An evaluation of the Australian Research Council's journal ranking
Journal Article: 09/2010; DOI: 10.1016/j.joi.2010.12.001
Abstract
As part of its program of 'Excellence in Research for Australia' (ERA), the
Australian Research Council ranked journals into four categories (A*, A, B, C)
in preparation for their performance evaluation of Australian universities. The
ranking is important because it likely to have a major impact on publication
choices and research dissemination in Australia. The ranking is problematic
because it is evident that some disciplines have been treated very differently
than others. This paper reveals weaknesses in the ERA journal ranking and
highlights the poor correlation between ERA rankings and other acknowledged
metrics of journal standing. It highlights the need for a reasonable
representation of journals ranked as A* in each scientific discipline.
Australian Research Council ranked journals into four categories (A*, A, B, C)
in preparation for their performance evaluation of Australian universities. The
ranking is important because it likely to have a major impact on publication
choices and research dissemination in Australia. The ranking is problematic
because it is evident that some disciplines have been treated very differently
than others. This paper reveals weaknesses in the ERA journal ranking and
highlights the poor correlation between ERA rankings and other acknowledged
metrics of journal standing. It highlights the need for a reasonable
representation of journals ranked as A* in each scientific discipline.
Source: arXiv
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Journal of Informatics 6 (2012) 19
Publication patterns of
and implications for the ERA journal ranking
PO Box 157, Lismore NSW 2480, Australia
Tel +61 2 6620 3147, Fax +61 2
Abstract
Publication patterns of 79 forest
2010 were compared with the journal classification and ranking promoted as part of the ‘Excellence
Research for Australia’ (ERA) by the Australian Research Council. The data
scientists exhibited an elite publication performance during the decade
following their first major award.
substantial differences between the journal choices of these elite scientists and the ERA classification
and ranking of journals. Implications from these findings are that
should be added for many journals,
journals relevant to the ERA Field of Research classified as 0705 Forestry Sciences
Graphical abstract
Highlights
1. Prize-winners exhibit elite performance a decade before and two decades
2. Their publication patterns correlate with other established metrics but conflict with
classification and ranking;
3. Their publication choices suggest that
forestry journals including Forest Ecology and Management
Journal of Forest Research
4. Multiple fields of research should be assigned
encourage interdisciplinary
Keywords
Excellence for Research in Australia (ERA); Impact assessment;
-26
award-winning forest scientists
Jerome K Vanclay
Southern Cross University
6621 2669, JVanclay@scu.edu.au
scientists awarded major international forestry prizes during 1990
reveal
before and two decades
An analysis of their 1703 articles in 431 journals
additional cross
and there should be an adjustment to the ranking of several
following their award;
the ERA ranking warrants revision and that
, Tree Physiology
warrant an A* ranking within ERA;
within the ERA classification
collaboration.
Journal ranking
-
in
ed that these
revealed
-classifications
.
the ERA
several
and Canadian
to recognise and
Publication patterns of
and implications for the ERA journal ranking
PO Box 157, Lismore NSW 2480, Australia
Tel +61 2 6620 3147, Fax +61 2
Abstract
Publication patterns of 79 forest
2010 were compared with the journal classification and ranking promoted as part of the ‘Excellence
Research for Australia’ (ERA) by the Australian Research Council. The data
scientists exhibited an elite publication performance during the decade
following their first major award.
substantial differences between the journal choices of these elite scientists and the ERA classification
and ranking of journals. Implications from these findings are that
should be added for many journals,
journals relevant to the ERA Field of Research classified as 0705 Forestry Sciences
Graphical abstract
Highlights
1. Prize-winners exhibit elite performance a decade before and two decades
2. Their publication patterns correlate with other established metrics but conflict with
classification and ranking;
3. Their publication choices suggest that
forestry journals including Forest Ecology and Management
Journal of Forest Research
4. Multiple fields of research should be assigned
encourage interdisciplinary
Keywords
Excellence for Research in Australia (ERA); Impact assessment;
-26
award-winning forest scientists
Jerome K Vanclay
Southern Cross University
6621 2669, JVanclay@scu.edu.au
scientists awarded major international forestry prizes during 1990
reveal
before and two decades
An analysis of their 1703 articles in 431 journals
additional cross
and there should be an adjustment to the ranking of several
following their award;
the ERA ranking warrants revision and that
, Tree Physiology
warrant an A* ranking within ERA;
within the ERA classification
collaboration.
Journal ranking
-
in
ed that these
revealed
-classifications
.
the ERA
several
and Canadian
to recognise and
Page 2
Introduction
Australia recently commenced an initiative called Excellence in Research for Australia (ERA) to
monitor and stimulate university research performance (Anon, 2009; Hicks, 2009). Several indicators
are used to rank institutional performance in pre-defined research fields, encouraging the formation of
research teams aligned with the defined fields. Principal among the indicators is a four-tiered journal
ranking that serves as a proxy for the quality of research outputs. Thus the ranking of journals and the
definition of research fields will be influential in shaping future university research in Australia, and
warrants careful scrutiny (Lamp, 2009; Bloch, 2010; De Lange et al, 2010; Lamp & Fisher, 2010;
Vanclay, 2011).
ERA assesses research outputs by Australian universities within defined Fields of Research (FORs)
defined by the Australian and New Zealand Standard Research Classification (ANZSRC, 2008). The
ANZSRC is a hierarchical classification that involves a 2-digit division (e.g., 08 Information and
Computing Sciences), a 4-digit group (0807 Library and Information Studies) and a 6-digit FOR
(080705 Informetrics). The 4-digit research groups are used by ERA both to monitor university
performance and to classify and rank journals as indicators of performance. Of 20 712 journals
recognised by ERA, 13 836 are assigned to a single FOR, 6 273 are assigned to two or more FORs
(either through allocation to two or three FOR groups, or by allocation to one or more FOR divisions),
and 603 journals are denoted multidisciplinary.
Within each FOR, journals are ranked into four categories, A*, A, B and C, nominally representing 5,
15, 30 and 50 percentiles so that A* should represent the top 5% of journals, A should include the
next 15%, B the next 30%, and C the remaining 50% of journals (Graham, 2008). The journal ranking
proposed by the ERA has been controversial (e.g., Peters, 2008; Haslam and Koval, 2010), and
forestry is one of the fields of research where the journal ranking appears deficient (Vanclay, 2011).
Similar criticism has been attracted by the Research Assessment Exercise (Bence & Oppenheim,
2004) and Research Excellence Framework in the United Kingdom (Johnston, 2009). The ERA has
chosen to use a subjective expert ranking of journals, and it is appropriate that such rankings should
be compared against other quantitative approaches, notwithstanding limitations of ranking systems
(Stringer et al., 2008; Lawrence, 2008).
