Overview
Distribution
[16,31,43,88]. A few populations occur in southeastern California near
the Colorado River in the Whipple Mountains [3,10,26]. The range of
yellow paloverde extends southward through Sonora and Baja California,
Mexico [37,38,65,78,80,100].
- 10. Burk, Jack H. 1977. Sonoran Desert. In: Barbour, M. G.; Major, J., eds. Terrestrial vegetation of California. New York: John Wiley and Sons: 869-899. [3731]
- 3. Benson, Lyman; Darrow, Robert A. 1981. The trees and shrubs of the Southwestern deserts. Tucson, AZ: The University of Arizona Press. [18066]
- 16. Elias, Thomas S. 1980. The complete trees of North America: field guide and natural history. New York: Times Mirror Magazines, Inc. 948 p. [21987]
- 26. Hastings, James R.; Turner, Raymond M.; Warren, Douglas K. 1972. An atlas of some plant distributions in the Sonoran Desert. Technical Reports on the Meteorology and Climatology of Arid Regions No. 21. Tuscon, AZ: University of Arizona, Institute of Atmospheric Physics. 255 p. [10534]
- 31. Kearney, Thomas H.; Peebles, Robert H.; Howell, John Thomas; McClintock, Elizabeth. 1960. Arizona flora. 2d ed. Berkeley, CA: University of California Press. 1085 p. [6563]
- 37. Little, Elbert L., Jr. 1950. Southwestern trees: A guide to the native species of New Mexico and Arizona. Agriculture Handbook No. 9. Washington, DC: U.S. Department of Agriculture, Forest Service. 109 p. [20330]
- 38. Little, Elbert L., Jr. 1976. Atlas of United States trees. Volume 3. Minor western hardwoods. Misc. Publ. 1314. Washington, DC: U.S. Department of Agriculture, Forest Service. 13 p. 290 maps. [10430]
- 43. MacMahon, James A. 1988. Warm deserts. In: Barbour, Michael G.; Billings, William Dwight, eds. North American terrestrial vegetation. Cambridge; New York: Cambridge University Press: 231-264. [19547]
- 65. Rea, Amadeo M. 1983. Sonoran desert oases: plants, birds and native people. Environment Southwest. 503: 5-9. [2967]
- 78. Shreve, Forrest. 1942. The desert vegetation of North America. Botanical Review. 8(4): 195-246. [5051]
- 80. Shreve, F.; Wiggins, I. L. 1964. Vegetation and flora of the Sonoran Desert. Stanford, CA: Stanford University Press. 2 vols. [21016]
- 88. Tidestrom, I.; Kittell, T. 1941. A flora of Arizona and New Mexico. Washington, DC: The Catholic University of America Press. 897 p. [18145]
- 100. Wiggins, Ira L. 1980. Flora of Baja California. Stanford, CA: Stanford University Press. 1025 p. [21993]
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Regional Distribution in the Western United States
This species can be found in the following regions of the western United States (according to the Bureau of Land Management classification of Physiographic Regions of the western United States):
7 Lower Basin and Range
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Localities documented in Tropicos sources
Mexico (Mesoamerica)
United States (North America)
Note: This information is based on publications available through Tropicos and may not represent the entire distribution. Tropicos does not categorize distributions as native or non-native.
-
Anonymous. 1986. List-Based Rec., Soil Conserv. Serv., U.S.D.A. Database of the U.S.D.A., Beltsville.
http://www.tropicos.org/Reference/1103
-
Isely, D. 1975. Leguminosae of the United States: II. Subfamily Caesalpinioideae. Mem. New York Bot. Gard. 25(2): 1–228.
http://www.tropicos.org/Reference/445
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Localities documented in Tropicos sources
Mexico (Mesoamerica)
United States (North America)
Note: This information is based on publications available through Tropicos and may not represent the entire distribution. Tropicos does not categorize distributions as native or non-native.
