gSr, 87mSr, 89Sr

x x x

Zn 61Ga, 62Ga, 63Ga, 64Ga, 65Ga, 66Ga, 67Ga, 68Ga 61Zn, 63Zn, 65Zn, 69mZn, 69gZn, 71Zn 61Cu, 64Cu, 67Cu 58Co

x x x

Zr 89mNb, 89gNb, 90Nb, 91mNb, 92mNb, 95mNb, 95gNb, 96Nb, 97Nb 87Zr, 88Zr, 89Zr, 95Zr, 97Zr, 86Y, 87mY, 87gY, 88Y, 90mY, 90gY, 92Y 85Sr 83Rb

x x x

Page 8: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

8 Institute of Nuclear Research, Cyclotron Application Department

Status of the experimental database

The experimental database is relatively poor

Mostly elemental cross sections

Independent and cumulative data

Mostly low energy data due to the limited applications and the limited accelerators available

Only a few groups have reported higher energy data (JAEA, ATOMKI)

Series of new unpublished experimental data from ATOMKI (collaborations with VUB, CYRIC, IPPE)

Page 9: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

9 Institute of Nuclear Research, Cyclotron Application Department

New CRP related unpublished experimental data from ATOMKI

Material Target Primary proton beam

Material Target Primary deuteron

beam Molybdenum natMoRe foils

Mo foils

70 MeV p 36 MeV p

Molybdenum natMoRe Mo foils

40 MeV d 21 MeV d

Tantalum natTa foils

36 MeV p

Gold Au foils 21 MeV d

Vanadium natV foils

70 MeV p

Vanadium natV foils

40 MeV d 21 MeV d

Cobalt natCo foils

70 MeV p

Cobalt natCo foils

40 MeV d 21 MeV d

Tungsten natW foils

36 MeV p Tungsten natW foils

21 MeV d

Lead natPb foils

36 MeV p

Lead natPb foils

21 MeVn d

Manganese natMnCuNi foils

70 MeV p 36 MeV p

Manganese natMnCuNi foils

40 MeV d 21 MeV d

Copper natMnCuNi foils 70 MeV p 36 MeV p

Copper natMnCuNi foils

40 MeV d 21 MeV d

Nickel

natMnCuNi foils

70 MeV p 36 MeV p

Nickel

natMnCuNi foils

40 MeV d 21 MeV d

Indium natIn foils

70 MeV p

Indium natIn foils

40 MeV d 21 MeV d

Titan natTi foils 21 MeV d 10 MeV d

Iron natFe foils

10 MeV d

Page 10: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

10 Institute of Nuclear Research, Cyclotron Application Department

Conclusions from the compilation and evaluation of the experimental data

The number of the reactions is so large (~400 deuteron and ~400 proton) that the critical evaluation of the experimental data (reading all original papers) will have some limitations

There are numerous results not converted to EXFOR

There are many very disturbing mistakes in the compiled EXFOR entries

Limited information in the original publications

No possibility to correct for nonlinear parameters

Page 11: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

11 Institute of Nuclear Research, Cyclotron Application Department

Comparison with the theoretical models and data libraries

Comparison with the TENDL-2009 for all reactions

Comparison with the EAF-2007 for the most important targets

Comparison for selected cases with EMPIRE-D and ALICE-IPPE D

Page 12: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

12 Institute of Nuclear Research, Cyclotron Application Department

Conclusions from the comparison

Large discrepancies with TENDL-2009

Missing calculations in TENDL- 2009

The “adjusted” data of EAF-2007 in some cases are better but still not satisfactory

(only about 20-30% is acceptable)

Very surprising the large differences in the shape of the “blind” TENDL-2009 and EAF-2007

Poor results in case of (d,p) and (d,t) reactions

Reasonable agreements with ALICE-IPPE for the “total” production

Good reproduction of (d,p) and (d,t) in ALICE-D and EMPIRE-D

Without fitting to the experimental data the predictions are poor!!!