Deficiencies in the ERA ranking, especially within the fields of agriculture (i.e., 07 Agricultural and
Veterinary Sciences) and forestry (0705 Forestry Sciences) have previously been identified (Vanclay,
2011), so it is appropriate to scrutinize these deficiencies to indicate adjustments to the classification
and rankings. Other researchers have examined rankings based on journal citations (e.g., Thomas and
Watkins, 1998; Vanclay, 2008a,b; Bontis and Serenko, 2009; Harzing and van der Wal, 2009; Moed,
2010), and the present study seeks to offer complementary evidence based on the publication patterns
of prominent forest scientists. The study was confined to publications and citations seen by Scopus,
the official data provider to ERA in 2010, but other researchers have examined the similarity between
Scopus and other citation providers (e.g., Falagas et al, 2008; Bollen et al, 2009; Li et al, 2010;
Rocha-e-Silva, 2010; Siebelt et al, 2010; Hall, 2011).
The assumption underlying the following tests is that recipients of prestigious prizes are experienced
scientists who are likely to be discerning in their choice of publication outlet, and who are likely to
choose journals of good quality and wide reach, attributes that should be reflected in the ERA
classification and ranking. Hence, the present study examines publication patterns of recipients of four
major international prizes for scientific achievement in forestry, the Scientific Achievement Award of
the International Union of Forest Research Organizations (IUFRO), the Marcus Wallenberg Prize, the
Queen’s Award for Forestry, and the Schweighofer Prize.
Australia recently commenced an initiative called Excellence in Research for Australia (ERA) to
monitor and stimulate university research performance (Anon, 2009; Hicks, 2009). Several indicators
are used to rank institutional performance in pre-defined research fields, encouraging the formation of
research teams aligned with the defined fields. Principal among the indicators is a four-tiered journal
ranking that serves as a proxy for the quality of research outputs. Thus the ranking of journals and the
definition of research fields will be influential in shaping future university research in Australia, and
warrants careful scrutiny (Lamp, 2009; Bloch, 2010; De Lange et al, 2010; Lamp & Fisher, 2010;
Vanclay, 2011).
ERA assesses research outputs by Australian universities within defined Fields of Research (FORs)
defined by the Australian and New Zealand Standard Research Classification (ANZSRC, 2008). The
ANZSRC is a hierarchical classification that involves a 2-digit division (e.g., 08 Information and
Computing Sciences), a 4-digit group (0807 Library and Information Studies) and a 6-digit FOR
(080705 Informetrics). The 4-digit research groups are used by ERA both to monitor university
performance and to classify and rank journals as indicators of performance. Of 20 712 journals
recognised by ERA, 13 836 are assigned to a single FOR, 6 273 are assigned to two or more FORs
(either through allocation to two or three FOR groups, or by allocation to one or more FOR divisions),
and 603 journals are denoted multidisciplinary.
Within each FOR, journals are ranked into four categories, A*, A, B and C, nominally representing 5,
15, 30 and 50 percentiles so that A* should represent the top 5% of journals, A should include the
next 15%, B the next 30%, and C the remaining 50% of journals (Graham, 2008). The journal ranking
proposed by the ERA has been controversial (e.g., Peters, 2008; Haslam and Koval, 2010), and
forestry is one of the fields of research where the journal ranking appears deficient (Vanclay, 2011).
Similar criticism has been attracted by the Research Assessment Exercise (Bence & Oppenheim,
2004) and Research Excellence Framework in the United Kingdom (Johnston, 2009). The ERA has
chosen to use a subjective expert ranking of journals, and it is appropriate that such rankings should
be compared against other quantitative approaches, notwithstanding limitations of ranking systems
(Stringer et al., 2008; Lawrence, 2008).
Deficiencies in the ERA ranking, especially within the fields of agriculture (i.e., 07 Agricultural and
Veterinary Sciences) and forestry (0705 Forestry Sciences) have previously been identified (Vanclay,
2011), so it is appropriate to scrutinize these deficiencies to indicate adjustments to the classification
and rankings. Other researchers have examined rankings based on journal citations (e.g., Thomas and
Watkins, 1998; Vanclay, 2008a,b; Bontis and Serenko, 2009; Harzing and van der Wal, 2009; Moed,
2010), and the present study seeks to offer complementary evidence based on the publication patterns
of prominent forest scientists. The study was confined to publications and citations seen by Scopus,
the official data provider to ERA in 2010, but other researchers have examined the similarity between
Scopus and other citation providers (e.g., Falagas et al, 2008; Bollen et al, 2009; Li et al, 2010;
Rocha-e-Silva, 2010; Siebelt et al, 2010; Hall, 2011).
The assumption underlying the following tests is that recipients of prestigious prizes are experienced
scientists who are likely to be discerning in their choice of publication outlet, and who are likely to
choose journals of good quality and wide reach, attributes that should be reflected in the ERA
classification and ranking. Hence, the present study examines publication patterns of recipients of four
major international prizes for scientific achievement in forestry, the Scientific Achievement Award of
the International Union of Forest Research Organizations (IUFRO), the Marcus Wallenberg Prize, the
Queen’s Award for Forestry, and the Schweighofer Prize.
Page 3
The Forestry Prizes
The IUFRO Scientific Achievement Award has been presented at each IUFRO World Congress
(approximately once every 5 years) since 1971, to recognise the greatest achievement in each of
several (5 awards in 1971, increasing to 11 in 2010) subject areas within IUFRO (currently
silviculture, physiology and genetics, forest operations, forest assessment, modelling and
management, forest products, forest health, forest environment, social sciences, forest policy and
economics). These awards are made in recognition of “research results published in scientific
journals, proceedings of scientific meetings or books, appropriate patents or other relevant evidence
that clearly demonstrates the importance of the scientific or technical achievement to the advancement
of regional or world forestry or forest research” (Anon, 2011a). To date, 77 scientists from 26
different countries have been honoured with this award (Anon, 2011b).
The Marcus Wallenberg Prize has been awarded annually since 1981. The purpose of this Prize is “to
recognize, encourage and stimulate path-breaking scientific achievements which contribute
significantly to broadening knowledge and to technical development within the fields of importance to
forestry and forest industries” (Anon, 2011c). The Prize may be awarded to individuals or to groups
of up to 4 researchers, and to date, 47 individuals from 7 countries have been recognised, either as
individuals or team members. The prize recognises achievements across the breadth of the forestry
sector, including both field forestry (genetics, systematics and tree breeding; silviculture and
agroforestry; forest ecology and tree physiology; biometrics, computing and remote sensing; forest
management, forest protection; forestry operations) and forest products (wood and wood processing;
papermaking fibres; paper- and board-making processes; recycling of forest products; innovations to
improve wood use and environmental performance).
The Queen’s Award for Forestry recognises outstanding contributions to forestry by an outstanding
mid-career forester who “combines exceptional contributions to forestry with an innovative approach
to his or her work” (Anon, 2011d). The Queen’s Award for Forestry is not confined to researchers,
and has recognised other achievements of awardees with few publications. The award has been made
nine times since 1987 to foresters from Australia, India, Malaysia, United Kingdom, and Zimbabwe.
The Schweighofer Prize recognises “innovative ideas, technologies, products and services concerning
the whole value chain in order to strengthen the competitiveness of the European forest-based sector”
(Anon, 2011e). The Schweighofer Prize has been offered every second year since 2003, with a total of
four individuals (from Finland, Germany and Switzerland) receiving the main prize. Although the
prize also includes several innovation prizes, the present analysis considers only the publication
outputs of the main prize recipients.