-
Cozzo, D. 1953. The Structure and Diagnostic Significance of Crateriform Bordered Pits in the Vessels of Cercidium. J. Arnold Arbor. 34(2): 187–190.
http://www.tropicos.org/Reference/442
-
Carter, A. M. 1974. The Genus Cercidium (Leguminosae: Caesalpinioideae) in the Sonoran Desert of Mexico and the United States. Proc. Calif. Acad. Sci. 40(2): 17–57.
http://www.tropicos.org/Reference/522
-
Munz, P. A. & D. D. Keck. 1959. Cal. Fl. 1–1681. University of California Press, Berkeley.
http://www.tropicos.org/Reference/1717
-
Munz, P. A. 1974. Fl. S. Calif. 1–1086. University of California Press, Berkeley.
http://www.tropicos.org/Reference/1719
-
Wiggins, I. L. 1980. Leguminosae. 644–711. In I. L. Wiggins Fl. Baja Calif. Stanford University Press, Stanford.
http://www.tropicos.org/Reference/71
-
Burkart, A. & A. M. Carter. 1976. Notas en el género Cercidium (Caesalpin[i]oideae) en Sud América. Darwiniana 20(3–4): 305–311.
http://www.tropicos.org/Reference/222
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National Distribution
United States
Origin: Unknown/Undetermined
Regularity: Regularly occurring
Currently: Unknown/Undetermined
Confidence: Confident
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Physical Description
Morphology
Description
Yellow paloverde is a native, monoecious, spiny shrub or small tree that
may grow to 26 feet (8 m) tall [3,37,52,88]. The trunk may be 1 foot
(0.3 m) in diameter; it branches about 8 inches (20 cm) from the ground
into four to six major stems [57]. The crown spreads 12 to 18 feet
(3.7-5.5 m) [32]. The bark is thin and photosynthetic [91]. Yellow
paloverde has numerous flowers in 1 inch (2.5 cm) long clusters [16,37].
It has pinnately compound leaves about 1 inch (2.5 cm) long with minute
leaflets and is drought-deciduous [37,100]. Fruits are 2 to 3 inches
(4-8 cm) long and have one to five seeds with constrictions between the
seeds [16,37,80].
Yellow paloverde lives longer than 72 years [22].
Yellow paloverde is susceptible to freezing [90].
- 52. Munz, Philip A. 1974. A flora of southern California. Berkeley, CA: University of California Press. 1086 p. [4924]
- 3. Benson, Lyman; Darrow, Robert A. 1981. The trees and shrubs of the Southwestern deserts. Tucson, AZ: The University of Arizona Press. [18066]
- 16. Elias, Thomas S. 1980. The complete trees of North America: field guide and natural history. New York: Times Mirror Magazines, Inc. 948 p. [21987]
- 22. Goldberg, Deborah E.; Turner, Raymond M. 1986. Vegetation change and plant demography in permanent plots in the Sonoran Desert. Ecology. 67(3): 695-712. [4410]
- 37. Little, Elbert L., Jr. 1950. Southwestern trees: A guide to the native species of New Mexico and Arizona. Agriculture Handbook No. 9. Washington, DC: U.S. Department of Agriculture, Forest Service. 109 p. [20330]
- 57. Olsen, Ronald W. 1973. Shelter-site selection in the white-throated woodrat, Neotoma albigula. Journal of Mammalogy. 54: 594-610. [9886]
- 80. Shreve, F.; Wiggins, I. L. 1964. Vegetation and flora of the Sonoran Desert. Stanford, CA: Stanford University Press. 2 vols. [21016]
- 88. Tidestrom, I.; Kittell, T. 1941. A flora of Arizona and New Mexico. Washington, DC: The Catholic University of America Press. 897 p. [18145]
- 90. Turnage, William V.; Hinckley, Arthur L. 1938. Freezing weather in relation to plant distribution in the Sonoran Desert. Ecological Monographs. 8(2): 530-550. [3789]
- 91. Turner, Raymond M. 1963. Growth in four species of Sonoran Desert trees. Ecology. 44: 760-765. [9883]
- 100. Wiggins, Ira L. 1980. Flora of Baja California. Stanford, CA: Stanford University Press. 1025 p. [21993]
- 32. Kennedy, Charles E. 1983. A palo verde snag in the Sonora Desert. In: Davis, Jerry W.; Goodwin, Gregory A.; Ockenfeis, Richard A., technical coordinators. Snag Habitat management: proceedings of the symposium; 1983 June 7-9; Flagstaff, AZ. Gen. Tech. Rep. RM-99. Fort Collins, CO: U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest and Range Experiment Station: 165-166. [17832]
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Physical Description
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Ecology
Habitat
Habitat characteristics
Yellow paloverde occurs in arid to semiarid climates with mild winters
and hot summers; precipitation is bimodal, occurring in summer and fall [15,54].
Yellow paloverde is found on lower mountain slopes and alluvial outwash
plains [54,97]. In the most arid parts of its range, yellow paloverde
occasionally occurs in small washes or arroyos [24,59,64,91,97].
Yellow paloverde occurs from 1,000 to 4,000 feet (305-1,219 m) in
elevation throughout its range [19,23,54,97,99]. It grows on very
gradual to steep slopes that may face south or north, but it has been
reported on all aspects [19,24,28,36,60,101].
