Landscape patterns of hemlock decline in New England due to the introduced hemlock woolly adelgid

Aim The hemlock woolly adelgid (HWA; Adelges tsugae Annand), a small, aphid-like insect native to Japan, is currently migrating northward through eastern North America and threatens to eliminate eastern hemlock [Tsuga canadensis (L.) Carriere], one of the most abundant, long-lived shade tolerant spe...

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Published inJournal of biogeography Vol. 29; no. 10-11; pp. 1475 - 1487
Main Authors Orwig, David A., Foster, David R., Mausel, David L.
Format Journal Article
LanguageEnglish
Published Oxford, UK Blackwell Science Ltd 01.10.2002
Blackwell Science
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Abstract Aim The hemlock woolly adelgid (HWA; Adelges tsugae Annand), a small, aphid-like insect native to Japan, is currently migrating northward through eastern North America and threatens to eliminate eastern hemlock [Tsuga canadensis (L.) Carriere], one of the most abundant, long-lived shade tolerant species, across its range. The major objectives of this study were: (1) to characterize the pre-HWA distribution, composition, and structure of hemlock stands; (2) to characterize the spatial patterns of damage generated by HWA across southern New England since the time of its arrival in 1985; and (3) to examine environmental and stand factors that are associated with declines in crown vigour and mortality of hemlock. Location Our study was conducted in a 4900-km2study region extending from Long Island Sound northward to the Massachusetts border and including the Connecticut River Valley in Connecticut, USA. Methods Aerial photographs and extensive field study were used to map and develop GIS overlays of 1000 hemlock stands in our study region. Intensive sampling of a random selection of 114 hemlock stands across the study area was used to document patterns of hemlock infestation, vigour, and mortality in relation to stand and site characteristics. Mantel tests were utilized to assess the relative importance of environmental and stand variables in controlling the intensity of HWA infestation and damage. Results Most stands were located along ridge tops, steep hillsides and narrow valleys. Hemlock importance values ranged from 22 to 96% and stand densities varied from 300 to 1450 stems ha-1. Adelgid presence and adelgid-induced hemlock mortality were found in 88 and 74% of the sampled forests, respectively. Approximately 25% of stands were logged recently, ranging in intensity from partial hemlock cutting to large clearcuts. A geographical trend in reduced HWA infestation intensity and tree mortality and enhanced crown vigour of overstory and understory hemlock occurs from south to north, coincident with the temporal colonization pattern of HWA. Mantel analyses indicated that patterns of HWA infestation, hemlock mortality, and crown vigour were most strongly correlated with latitude. Mortality was also weakly related to aspect and stand size. Average mortality was highest on western aspects but exceeded 20% on most slopes. Remaining trees averaged over 50% foliar loss, with no significant difference among aspects. Main conclusions Results suggest that as HWA becomes abundant, stands on xeric aspects succumb rapidly, but that stand and landscape variables such as overstory composition and structure, slope, and elevation, exert little control over susceptibility or eventual mortality. Ultimately, duration of infestation controls the intensity of hemlock decline and mortality. Over 4290 ha of hemlock forest have been eliminated by logging or HWA just within the southern part of our transect since the mid-1980s, and we predict continued HWA infestation will lead to unprecedented hemlock loss throughout the north-eastern USA, regardless of site conditions or location.