Materials and Methods
The four prizes have been awarded a total of 137 times, but six individuals have received more than
one of these prizes, so there are a total of 131 individuals who have been awarded one or more of
these prizes. All but 14 of these individuals have publications visible in Scopus, the official data
provider to ERA in 2010. Collectively, these 117 individuals created 6058 publications seen by
Scopus. Standard citation data for all 6058 publications were exported from Scopus on 14 February
2011 in CSV format for further analysis. These publications included a wide range of material
including conference proceedings, editorials, obituaries, and other minor contributions which were
removed to leave 5518 contributions (articles and reviews) in 859 journals during the period 1958 to
2011 (but only 446 journals have >1 article). It is somewhat problematic surveying such a 54-year
period because citation coverage is not uniformly thorough throughout, and because some journals
The IUFRO Scientific Achievement Award has been presented at each IUFRO World Congress
(approximately once every 5 years) since 1971, to recognise the greatest achievement in each of
several (5 awards in 1971, increasing to 11 in 2010) subject areas within IUFRO (currently
silviculture, physiology and genetics, forest operations, forest assessment, modelling and
management, forest products, forest health, forest environment, social sciences, forest policy and
economics). These awards are made in recognition of “research results published in scientific
journals, proceedings of scientific meetings or books, appropriate patents or other relevant evidence
that clearly demonstrates the importance of the scientific or technical achievement to the advancement
of regional or world forestry or forest research” (Anon, 2011a). To date, 77 scientists from 26
different countries have been honoured with this award (Anon, 2011b).
The Marcus Wallenberg Prize has been awarded annually since 1981. The purpose of this Prize is “to
recognize, encourage and stimulate path-breaking scientific achievements which contribute
significantly to broadening knowledge and to technical development within the fields of importance to
forestry and forest industries” (Anon, 2011c). The Prize may be awarded to individuals or to groups
of up to 4 researchers, and to date, 47 individuals from 7 countries have been recognised, either as
individuals or team members. The prize recognises achievements across the breadth of the forestry
sector, including both field forestry (genetics, systematics and tree breeding; silviculture and
agroforestry; forest ecology and tree physiology; biometrics, computing and remote sensing; forest
management, forest protection; forestry operations) and forest products (wood and wood processing;
papermaking fibres; paper- and board-making processes; recycling of forest products; innovations to
improve wood use and environmental performance).
The Queen’s Award for Forestry recognises outstanding contributions to forestry by an outstanding
mid-career forester who “combines exceptional contributions to forestry with an innovative approach
to his or her work” (Anon, 2011d). The Queen’s Award for Forestry is not confined to researchers,
and has recognised other achievements of awardees with few publications. The award has been made
nine times since 1987 to foresters from Australia, India, Malaysia, United Kingdom, and Zimbabwe.
The Schweighofer Prize recognises “innovative ideas, technologies, products and services concerning
the whole value chain in order to strengthen the competitiveness of the European forest-based sector”
(Anon, 2011e). The Schweighofer Prize has been offered every second year since 2003, with a total of
four individuals (from Finland, Germany and Switzerland) receiving the main prize. Although the
prize also includes several innovation prizes, the present analysis considers only the publication
outputs of the main prize recipients.
Materials and Methods
The four prizes have been awarded a total of 137 times, but six individuals have received more than
one of these prizes, so there are a total of 131 individuals who have been awarded one or more of
these prizes. All but 14 of these individuals have publications visible in Scopus, the official data
provider to ERA in 2010. Collectively, these 117 individuals created 6058 publications seen by
Scopus. Standard citation data for all 6058 publications were exported from Scopus on 14 February
2011 in CSV format for further analysis. These publications included a wide range of material
including conference proceedings, editorials, obituaries, and other minor contributions which were
removed to leave 5518 contributions (articles and reviews) in 859 journals during the period 1958 to
2011 (but only 446 journals have >1 article). It is somewhat problematic surveying such a 54-year
period because citation coverage is not uniformly thorough throughout, and because some journals
Page 4
ceased and others commenced during the period. Nonetheless, this collection of scientific output
offers some interesting insights into contemporary publishing and citation patterns of prominent
forestry scientists.
This study seeks to establish the time-frame over which prize-winning forest scientists may be
regarded as ‘elite’, and contrasts their publication patterns during this elite period with accepted
journal rankings in a bid to shed light on the adequacy of the ERA classification and ranking of
journals. This study revealed that prize-winning scientists tended to exhibit elite publication output for
a decade before and a decade after their award, so the analysis of publication patterns focuses on the
88 prize-winners who received their award during 1990-2010, and who are likely to have exhibited
elite performance during the ERA assessment period 2005-2010. Subsequent analyses rely on two
assumptions about the publication habits of the scientific elite: that they publish a greater proportion
of their work in high impact journals, and that they publish in a wide range of journals to reach the
most appropriate audience.
It is difficult to establish reliable evidence to test the proposition that experience and
acknowledgement (prize-winning) leads to greater participation in more prestigious journals. Part of
the difficulty is that of gauging journal prestige across the many facets of forestry. The Journal Impact
Factor (Garfield, 2006) is long established and convenient, but many researchers have counselled
against its use to appraise research (e.g., Seglen, 1997; Weingart, 2005; Bollen et al, 2009; Vanclay,
2009). The ERA seeks to use its journal ranking as a proxy for the expected future impact of papers
published in those journals, which may be best reflected in indicators such as Article Influence
(Arendt, 2010; Waltman & van Eck, 2010), and source-normalised impact per paper (SNIP; Moed,
2010). Since SNIP is provided by Scopus, the official data provider to the ERA in 2010, it has been
adopted as the benchmark for comparison in this study. Other indicators examined include citation
counts, the Impact Factor, Eigenfactor (Bergstrom et al, 2008; West et al, 2010), SCImago Journal
Rank (Butler 2008) and h-index (Hirsch, 2005).
Results and Discussion
Figure 1 illustrates publication patterns of prize-winning scientists as reflected by SNIP calculated for
2007, chosen to represent the mid-point of the next ERA assessment period (2005-10) and because it
is simultaneously recent enough to be current and distant enough to allow reliable assessment of
journal impact (Vanclay, 2009). Figure 1a illustrates how the total output of prominent scientists
varies over time. This figure is based on the sum of the SNIPs, unadjusted for co-authorship, and may
reflect many contributions in ‘lowly’ journals or fewer contributions in journals with greater impact.
One might assume that elite scientists would seek the prestige and wide distribution of journals such
as Science and Nature, but the evidence for this is weak. Analysis of the data in Figure 1 suggests that
most prominent scientists increase their impact through coauthorship of a larger number of papers
rather than by publishing in journals of higher impact (Figure 1b). This observation is offered non-
judgementally, as it is entirely appropriate that prominent scientists attract research students and
expand their network of collaboration. This trend is consistent with other research on research
productivity of active researchers (e.g., Fox, 1983; Gingras et al, 2008), but the focus on prize-
winning scientists is novel as most other research has focused on age and cohort effects in a broader
body of scientists (e.g., Lee and Bozeman, 2005; Gonzalez-Brambila and Veloso, 2007; Hall et al,
2007).
offers some interesting insights into contemporary publishing and citation patterns of prominent
forestry scientists.