The sites on which yellow paloverde occurs are well-drained [28].
Surface soils may be 1.6 to 2.8 inches (4-7 cm) thick and subsoils may
be 20 inches (50 cm) thick over caliche [91,101]. The soil temperature
regime is thermic (that is, average soil temperatures are between 59 and
72 degrees Fahrenheit [15-22 deg C]) [51]. Soil textures range from
sand to sandy loam to loam [24]. They may be underlain by clay loam and
clays [23,89]. Parent materials may be basaltic, rhyolitic, granitic,
mixed alluvium, and metamorphic [22,49,59,60,91].
The distribution of yellow paloverde is influenced by the continuum of
soil textures that occurs from upper to lower bajada [5]. It is found
primarily on the upper bajadas [6,7,93,97]. Coarse soil of the upper
bajada has one-half the wilting coefficient (which is an estimate of
plant stress) of the finer soil of the lower bajada [102]. Yellow
paloverde grows infrequently on the middle and lower bajada [97].
- 5. Bowers, Michael A. 1988. Plant associations on a Sonoran Desert bajada: geographical correlates and evolutionary source pools. Vegetatio. 74: 107-112. [4408]
- 6. Bowers, Michael A.; Lowe, Charles H. 1986. Plant-form gradients on Sonoran Desert bajadas. Oikos. 46: 284-291. [10864]
- 7. Brooks, William H. 1978. Jojoba--a North American desert shrub; its ecology, possible commercialization, & potential as an introd. into other arid regions. Journal of Arid Environments. 1: 227-236. [5162]
- 15. Eddy, Thomas A. 1961. Foods and feeding patterns of the collared peccary in southern Arizona. Journal of Wildlife Management. 25: 248-257. [9888]
- 19. Fernandes, G. Wilson. 1992. A gradient analysis of plant forms from northern Arizona. Journal of the Arizona-Nevada Academy of Science. 24-25: 21-30. [18247]
- 22. Goldberg, Deborah E.; Turner, Raymond M. 1986. Vegetation change and plant demography in permanent plots in the Sonoran Desert. Ecology. 67(3): 695-712. [4410]
- 23. Goodwin, John G., Jr.; Hungerford, C. Roger. 1977. Habitat use by native Gambel's and scaled quail and released masked bobwhite quail in southern Arizona. Res. Pap. RM-197. Fort Collins, CO: U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest and Range Experiment Station. 8 p. [14970]
- 24. Hanley, Thomas A.; Brady, Ward W. 1977. Seasonal fluctuations in nutrient content of feral burro forages, lower Colorado River Valley, Arizona. Journal of Range Management. 30(5): 370-375. [4336]
- 28. Humphrey, R. R. 1950. Arizona range resources. II. Yavapai County. Bull. 229. Tucson, AZ: University of Arizona, Agricultural Experiment Station. 55 p. [5088]
- 36. Leitner, Lawrence A. 1987. Plant communities of a large arroyo at Punta Cirio, Sonora. Southwestern Naturalist. 32(1): 21-28. [1439]
- 49. McLaughlin, Steven P.; Bowers, Janice E. 1982. Effects of wildfire on a Sonoran Desert plant community. Ecology. 63(1): 246-248. [1619]
- 51. Moir, W. H. 1983. A series vegetation classification for Region 3. In: Moir, W. H.; Hendzel, Leonard, tech. coords. Proceedings of the workshop on Southwestern habitat types; 1983 April 6-8; Albuquerque, NM. Albuquerque, NM: U.S. Department of Agriculture, Forest Service, Southwestern Region: 91-95. [1672]
- 54. Niering, William A.; Lowe, Charles H. 1984. Vegetation of the Santa Catalina Mountains: community types and dynamics. Vegetatio. 58: 3-28. [12037]
- 59. Parker, Kathleen C. 1988. Environmental relationships and vegetation associates of columnar cacti in the northern Sonoran Desert. Vegetatio. 78: 125-140. [6953]
- 60. Parker, Kathleen C. 1991. Topography, substrate, and vegetation patterns in the northern Sonoran Desert. Journal of Biogeography. 18: 151-163. [14979]
- 64. Rea, Amadeo. 1979. Velvet mesquite. Environment Southwest. 486: 3-7. [2977]
- 89. Tomoff, Carl S. 1974. Avian species diversity in desert scrub. Ecology. 55: 396-403. [19307]
- 91. Turner, Raymond M. 1963. Growth in four species of Sonoran Desert trees. Ecology. 44: 760-765. [9883]
- 93. Turner, Raymond M.; Brown, David E. 1982. Sonoran desertscrub. In: Brown, David E., ed. Biotic communities of the American Southwest--United States and Mexico. Desert Plants. 4(1-4): 181-221. [2375]
- 97. Warren, Peter L.; Anderson, L. Susan. 1985. Gradient analysis of a Sonoran Desert wash. In: Johnson, R. Roy; [and others]
- 99. Whittaker, R. H.; Niering, W. A. 1965. Vegetation of the Santa Catalina Mountains, Arizona: a gradient analysis of the south slope. Ecology. 46: 429-452. [9637]
- 101. Whysong, Gary L.; Heisler, Michael H. 1978. Nitrogen levels of soil and vegetation in the upper Sonoran Desert as affected by fire. In: Hyder, Donald N., ed. Proceedings, 1st international rangeland congress; 1978 August 14-18; Denver, CO. Denver, CO: Society for Range Management: 697-699. [3990]