Page 13: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

13 Institute of Nuclear Research, Cyclotron Application Department

Format

MS EXCEL is used to collect experimental and theoretical data, to make the necessary corrections or normalizations and to create graphs

Only the final results will be transformed to ENDF format

Page 14: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

14 Institute of Nuclear Research, Cyclotron Application Department

Examples

natMo(d,x)92mNb

0

5

10

15

20

25

0 5 10 15 20 25 30 35 40 45 50

Deuteron energy (MeV)

Cro

ss s

ect

ion

(m

b)

Randa 1977Sonck 1999aTarkanyi 2010 unp.TENDL-2009, 92Nb(level1)EAF 2007 92Nb(level 1)ALICE IPPE total

Page 15: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

15 Institute of Nuclear Research, Cyclotron Application Department

Examples

natAg(d,x)110mAg

0

5

10

15

20

25

30

0 5 10 15 20 25 30 35 40 45 50

Deuteron energy (MeV)

Cro

ss s

ect

ion

(m

b)

Yu Weixiang 1989 (on 109Ag)

Peng 1992 (on 109Ag)

Uddin 2006 (on natAg)

TENDL-2009, 110Ag(level2)

EAF-2007, 110Ag(m)

Page 16: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

16 Institute of Nuclear Research, Cyclotron Application Department

Examples

59Co(d,x)57Ni

0

1

2

3

4

5

6

7

8

9

0 20 40 60 80 100 120 140 160 180 200

Deuteron energy (MeV)

Cro

ss s

ect

ion

(m

b)

Michel 1983

TENDL-2009, 57Ni

TENDL-2008, 57Ni

EAF-2007, 57Ni

Page 17: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

17 Institute of Nuclear Research, Cyclotron Application Department

Examples

natIn(d,xn)113m+gSn

0

100

200

300

400

500

600

700

800

900

1000

0 10 20 30 40 50

Deuteron energy (MeV)

Cro

ss

se

cti

on

(m

b)

Alice-DEmpire-DTENDL-2008VUB ser 1VUB ser 2CYRICTENDL-2009

Page 18: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

18 Institute of Nuclear Research, Cyclotron Application Department

Examples

natCu(d,x)63Zn

0

50

100

150

200

250

300

350

400

450

0 10 20 30 40 50

Deuteron energy (MeV)

Cro

ss

se

cti

on

(m

b)

Bartell 1950Gilly 1963 (on 63Cu)Fulmer 1970Okamura 1971 (on 63Cu)Takacs 2006Bem 2007 (on 63Cu)Ochiai 2008TENDL-2009EAF-2007, 63ZnBartell 1950Gilly 1963 (on 63Cu)Fulmer 1970Okamura 1971 (on 63Cu)Takacs 2006Bem 2007 (on 63Cu)Ochiai 2008TENDL-2009EAF-2007, 63Zn

Page 19: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

19 Institute of Nuclear Research, Cyclotron Application Department

Examples

natCu(d,x)64Cu

0

50

100

150

200

250

300

350

400

450

500

0 10 20 30 40 50

Deuteron energy (MeV)

Cro

ss

se

cti

on

(m

b)

Bartell 1950

Gilly 1963 (on 63Cu)

Fulmer 1970

Okamura 1971 (on 63Cu)

Diksic 1979

Takacs 2006

Bem 2007 (on63Cu)

TENDL-2009, 64Cu

EAF-2007, 64Cu

Page 20: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

20 Institute of Nuclear Research, Cyclotron Application Department

Future plans / Deuteron

Comparison of the experimental data with results of EAF-2007 for all deuteron induced reactions (time consuming due to the missing summarization of contributing reaction channels in EAF!!!)

De-selection of the contradictory data taking into account the experimental circumstances

Comparison of the experimental data also with the available ALICE-IPPE and EMPIRE-II calculations for reactions measured by the ATOMKI Group

To make available for FENDL-3 all experimental data recently measured by ATOMKI (publications)

New experimental data for missing important reactions

Page 21: F. Tarkanyi, B. Kiraly Institute of Nuclear Research of the Hungarian Academy of Sciences

21 Institute of Nuclear Research, Cyclotron Application Department

Future plans / Protons

Continuation of the evaluation of the proton induced cross section data

Extension of the compilation with the experimental data found using the secondary reference sources (e.g. Nuclear Science References, NNDC, Brookhaven National Laboratory and Landolt-Bornstein books)

De-selection of the contradictory data taking into account the experimental circumstances

Comparison of the experimental data also with the PADF and JENDL, available ALICE-IPPE and EMPIRE-II calculations for reactions measured by the ATOMKI Group

New experimental data for missing important reactions


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