This study seeks to establish the time-frame over which prize-winning forest scientists may be
regarded as ‘elite’, and contrasts their publication patterns during this elite period with accepted
journal rankings in a bid to shed light on the adequacy of the ERA classification and ranking of
journals. This study revealed that prize-winning scientists tended to exhibit elite publication output for
a decade before and a decade after their award, so the analysis of publication patterns focuses on the
88 prize-winners who received their award during 1990-2010, and who are likely to have exhibited
elite performance during the ERA assessment period 2005-2010. Subsequent analyses rely on two
assumptions about the publication habits of the scientific elite: that they publish a greater proportion
of their work in high impact journals, and that they publish in a wide range of journals to reach the
most appropriate audience.
It is difficult to establish reliable evidence to test the proposition that experience and
acknowledgement (prize-winning) leads to greater participation in more prestigious journals. Part of
the difficulty is that of gauging journal prestige across the many facets of forestry. The Journal Impact
Factor (Garfield, 2006) is long established and convenient, but many researchers have counselled
against its use to appraise research (e.g., Seglen, 1997; Weingart, 2005; Bollen et al, 2009; Vanclay,
2009). The ERA seeks to use its journal ranking as a proxy for the expected future impact of papers
published in those journals, which may be best reflected in indicators such as Article Influence
(Arendt, 2010; Waltman & van Eck, 2010), and source-normalised impact per paper (SNIP; Moed,
2010). Since SNIP is provided by Scopus, the official data provider to the ERA in 2010, it has been
adopted as the benchmark for comparison in this study. Other indicators examined include citation
counts, the Impact Factor, Eigenfactor (Bergstrom et al, 2008; West et al, 2010), SCImago Journal
Rank (Butler 2008) and h-index (Hirsch, 2005).
Results and Discussion
Figure 1 illustrates publication patterns of prize-winning scientists as reflected by SNIP calculated for
2007, chosen to represent the mid-point of the next ERA assessment period (2005-10) and because it
is simultaneously recent enough to be current and distant enough to allow reliable assessment of
journal impact (Vanclay, 2009). Figure 1a illustrates how the total output of prominent scientists
varies over time. This figure is based on the sum of the SNIPs, unadjusted for co-authorship, and may
reflect many contributions in ‘lowly’ journals or fewer contributions in journals with greater impact.
One might assume that elite scientists would seek the prestige and wide distribution of journals such
as Science and Nature, but the evidence for this is weak. Analysis of the data in Figure 1 suggests that
most prominent scientists increase their impact through coauthorship of a larger number of papers
rather than by publishing in journals of higher impact (Figure 1b). This observation is offered non-
judgementally, as it is entirely appropriate that prominent scientists attract research students and
expand their network of collaboration. This trend is consistent with other research on research
productivity of active researchers (e.g., Fox, 1983; Gingras et al, 2008), but the focus on prize-
winning scientists is novel as most other research has focused on age and cohort effects in a broader
body of scientists (e.g., Lee and Bozeman, 2005; Gonzalez-Brambila and Veloso, 2007; Hall et al,
2007).
Page 5
Figure 1. Publication activity by elite forest scientists: total output as sum of SNIP
left), the number of Scopus-listed publications (1b, centre), and the highest SNIP
publication each year (1c right), averaged across all prominent scientists who published in that year.
The trend line is a 4th order polynomial.
Figure 1c illustrates the maximum SNIP in each year (averaged across all prominent scientists who
published that year), showing that there is a slight tendency for prominent scientists to place selected
output in ‘better’ journals as they gain standing in their pro
arise in part because each year reflects a different subset of prominent scientists, as not every scientist
published each year. To minimize this sampling effect, Figure 1 is restricted to the 67 scientists who
have published in 12 or more years during this period, and the interval
that each point represents the average of no fewer than 7 scientists.
received more than one award, dates are computed fro
clear from Figure 1 that prize-winning scientists tend to publish more, and publish better, during the
10-15 years after their award. The same track record is evident for the ten years preceding their award
(Figure 1).
Figure 1 draws evidence from the
a high publication impact during the period spanning a decade before and two decades after their
award. However, the SNIP (and other metrics)
to complement these established metrics
these scientists during these three
influence and the 6-year ERA assessment period
during 1990-2010 are of particular interest.
during the period relevant to the
amongst the 88 prize-winners during 1990
1703 publications in 431 journals
There are many possible indicators of journal standing,
reflecting the publication patterns of prominent forest scientists. F
the number of prominent scientists electing to publish in a journal, the number of paper
contribute to each journal, the total citations accruing to those papers, and the citation count adjusted
for publication date (obviously, papers published in 2
papers published in 2010, and citations/year helps to adju
are all correlated, exhibiting a Pearson correlation greater than 0.6 in all cases, but the latter indicator
(citation count adjusted for publication date, sum of cites/year) appeared to align most closely wit
the ERA ranking and other views of journal standing.
the utility of cites/year as a generic indicator.
fession. The annual variations in Figure 1
-20 to +23 is chosen to ensure
In the six cases where an author
m the year of receipt of their first award.
SNIP to support the contention that prominent forest scientists have
reflects only some aspects of impact, so it is interesting
, by independently examining the publication patterns of
decades of influence. The intersection of the three
2005-10 means that forest scientists awarded prizes
Thus further data analysis is confined
next ERA assessment (2005-10) by 79 prominent scientists
-2010 who have publications visible to Scopus)
.
but the present analysis confines itself to those
our metrics were compared
005 may have attracted more citations than
st for this temporal effect). These indicators
Figure 2 illustrates this correlation, and reflects
2007 each year (1a,
2007 of any
It is
decades of
to publications
(those
, a total of
initially:
s they
h
left), the number of Scopus-listed publications (1b, centre), and the highest SNIP
publication each year (1c right), averaged across all prominent scientists who published in that year.
The trend line is a 4th order polynomial.
Figure 1c illustrates the maximum SNIP in each year (averaged across all prominent scientists who
published that year), showing that there is a slight tendency for prominent scientists to place selected
output in ‘better’ journals as they gain standing in their pro
arise in part because each year reflects a different subset of prominent scientists, as not every scientist
published each year. To minimize this sampling effect, Figure 1 is restricted to the 67 scientists who
have published in 12 or more years during this period, and the interval
that each point represents the average of no fewer than 7 scientists.
received more than one award, dates are computed fro
clear from Figure 1 that prize-winning scientists tend to publish more, and publish better, during the
10-15 years after their award. The same track record is evident for the ten years preceding their award
(Figure 1).