- 102. Yang, Tien Wei; Lowe, Charles H., Jr. 1955. Correlation of major vegetation climaxes with soil characteristics in the Sonoran Desert. Science. 123: 542. [12226]
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Key Plant Community Associations
Yellow paloverde is an indicator species of the Sonoran Desert floristic
region [50]. It is a dominant species in the Arizona upland subdivision
of the Sonoran Desert [9,41,43,93]. Codominant species include
creosotebush (Larrea tridentata), triangle bursage (Ambrosia deltoidea),
brittle brush (Encelia farinosa), ocotillo (Fouqueria splendens), and
Berlandier wolfberry (Lycium belandieri) [9]. This assemblage is also
called the paloverde, bursage (Ambrosia spp.) desert scrub community
type. It grades into spinose suffrutescent desert scrub [54].
A major climax association found on bajadas and rocky slopes throughout
the Sonoran Desert is the paloverde/saguaro (Carnegiea gigantea)
association [5,9,42,89,102]. This association grades into adjacent
semidesert grasslands and interior chaparral [53,54].
Yellow paloverde is the principal species in the paloverde series
[51,61]. This is also called the paloverde-cacti-mixed scrub series and
paloverde woodland and succulents association [93,103].
Yellow paloverde is a facultative riparian species. It may move into
riparian areas from surrounding desert and upland positions [1,74,83].
Where precipitation is less than 3 inches (7.6 cm) per year, yellow
paloverde is confined to washes and is an obligate riparian species [2].
Yellow paloverde is listed as a dominant or indicator species in the
following publications:
(1) A series vegetation classification for Region 3 [51]
(2) A vegetation classification system applied to southern California
[61]
(3) Vegetation of the Santa Catalina Mountains, Arizona: a gradient
analysis of the south slope [99].
Species associated with yellow paloverde but not previously mentioned in
DISTRIBUTION AND OCCURRENCE include white burrobrush (Hymenoclea
salsola), white ratany (Krameria grayi), organpipe cactus
(Lemaireocereus schottii), MacDougal ocotillo (Fouqueria macdougalii),
and heart leatherstem (Jatropha cordata) [25,78,97].
- 9. Burgess, Tony L.; Bowers, Janice E.; Turner, Raymond M. 1991. Exotic plants at the Desert Laboratory, Tucson, Arizona. Madrono. 38(2): 96-114. [15362]
- 1. Asplund, Kenneth K.; Gooch, Michael T. 1988. Geomorphology and the distributional ecology of Fremont cottonwood (Populus fremontii) in a desert riparian canyon. Desert Plants. 9(1): 17-27. [563]
- 2. Bennett, Peter S.; Kunzmann, Michael R.; Johnson, R. Roy. 1989. Relative nature of wetlands: riparian and vegetational considerations. In: Abell, Dana L., technical coordinator. Protection, management, and restoration for the 1990's: Proceedings of the California riparian systems conference; 1988 September 22-24; Davis, CA. Gen. Tech. Rep. PSW-110. Berkeley, CA: U.S. Department of Agriculture, Forest Service, Pacific Southwest Forest and Range Experiment Station: 140-142. [13516]
- 5. Bowers, Michael A. 1988. Plant associations on a Sonoran Desert bajada: geographical correlates and evolutionary source pools. Vegetatio. 74: 107-112. [4408]
- 25. Hanley, Thomas A.; Brady, Ward W. 1977. Feral burro impact on a Sonoran Desert range. Journal of Range Management. 30(5): 374-377. [4337]
- 41. Lowe, Charles H., Jr. 1961. Biotic communities in the sub-Mogollon region of the inland Southwest. Arizona Academy of Science Journal. 2: 40-49. [20379]
- 42. Lowe, Charles H.; Holm, Peter A. 1991. The amphibians and reptiles at Saguaro National Monument, Arizona. Technical Report No. 37. Tucson, AZ: University of Arizona, School of Renewable Natural Resources, Cooperative National Park Resources Study Unit. 20 p. [18335]
- 43. MacMahon, James A. 1988. Warm deserts. In: Barbour, Michael G.; Billings, William Dwight, eds. North American terrestrial vegetation. Cambridge; New York: Cambridge University Press: 231-264. [19547]
- 50. Minckley, W. L.; Clark, Thomas O. 1981. Vegetation of the Gila River Resource Area, eastern Arizona. Desert Plants. 3(3): 124-140. [10863]
- 51. Moir, W. H. 1983. A series vegetation classification for Region 3. In: Moir, W. H.; Hendzel, Leonard, tech. coords. Proceedings of the workshop on Southwestern habitat types; 1983 April 6-8; Albuquerque, NM. Albuquerque, NM: U.S. Department of Agriculture, Forest Service, Southwestern Region: 91-95. [1672]
- 53. Nichol, A. A. [revisions by Phillips, W. S.]