AbstractList Aim The hemlock woolly adelgid (HWA; Adelges tsugae Annand), a small, aphid-like insect native to Japan, is currently migrating northward through eastern North America and threatens to eliminate eastern hemlock [Tsuga canadensis (L.) Carriere], one of the most abundant, long-lived shade tolerant species, across its range. The major objectives of this study were: (1) to characterize the pre-HWA distribution, composition, and structure of hemlock stands; (2) to characterize the spatial patterns of damage generated by HWA across southern New England since the time of its arrival in 1985; and (3) to examine environmental and stand factors that are associated with declines in crown vigour and mortality of hemlock. Location Our study was conducted in a 4900-km super(2) study region extending from Long Island Sound northward to the Massachusetts border and including the Connecticut River Valley in Connecticut, USA. Methods Aerial photographs and extensive field study were used to map and develop GIS overlays of 1000 hemlock stands in our study region. Intensive sampling of a random selection of 114 hemlock stands across the study area was used to document patterns of hemlock infestation, vigour, and mortality in relation to stand and site characteristics. Mantel tests were utilized to assess the relative importance of environmental and stand variables in controlling the intensity of HWA infestation and damage. Results Most stands were located along ridge tops, steep hillsides and narrow valleys. Hemlock importance values ranged from 22 to 96% and stand densities varied from 300 to 1450 stems ha super(-1). Adelgid presence and adelgid-induced hemlock mortality were found in 88 and 74% of the sampled forests, respectively. Approximately 25% of stands were logged recently, ranging in intensity from partial hemlock cutting to large clearcuts. A geographical trend in reduced HWA infestation intensity and tree mortality and enhanced crown vigour of overstory and understory hemlock occurs from south to north, coincident with the temporal colonization pattern of HWA. Mantel analyses indicated that patterns of HWA infestation, hemlock mortality, and crown vigour were most strongly correlated with latitude. Mortality was also weakly related to aspect and stand size. Average mortality was highest on western aspects but exceeded 20% on most slopes. Remaining trees averaged over 50% foliar loss, with no significant difference among aspects. Main conclusions Results suggest that as HWA becomes abundant, stands on xeric aspects succumb rapidly, but that stand and landscape variables such as overstory composition and structure, slope, and elevation, exert little control over susceptibility or eventual mortality. Ultimately, duration of infestation controls the intensity of hemlock decline and mortality. Over 4290 ha of hemlock forest have been eliminated by logging or HWA just within the southern part of our transect since the mid-1980s, and we predict continued HWA infestation will lead to unprecedented hemlock loss throughout the north-eastern USA, regardless of site conditions or location.
Aim The hemlock woolly adelgid (HWA; Adelges tsugae Annand), a small, aphid-like insect native to Japan, is currently migrating northward through eastern North America and threatens to eliminate eastern hemlock [Tsuga canadensis (L.) Carriere], one of the most abundant, long-lived shade tolerant species, across its range. The major objectives of this study were: (1) to characterize the pre-HWA distribution, composition, and structure of hemlock stands; (2) to characterize the spatial patterns of damage generated by HWA across southern New England since the time of its arrival in 1985; and (3) to examine environmental and stand factors that are associated with declines in crown vigour and mortality of hemlock. Location Our study was conducted in a 4900-km2study region extending from Long Island Sound northward to the Massachusetts border and including the Connecticut River Valley in Connecticut, USA. Methods Aerial photographs and extensive field study were used to map and develop GIS overlays of 1000 hemlock stands in our study region. Intensive sampling of a random selection of 114 hemlock stands across the study area was used to document patterns of hemlock infestation, vigour, and mortality in relation to stand and site characteristics. Mantel tests were utilized to assess the relative importance of environmental and stand variables in controlling the intensity of HWA infestation and damage. Results Most stands were located along ridge tops, steep hillsides and narrow valleys. Hemlock importance values ranged from 22 to 96% and stand densities varied from 300 to 1450 stems ha-1. Adelgid presence and adelgid-induced hemlock mortality were found in 88 and 74% of the sampled forests, respectively. Approximately 25% of stands were logged recently, ranging in intensity from partial hemlock cutting to large clearcuts. A geographical trend in reduced HWA infestation intensity and tree mortality and enhanced crown vigour of overstory and understory hemlock occurs from south to north, coincident with the temporal colonization pattern of HWA. Mantel analyses indicated that patterns of HWA infestation, hemlock mortality, and crown vigour were most strongly correlated with latitude. Mortality was also weakly related to aspect and stand size. Average mortality was highest on western aspects but exceeded 20% on most slopes. Remaining trees averaged over 50% foliar loss, with no significant difference among aspects. Main conclusions Results suggest that as HWA becomes abundant, stands on xeric aspects succumb rapidly, but that stand and landscape variables such as overstory composition and structure, slope, and elevation, exert little control over susceptibility or eventual mortality. Ultimately, duration of infestation controls the intensity of hemlock decline and mortality. Over 4290 ha of hemlock forest have been eliminated by logging or HWA just within the southern part of our transect since the mid-1980s, and we predict continued HWA infestation will lead to unprecedented hemlock loss throughout the north-eastern USA, regardless of site conditions or location.