Figure 1 draws evidence from the
a high publication impact during the period spanning a decade before and two decades after their
award. However, the SNIP (and other metrics)
to complement these established metrics
these scientists during these three
influence and the 6-year ERA assessment period
during 1990-2010 are of particular interest.
during the period relevant to the
amongst the 88 prize-winners during 1990
1703 publications in 431 journals
There are many possible indicators of journal standing,
reflecting the publication patterns of prominent forest scientists. F
the number of prominent scientists electing to publish in a journal, the number of paper
contribute to each journal, the total citations accruing to those papers, and the citation count adjusted
for publication date (obviously, papers published in 2
papers published in 2010, and citations/year helps to adju
are all correlated, exhibiting a Pearson correlation greater than 0.6 in all cases, but the latter indicator
(citation count adjusted for publication date, sum of cites/year) appeared to align most closely wit
the ERA ranking and other views of journal standing.
the utility of cites/year as a generic indicator.
fession. The annual variations in Figure 1
-20 to +23 is chosen to ensure
In the six cases where an author
m the year of receipt of their first award.
SNIP to support the contention that prominent forest scientists have
reflects only some aspects of impact, so it is interesting
, by independently examining the publication patterns of
decades of influence. The intersection of the three
2005-10 means that forest scientists awarded prizes
Thus further data analysis is confined
next ERA assessment (2005-10) by 79 prominent scientists
-2010 who have publications visible to Scopus)
.
but the present analysis confines itself to those
our metrics were compared
005 may have attracted more citations than
st for this temporal effect). These indicators
Figure 2 illustrates this correlation, and reflects
2007 each year (1a,
2007 of any
It is
decades of
to publications
(those
, a total of
initially:
s they
h
Page 6
Figure 2. Correlations between the four indicators: number of contributors (2a, left), number of
contributions (2b, centre), total cites (2c, right) and cites/year (y-axis).
While cites/year is of interest as an indicator, and is related to other indicators derived from the
present data (number of contributors and number of contributions), it measures something different to
other commonly-accepted indicators such as the ISI Journal Impact Factor (Weingart, 2005), the
Article Influence (Waltman & van Eck, 2010), the Scopus SNIP (Moed, 2010), and the h-index
(Hirsch, 2005). Figure 3 and Table 1 compare these four indicators with the observed cites/year to
prominent forestry scientists, using the Impact Factor (IF), Article Influence (AI), SNIP, and h-indices
derived from SCImago (2007), all based on the reference year 2007. While these indicators are clearly
correlated, the relatively low correlation suggests that cites/year to elite authors offers an insight
complementary to established metrics.
Table 1. Correlations between selected indicators of journal impact in 355 journals publishing articles
by elite scientists (after applying a logarithm transform).
Indicator Cites/yr IF AI SNIP h-index
Cites/yr to elite authors 1 0.40 0.42 0.35 0.36
Impact Factor (IF) 0.40 1 0.91 0.79 0.80
Article Influence (AI) 0.42 0.91 1 0.83 0.79
Scopus SNIP 0.35 0.79 0.83 1 0.75
SCImago h-index 0.36 0.80 0.79 0.75 1
0.1
1
10
100
1 10 100
Ci
te
s/
yr
(2
00
5-
10
)
Total articles by prominent scientists in journal
0.1
1
10
100
1 10
Ci
te
s/
yr
(2
00
5-
10
)
Prominent scientists contributing to journal
0.1
1
10
100
1 10 100 1000
Ci
te
s/
yr
(2
00
5-
10
)
Total cites to articles by prominent scientists in
journal
contributions (2b, centre), total cites (2c, right) and cites/year (y-axis).
While cites/year is of interest as an indicator, and is related to other indicators derived from the
present data (number of contributors and number of contributions), it measures something different to
other commonly-accepted indicators such as the ISI Journal Impact Factor (Weingart, 2005), the
Article Influence (Waltman & van Eck, 2010), the Scopus SNIP (Moed, 2010), and the h-index
(Hirsch, 2005). Figure 3 and Table 1 compare these four indicators with the observed cites/year to
prominent forestry scientists, using the Impact Factor (IF), Article Influence (AI), SNIP, and h-indices
derived from SCImago (2007), all based on the reference year 2007. While these indicators are clearly
correlated, the relatively low correlation suggests that cites/year to elite authors offers an insight
complementary to established metrics.
Table 1. Correlations between selected indicators of journal impact in 355 journals publishing articles
by elite scientists (after applying a logarithm transform).
Indicator Cites/yr IF AI SNIP h-index
Cites/yr to elite authors 1 0.40 0.42 0.35 0.36
Impact Factor (IF) 0.40 1 0.91 0.79 0.80
Article Influence (AI) 0.42 0.91 1 0.83 0.79
Scopus SNIP 0.35 0.79 0.83 1 0.75
SCImago h-index 0.36 0.80 0.79 0.75 1
0.1
1
10
100
1 10 100
Ci
te
s/
yr
(2
00
5-
10
)
Total articles by prominent scientists in journal
0.1
1
10
100
1 10
Ci
te
s/
yr
(2
00
5-
10
)
Prominent scientists contributing to journal
0.1
1
10
100
1 10 100 1000
Ci
te
s/
yr
(2
00
5-
10
)
Total cites to articles by prominent scientists in
journal
Page 7
Figure 3. Comparison with IF2007 (3a, top left), AI2007 (3b, top right), SNIP2007 (3c, bottom left) and h-
index2007.(3d bottom right).
These four indicators are summarised for selected journals in Table 2, ranked by cites/year. To enable
detailed comparison, Table 2 includes the ‘top ten’ journals for each indicator: the 10 journals with
the greatest number of distinguished contributors, the 10 journals with the greatest number of articles
by these contributors, the 10 journals with the largest number of total citations to works by these
authors, the 10 journals with the largest number of cites/year, and all eight A-ranked journals
classified by ERA as 0705 Forestry Sciences plus the two journals ranked as A* amongst 07
Agricultural and Veterinary Sciences (which includes 0705 Forestry Sciences). Table 2 includes an
additional two journals: the Journal of Vegetation Science and Cellulose which are amongst the top
5% of journals ranked by the ISI Journal Impact Factor within their subject categories Forestry, and
Paper and Wood respectively.
0.1
1
10
100
0.1 1 10
Ci
te
s/
ye
ar
Impact Factor (2007))
0.1
1
10
100
0.01 0.1 1 10
Ci
te
s/
ye
ar
Article Influence (2007)
0.1
1
10
100
0.1 1 10
Ci
te
s/
ye
ar
Scopus SNIP (2007)
0.1
1
10
100
1 10 100 1000
Ci
te
s/
ye
ar
SCImago h-index (2007)
index2007.(3d bottom right).
These four indicators are summarised for selected journals in Table 2, ranked by cites/year. To enable
detailed comparison, Table 2 includes the ‘top ten’ journals for each indicator: the 10 journals with
the greatest number of distinguished contributors, the 10 journals with the greatest number of articles
by these contributors, the 10 journals with the largest number of total citations to works by these
authors, the 10 journals with the largest number of cites/year, and all eight A-ranked journals
classified by ERA as 0705 Forestry Sciences plus the two journals ranked as A* amongst 07
Agricultural and Veterinary Sciences (which includes 0705 Forestry Sciences). Table 2 includes an
additional two journals: the Journal of Vegetation Science and Cellulose which are amongst the top
5% of journals ranked by the ISI Journal Impact Factor within their subject categories Forestry, and
Paper and Wood respectively.