Aim  The hemlock woolly adelgid (HWA; Adelges tsugae Annand), a small, aphid‐like insect native to Japan, is currently migrating northward through eastern North America and threatens to eliminate eastern hemlock [Tsuga canadensis (L.) Carriere], one of the most abundant, long‐lived shade tolerant species, across its range. The major objectives of this study were: (1) to characterize the pre‐HWA distribution, composition, and structure of hemlock stands; (2) to characterize the spatial patterns of damage generated by HWA across southern New England since the time of its arrival in 1985; and (3) to examine environmental and stand factors that are associated with declines in crown vigour and mortality of hemlock. Location  Our study was conducted in a 4900‐km2 study region extending from Long Island Sound northward to the Massachusetts border and including the Connecticut River Valley in Connecticut, USA. Methods  Aerial photographs and extensive field study were used to map and develop GIS overlays of 1000 hemlock stands in our study region. Intensive sampling of a random selection of 114 hemlock stands across the study area was used to document patterns of hemlock infestation, vigour, and mortality in relation to stand and site characteristics. Mantel tests were utilized to assess the relative importance of environmental and stand variables in controlling the intensity of HWA infestation and damage. Results  Most stands were located along ridge tops, steep hillsides and narrow valleys. Hemlock importance values ranged from 22 to 96% and stand densities varied from 300 to 1450 stems ha–1. Adelgid presence and adelgid‐induced hemlock mortality were found in 88 and 74% of the sampled forests, respectively. Approximately 25% of stands were logged recently, ranging in intensity from partial hemlock cutting to large clearcuts. A geographical trend in reduced HWA infestation intensity and tree mortality and enhanced crown vigour of overstory and understory hemlock occurs from south to north, coincident with the temporal colonization pattern of HWA. Mantel analyses indicated that patterns of HWA infestation, hemlock mortality, and crown vigour were most strongly correlated with latitude. Mortality was also weakly related to aspect and stand size. Average mortality was highest on western aspects but exceeded 20% on most slopes. Remaining trees averaged over 50% foliar loss, with no significant difference among aspects. Main conclusions  Results suggest that as HWA becomes abundant, stands on xeric aspects succumb rapidly, but that stand and landscape variables such as overstory composition and structure, slope, and elevation, exert little control over susceptibility or eventual mortality. Ultimately, duration of infestation controls the intensity of hemlock decline and mortality. Over 4290 ha of hemlock forest have been eliminated by logging or HWA just within the southern part of our transect since the mid‐1980s, and we predict continued HWA infestation will lead to unprecedented hemlock loss throughout the north‐eastern USA, regardless of site conditions or location.
Researchers have determined that the hemlock woolly adelgid (HWA) (Adelges tsugae Annand), an introduced aphid-like insect native to Japan, is migrating northward throughout eastern North America. This invasive species threatens to eradicate remaining populations of eastern hemlock (Tsuga canadensis (L.) Carriere), which is considered one of the most abundant, long-lived shade tolerant tree species in its range. A study was implemented to characterize the pre-HWA distribution, composition, and structure of hemlock stands. Scientists sought to characterize the spatial patterns of damage produced by HWA across southern New England since it was first introduced into the region in 1985. The study also attempted to identify the environmental and stand factors linked to declines in crown vigor and mortality of hemlock.