0.1
1
10
100
0.1 1 10
Ci
te
s/
ye
ar
Impact Factor (2007))
0.1
1
10
100
0.01 0.1 1 10
Ci
te
s/
ye
ar
Article Influence (2007)
0.1
1
10
100
0.1 1 10
Ci
te
s/
ye
ar
Scopus SNIP (2007)
0.1
1
10
100
1 10 100 1000
Ci
te
s/
ye
ar
SCImago h-index (2007)
Page 8
Table 2. Bibliometric characteristics of selected journals during the period 2005-2010.
Journal Total
articles
Total
cites
Sum of
cites/yr
No of
contributors
ERA Field of
Research (FOR)
ERA
Rank
Forest Ecology and Management 69 525 128 24 0705 A
New Phytologist 19 568 124 10 0605/0607 A*
Molecular Ecology 14 415 97 5 0602 A
Remote Sensing of Environment 18 344 87 3 0406/0909 A*
Studies in Mycology 18 393 84 2 -- --
PNAS 8 366 78 9 MD A*
Global Change Biology 13 275 71 7 05/06 A*
Ecology Letters 5 353 70 4 0501/0502/0602 A*
Biotechnology and Bioengineering 8 297 66 3 06/09/10 A
Tree Physiology 29 288 60 11 0705 A
Canadian Journal of Forest Research 48 248 55 21 0705 A
Journal of Applied Polymer Science 38 199 50 5 0303/0904/0912 B
European J. Wood & Wood Products 43 159 36 10 0705 B
Holzforschung 38 153 36 10 0705 C
Forest Policy and Economics 31 179 36 9 1402/1605 C
Agricultural and Forest Meteorology 11 129 33 7 0401/0705 A
Australasian Plant Pathology 27 118 28 3 0605/0607/0703 C
Wood Science and Technology 18 141 28 9 0607/0705/0912 B
Annals of Forest Science 17 76 20 11 0705 B
Forestry Chronicle 27 70 18 8 0705 C
Scandinavian J. Forest Research 18 58 18 9 0705 B
Trees – Structure and Function 12 92 18 10 0705 B
Forest Products Journal 32 79 16 5 0705 C
Forestry 9 47 16 8 0705 A
Forest Science 17 68 13 8 0705 A
Tree Genetics and Genomes 9 34 12 4 0604/0705/1001 A
Conservation Biology 2 62 12 3 05/06/07 A*
Cellulose 6 26 10 6 0303/0912 B
Journal of Vegetation Science 1 11 4 2 0607 B
Applied & Environmental Microbiology 1 4 4 2 06/07/10 A*
International Journal of Wildland Fire 0 0 0 0 0705 A
Although the various indicators in Table 2 are highly correlated, there are some notable outliers.
Forest Policy and Economics has become prominent as a publication outlet for elite scientists (9) and
carries a relatively large number of contributions (31), but these are cited rather infrequently (179
times in total or 36 cites/year). Studies in Mycology has few contributors (2) for a rather high-impact
journal (84 cites/year), reflecting the narrow focus of the journal. And the A-ranked journal
International Journal of Wildland Fire has received no attention from the prize-winning scientists
considered in this paper, suggesting that either few awards have been made for fire research, and/or
that this journal is misclassified. Finally, notwithstanding the other indicators, journals appear to be
ranked A* only if they are not classified as 0705 Forestry. This discrepancy is further examined in
Figure 4.
Journal Total
articles
Total
cites
Sum of
cites/yr
No of
contributors
ERA Field of
Research (FOR)
ERA
Rank
Forest Ecology and Management 69 525 128 24 0705 A
New Phytologist 19 568 124 10 0605/0607 A*
Molecular Ecology 14 415 97 5 0602 A
Remote Sensing of Environment 18 344 87 3 0406/0909 A*
Studies in Mycology 18 393 84 2 -- --
PNAS 8 366 78 9 MD A*
Global Change Biology 13 275 71 7 05/06 A*
Ecology Letters 5 353 70 4 0501/0502/0602 A*
Biotechnology and Bioengineering 8 297 66 3 06/09/10 A
Tree Physiology 29 288 60 11 0705 A
Canadian Journal of Forest Research 48 248 55 21 0705 A
Journal of Applied Polymer Science 38 199 50 5 0303/0904/0912 B
European J. Wood & Wood Products 43 159 36 10 0705 B
Holzforschung 38 153 36 10 0705 C
Forest Policy and Economics 31 179 36 9 1402/1605 C
Agricultural and Forest Meteorology 11 129 33 7 0401/0705 A
Australasian Plant Pathology 27 118 28 3 0605/0607/0703 C
Wood Science and Technology 18 141 28 9 0607/0705/0912 B
Annals of Forest Science 17 76 20 11 0705 B
Forestry Chronicle 27 70 18 8 0705 C
Scandinavian J. Forest Research 18 58 18 9 0705 B
Trees – Structure and Function 12 92 18 10 0705 B
Forest Products Journal 32 79 16 5 0705 C
Forestry 9 47 16 8 0705 A
Forest Science 17 68 13 8 0705 A
Tree Genetics and Genomes 9 34 12 4 0604/0705/1001 A
Conservation Biology 2 62 12 3 05/06/07 A*
Cellulose 6 26 10 6 0303/0912 B
Journal of Vegetation Science 1 11 4 2 0607 B
Applied & Environmental Microbiology 1 4 4 2 06/07/10 A*
International Journal of Wildland Fire 0 0 0 0 0705 A
Although the various indicators in Table 2 are highly correlated, there are some notable outliers.
Forest Policy and Economics has become prominent as a publication outlet for elite scientists (9) and
carries a relatively large number of contributions (31), but these are cited rather infrequently (179
times in total or 36 cites/year). Studies in Mycology has few contributors (2) for a rather high-impact
journal (84 cites/year), reflecting the narrow focus of the journal. And the A-ranked journal
International Journal of Wildland Fire has received no attention from the prize-winning scientists
considered in this paper, suggesting that either few awards have been made for fire research, and/or
that this journal is misclassified. Finally, notwithstanding the other indicators, journals appear to be
ranked A* only if they are not classified as 0705 Forestry. This discrepancy is further examined in
Figure 4.
Page 9
Figure 4. Citation patterns accruing to journals ranked by ERA as forestry
Agriculture, shown as circles, trend as solid line
Figure 4 shows citations/year accruing
forestry scientists identified in this study
2010. The two trend lines for forestry (i.e.,
journals (other FOR codes, including multidisciplinary)
work published in B-ranked forestry journals tends to accrue about
work by the same scientists published
interpret these differing trends. One interpretation is that forestry articles published in non
journals attract fewer citations than typical for the journal because such articles are seen by a
disinterested audience. While this situation may occur occasionally, the present study draws on work
by elite prize-winners who are unlikely to hide their output in obscure journals. It also overlooks the
role of informational retrieval systems such as Scopus,
on keywords rather than journal subscriptions. An alternative interpretation
forestry journals are ranked lower by ERA
interpretation leads to the need for a reliable and equitable ranking of journals within each FOR.
In Figure 4, the trend for forestry journals (solid line) is close to diagonal, consistent with the
assumptions of the ERA ranking in assuming a 5:15:30:50 distri
ranked journals, which is surprising given that the work under examination is by the el
forestry researchers during their prime
ranked more highly by ERA (for the same citation impact) when published in non
Figure 4 suggests that there may be inadequacies in the
the pending revision (Atkinson and McBeath
The award-winning forestry scientists published in
journals carried only one or two articles by prominent scientists. The top
approximately 30% of the articles and accrued about
that should be examined more closely. The stated intention of the ERA was that the top 5% of
journals should be ranked A*, so it is appropriate to consider the ERA rank
(Table 3), since these 5% of journals favoured by the elite amongst researchers would seem likely
candidates for A* ranking.
(0705 Forestry and 07
) and non-forestry (shown as crosses
to work published during 2005-2010 by the prize
, within each of the four journal rankings defined by ERA in
journals classified as FOR 07 and 0705)
have very different slopes, so for instance,
ten times as many citations as
in B-ranked ‘non-forestry’ journals. There are two ways to
Web of Science and Google Scholar that rely
of these two trends is that
than journals of comparable impact in other fields. Either
bution amongst A*, A, B and C
. The dotted trend reveals that work by the same authors is
2010 ERA ranking that should be addresses in
, 2010).
424 journals during 2005-2010
25 journals (Table
50% of the citations, so these are the journals
ing of these journals
, trend dotted).
-winning
and non-forestry
-forestry
-
ite amongst
-forestry journals.
, but many of these
3) carried
Agriculture, shown as circles, trend as solid line
Figure 4 shows citations/year accruing
forestry scientists identified in this study
2010. The two trend lines for forestry (i.e.,
journals (other FOR codes, including multidisciplinary)
work published in B-ranked forestry journals tends to accrue about
work by the same scientists published
interpret these differing trends. One interpretation is that forestry articles published in non
journals attract fewer citations than typical for the journal because such articles are seen by a
disinterested audience. While this situation may occur occasionally, the present study draws on work
by elite prize-winners who are unlikely to hide their output in obscure journals. It also overlooks the
role of informational retrieval systems such as Scopus,
on keywords rather than journal subscriptions. An alternative interpretation
forestry journals are ranked lower by ERA
interpretation leads to the need for a reliable and equitable ranking of journals within each FOR.
In Figure 4, the trend for forestry journals (solid line) is close to diagonal, consistent with the
assumptions of the ERA ranking in assuming a 5:15:30:50 distri
ranked journals, which is surprising given that the work under examination is by the el
forestry researchers during their prime
ranked more highly by ERA (for the same citation impact) when published in non
Figure 4 suggests that there may be inadequacies in the
the pending revision (Atkinson and McBeath
The award-winning forestry scientists published in
journals carried only one or two articles by prominent scientists. The top
approximately 30% of the articles and accrued about
that should be examined more closely. The stated intention of the ERA was that the top 5% of
journals should be ranked A*, so it is appropriate to consider the ERA rank
(Table 3), since these 5% of journals favoured by the elite amongst researchers would seem likely
candidates for A* ranking.
(0705 Forestry and 07
) and non-forestry (shown as crosses
to work published during 2005-2010 by the prize
, within each of the four journal rankings defined by ERA in
journals classified as FOR 07 and 0705)
have very different slopes, so for instance,
ten times as many citations as
in B-ranked ‘non-forestry’ journals. There are two ways to
Web of Science and Google Scholar that rely
of these two trends is that
than journals of comparable impact in other fields. Either
bution amongst A*, A, B and C
. The dotted trend reveals that work by the same authors is
2010 ERA ranking that should be addresses in
, 2010).
424 journals during 2005-2010
25 journals (Table
50% of the citations, so these are the journals
ing of these journals
, trend dotted).
-winning
and non-forestry
-forestry
-
ite amongst
-forestry journals.
, but many of these
3) carried
Page 10
Table 3. Top 25 most-frequently cited journals in which elite forest scientists choose to publish.
Journal Articles Total
Cites
Cites
per year
Rank
Other FOR Multi-FOR 0705
Forest Ecology and Management 69 525 128 A
New Phytologist 19 568 124 A*
Molecular Ecology 14 415 97 A
Remote Sensing of Environment 18 344 88 A*
Studies in Mycology 18 393 84 --
PNAS 8 366 78 A*
Global Change Biology 13 275 71 A*
Ecology Letters 5 353 70 A*
Biotechnology and Bioengineering 8 297 66 A
Tree Physiology 29 288 60 A
Nature 3 266 58 A*
Canadian Journal of Forest Research 48 248 55 A
Median of top 2.5% 16 348 75 A* A* A
Environmental Pollution 20 156 54 A
Ecological Applications 10 215 50 A
Journal of Applied Polymer Science 38 199 50 B
J. Adhesion Science and Technology 17 199 47 B
Materials Science & Engineering Reports 2 265 46 A*
Bioresource Technology 9 106 39 A
Plant, Cell and Environment 11 157 38 A
European J. Wood and Wood Products 43 159 36 B
Holzforschung 38 153 36 C
Forest Policy and Economics 31 179 36 C
Chemical Engineering Journal 5 161 35 A*
Applied Biochemistry and Biotechnology 12 179 33 B
Agricultural and Forest Meteorology 11 129 33 A
Median of top 5% 14 248 54 A A A
Table 3 provides further insights into weaknesses of the ERA classification and ranking. The journal
Studies in Mycology appears to have been overlooked from the classification. There are a large
number of A*-ranked journals in the ‘non-forestry’ column, but none in the ‘forestry’ column of
Table 3, despite journals of apparently comparable standing, suggesting an apparent bias against
forestry in the journal rankings. It is somewhat surprising that so few of these journals are ranked A*,
since by one yardstick they represent the top 5% of journals frequented by elite scientists at their peak
performance. In addition, there are a large number of journals in which prominent forest scientists
publish, that are not classified 0705 Forestry Sciences, suggesting the need for more multiple
classifications amongst these journals.
Conclusion
Table 3 offers a compelling argument that the classification and ranking of journals in 0705 Forestry
Sciences warrants further consideration. There appears to be a strong case to rank as A* at least three
journals, including Forest Ecology and Management, Tree Physiology and Canadian Journal of
Forest Research. There is also a strong case to add additional classifications for several journals not
currently classified as 0705 Forestry Sciences. These findings are consistent with other studies
drawing on different sources of data.