Abstract Aim  The hemlock woolly adelgid (HWA; Adelges tsugae Annand), a small, aphid‐like insect native to Japan, is currently migrating northward through eastern North America and threatens to eliminate eastern hemlock [ Tsuga canadensis (L.) Carriere], one of the most abundant, long‐lived shade tolerant species, across its range. The major objectives of this study were: (1) to characterize the pre‐HWA distribution, composition, and structure of hemlock stands; (2) to characterize the spatial patterns of damage generated by HWA across southern New England since the time of its arrival in 1985; and (3) to examine environmental and stand factors that are associated with declines in crown vigour and mortality of hemlock. Location  Our study was conducted in a 4900‐km 2 study region extending from Long Island Sound northward to the Massachusetts border and including the Connecticut River Valley in Connecticut, USA. Methods  Aerial photographs and extensive field study were used to map and develop GIS overlays of 1000 hemlock stands in our study region. Intensive sampling of a random selection of 114 hemlock stands across the study area was used to document patterns of hemlock infestation, vigour, and mortality in relation to stand and site characteristics. Mantel tests were utilized to assess the relative importance of environmental and stand variables in controlling the intensity of HWA infestation and damage. Results  Most stands were located along ridge tops, steep hillsides and narrow valleys. Hemlock importance values ranged from 22 to 96% and stand densities varied from 300 to 1450 stems ha – 1 . Adelgid presence and adelgid‐induced hemlock mortality were found in 88 and 74% of the sampled forests, respectively. Approximately 25% of stands were logged recently, ranging in intensity from partial hemlock cutting to large clearcuts. A geographical trend in reduced HWA infestation intensity and tree mortality and enhanced crown vigour of overstory and understory hemlock occurs from south to north, coincident with the temporal colonization pattern of HWA. Mantel analyses indicated that patterns of HWA infestation, hemlock mortality, and crown vigour were most strongly correlated with latitude. Mortality was also weakly related to aspect and stand size. Average mortality was highest on western aspects but exceeded 20% on most slopes. Remaining trees averaged over 50% foliar loss, with no significant difference among aspects. Main conclusions  Results suggest that as HWA becomes abundant, stands on xeric aspects succumb rapidly, but that stand and landscape variables such as overstory composition and structure, slope, and elevation, exert little control over susceptibility or eventual mortality. Ultimately, duration of infestation controls the intensity of hemlock decline and mortality. Over 4290 ha of hemlock forest have been eliminated by logging or HWA just within the southern part of our transect since the mid‐1980s, and we predict continued HWA infestation will lead to unprecedented hemlock loss throughout the north‐eastern USA, regardless of site conditions or location.
Author Foster, David R.
Orwig, David A.
Mausel, David L.
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  surname: Mausel
  fullname: Mausel, David L.
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1989; 82
1997; 43
1986; 32
1990; 19
1999; 285
1997b
1997a
1967; 27
1993; 2
1998; 44
1979
1994; 20
1999a; 1
2000
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1997; 59
2000; 10
1999; 14
1986
1985
1984
1992; 119
1998; 125
1980
1996; 26
1966; 64
1989
1999b; 1
1991; 37
1978; 56
1999; 29
1980; 61
1924; 1
1981; 3
1999; 28
1995a
1998
1996
1997; 27
1950
1994
1995b; 47
1998; 139
1991
1999; 1
2002
1994; 40
1994; 43
1935; 16
2002; 29
2001; 6
1995; 45
1991; 20
2000; 30
1995; 88
1996; 84
1928
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SSID ssj0009534
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Snippet Aim The hemlock woolly adelgid (HWA; Adelges tsugae Annand), a small, aphid-like insect native to Japan, is currently migrating northward through eastern North...
Aim  The hemlock woolly adelgid (HWA; Adelges tsugae Annand), a small, aphid‐like insect native to Japan, is currently migrating northward through eastern...
Abstract Aim  The hemlock woolly adelgid (HWA; Adelges tsugae Annand), a small, aphid‐like insect native to Japan, is currently migrating northward through...
Researchers have determined that the hemlock woolly adelgid (HWA) (Adelges tsugae Annand), an introduced aphid-like insect native to Japan, is migrating...
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StartPage 1475
SubjectTerms Connecticut
Ecological sustainability
Forest ecology
Forest ecosystems
Forest stands
hemlock mortality
Hemlock woolly adelgid
Impacts of Introduced Pests and Pathogens
Infestation
infestation dynamics
landscape patterns
logging
Mantel test
Mantels
Mortality
Overstory
Sustainable forest management
tree vigour
Trees
Title Landscape patterns of hemlock decline in New England due to the introduced hemlock woolly adelgid
URI https://api.istex.fr/ark:/67375/WNG-XH9QS466-H/fulltext.pdf
https://www.jstor.org/stable/827563
https://onlinelibrary.wiley.com/doi/abs/10.1046%2Fj.1365-2699.2002.00765.x
https://search.proquest.com/docview/14640544
https://search.proquest.com/docview/18625233
Volume 29
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