Journal Articles Total
Cites
Cites
per year
Rank
Other FOR Multi-FOR 0705
Forest Ecology and Management 69 525 128 A
New Phytologist 19 568 124 A*
Molecular Ecology 14 415 97 A
Remote Sensing of Environment 18 344 88 A*
Studies in Mycology 18 393 84 --
PNAS 8 366 78 A*
Global Change Biology 13 275 71 A*
Ecology Letters 5 353 70 A*
Biotechnology and Bioengineering 8 297 66 A
Tree Physiology 29 288 60 A
Nature 3 266 58 A*
Canadian Journal of Forest Research 48 248 55 A
Median of top 2.5% 16 348 75 A* A* A
Environmental Pollution 20 156 54 A
Ecological Applications 10 215 50 A
Journal of Applied Polymer Science 38 199 50 B
J. Adhesion Science and Technology 17 199 47 B
Materials Science & Engineering Reports 2 265 46 A*
Bioresource Technology 9 106 39 A
Plant, Cell and Environment 11 157 38 A
European J. Wood and Wood Products 43 159 36 B
Holzforschung 38 153 36 C
Forest Policy and Economics 31 179 36 C
Chemical Engineering Journal 5 161 35 A*
Applied Biochemistry and Biotechnology 12 179 33 B
Agricultural and Forest Meteorology 11 129 33 A
Median of top 5% 14 248 54 A A A
Table 3 provides further insights into weaknesses of the ERA classification and ranking. The journal
Studies in Mycology appears to have been overlooked from the classification. There are a large
number of A*-ranked journals in the ‘non-forestry’ column, but none in the ‘forestry’ column of
Table 3, despite journals of apparently comparable standing, suggesting an apparent bias against
forestry in the journal rankings. It is somewhat surprising that so few of these journals are ranked A*,
since by one yardstick they represent the top 5% of journals frequented by elite scientists at their peak
performance. In addition, there are a large number of journals in which prominent forest scientists
publish, that are not classified 0705 Forestry Sciences, suggesting the need for more multiple
classifications amongst these journals.
Conclusion
Table 3 offers a compelling argument that the classification and ranking of journals in 0705 Forestry
Sciences warrants further consideration. There appears to be a strong case to rank as A* at least three
journals, including Forest Ecology and Management, Tree Physiology and Canadian Journal of
Forest Research. There is also a strong case to add additional classifications for several journals not
currently classified as 0705 Forestry Sciences. These findings are consistent with other studies
drawing on different sources of data.
Page 11
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Vanclay, J.K. (2009) Bias in the Journal Impact Factor. Scientometrics 78:3-12.
Vanclay, J.K. (2011) An evaluation of the Australian Research Council’s journal ranking. Journal of
Informetrics 5:265-274.
Waltman, L., & van Eck, N.J. (2010) The relation between eigenfactor, audience factor, and influence
weight. Journal of the American Society for Information Science and Technology 61(7):1476–
1486.
Weingart, P. (2005) Impact of bibliometrics upon the science system: Inadvertent consequences?
Scientometrics 62(1):117-131.
West, J.D., Bergstrom, T.C., & Bergstrom, C.T. (2010) The Eigenfactor Metrics: A Network
Approach to Assessing Scholarly Journals. College & Research Libraries 71(3):236-244.
Australia (ERA) draft journal rankings. Australian Journal of Psychology 62(2):112-114.
Hicks, D. (2009) Evolving regimes of multi-university research evaluation. Higher Education
57(4):393-404.
Johnston, R. (2009) Where there are data ... Quantifying the unquantifiable. Political Studies Review
7:50–62.
Hirsch, J.E. (2005) An index to quantify an individual's scientific research output. Proceedings of the
National Academy of Sciences 102(46):16569-16572.
Lamp, J.W. (2009) Journal ranking and the dreams of academics. Online Information Review
33(4):827-830.
Lamp, J.W., & Fisher, J. (2010) ERA distribution of information systems journals. Australasian
Journal of Information Systems 16(2):5-17.
Lawrence, P.A. (2008) Lost in publication: how measurement harms science. Ethics in Science and
Environmental Politics 8:9-11.
Lee, S., & Bozeman, B. (2005) The Impact of Research Collaboration on Scientific Productivity.
Social Studies of Science 35(5):673–702.
Li, J., Sanderson, M., Willett, P., Norris, M., & Oppenheim, C. (2010) Ranking of library and
information science researchers: Comparison of data sources for correlating citation data, and
expert judgments. Journal of Informetrics 4(4):554-563.
Moed, H.F. (2010) Measuring contextual citation impact of scientific journals. Journal of Informetrics
4:265-277.
Peters, M.A. (2008) ERA Journal Ranking Exercise: An Open Letter to the Australian Research
Council. Educational Philosophy and Theory 40(7):809-810.
Rocha-e-Silva, M. (2010) Impact factor, SCImago indexes and the Brazilian journal rating sytem:
Where do we go from here? Clinics 65(4):351-5.
SCImago. (2007). SCImago Journal & Country Rank. http://www.scimagojr.com [25 February
2011].
Seglen, P.O. (1997) Why the impact factor of journals should not be used for evaluating research.
BMJ 314:497.
Siebelt, M., Siebelt, T., Pilot, P., Bloem, R.M., Bhandari, M., & Poolman, R.W. (2010) Citation
analysis of orthopaedic literature; 18 major orthopaedic journals compared for Impact Factor
and SCImago. BMC Musculoskeletal Disorders 11:4.
Stringer, M.J., Sales-Pardo, M., & Nunes Amaral, L.A. (2008) Effectiveness of journal ranking
schemes as a tool for locating information. PLoS ONE 3(2): e1683.
doi:10.1371/journal.pone.0001683
Thomas, P.R., & Watkins, D.S. (1998) Institutional research rankings via bibliometric analysis and
direct peer review: A comparative case study with policy implications. Scientometrics
41(3):335-355.
Vanclay, J.K. (2008a) Ranking forestry journals using the h-index. Journal of Informetrics 2:326–
334.
Vanclay, J.K. (2008b) Gauging the impact of journals. Forest Ecology and Management 256:507-509.
Vanclay, J.K. (2009) Bias in the Journal Impact Factor. Scientometrics 78:3-12.
Vanclay, J.K. (2011) An evaluation of the Australian Research Council’s journal ranking. Journal of
Informetrics 5:265-274.
Waltman, L., & van Eck, N.J. (2010) The relation between eigenfactor, audience factor, and influence
weight. Journal of the American Society for Information Science and Technology 61(7):1476–
1486.
Weingart, P. (2005) Impact of bibliometrics upon the science system: Inadvertent consequences?
Scientometrics 62(1):117-131.
West, J.D., Bergstrom, T.C., & Bergstrom, C.T. (2010) The Eigenfactor Metrics: A Network
Approach to Assessing Scholarly Journals. College & Research Libraries 71(3):236-244.
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Resources
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1.17 MB · Uploaded Jan 26, 2012 by Jerome K Vanclay
Science & Research Jobs
Keywords
Australian Research Council
Australian universities
disciplines
ERA journal ranking
ERA rankings
journals
major impact
metrics
others
performance evaluation
poor correlation
ranking
research dissemination
scientific discipline
weaknesses