- 54. Niering, William A.; Lowe, Charles H. 1984. Vegetation of the Santa Catalina Mountains: community types and dynamics. Vegetatio. 58: 3-28. [12037]
- 61. Paysen, Timothy E.; Derby, Jeanine A.; Black, Hugh, Jr.; [and others]
- 74. Rucks, Michael G. 1984. Composition and trend of riparian vegetation on five perennial streams in southeastern Arizona. In: Warner, Richard E.; Hendrix, Kathleen M., eds. California riparian systems: Ecology, conservation, and productive management: Proceedings of a conference; 1981 September 17-19; Davis, CA. Berkeley, CA: University of California Press: 97-107. [5831]
- 78. Shreve, Forrest. 1942. The desert vegetation of North America. Botanical Review. 8(4): 195-246. [5051]
- 83. Stamp, Nancy E. 1978. Breeding birds of riparian woodland in south-central Arizona. Condor. 80: 64-71. [8079]
- 89. Tomoff, Carl S. 1974. Avian species diversity in desert scrub. Ecology. 55: 396-403. [19307]
- 93. Turner, Raymond M.; Brown, David E. 1982. Sonoran desertscrub. In: Brown, David E., ed. Biotic communities of the American Southwest--United States and Mexico. Desert Plants. 4(1-4): 181-221. [2375]
- 97. Warren, Peter L.; Anderson, L. Susan. 1985. Gradient analysis of a Sonoran Desert wash. In: Johnson, R. Roy; [and others]
- 99. Whittaker, R. H.; Niering, W. A. 1965. Vegetation of the Santa Catalina Mountains, Arizona: a gradient analysis of the south slope. Ecology. 46: 429-452. [9637]
- 102. Yang, Tien Wei; Lowe, Charles H., Jr. 1955. Correlation of major vegetation climaxes with soil characteristics in the Sonoran Desert. Science. 123: 542. [12226]
- 103. Zimmermann, Robert C. 1969. Plant ecology of an arid basin: Tres Alamos-Redington Area, southeastern Arizona. Geological Survey Professional Paper 485-D. Washington, DC: U.S. Department of the Interior, Geological Survey. 51 p. [4287]
Trusted
Habitat: Plant Associations
This species is known to occur in association with the following plant community types (as classified by Küchler 1964):
More info for the term: cactus
K041 Creosotebush
K042 Creosotebush - bursage
K043 Paloverde - cactus shrub
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Habitat: Ecosystem
This species is known to occur in the following ecosystem types (as named by the U.S. Forest Service in their Forest and Range Ecosystem [FRES] Type classification):
FRES30 Desert shrub
FRES40 Desert grasslands
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Habitat: Cover Types
This species is known to occur in association with the following cover types (as classified by the Society of American Foresters):
242 Mesquite
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General Ecology
Fire Management Implications
Desert fire temperatures are variable due to interactions of
microhabitats and fuel. This prescribed fire did not alter physical
site characteristics such as albedo, soil water repellency, and
long-term microsite temperatures. Perennial plant cover was
significantly (P=0.001) reduced which may lead to soil erosion. Yellow
paloverde is very susceptible to fire, but no mortality data were given.
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Site Description
The study site was located in a desert canyon at 1,477 feet (450 m)
elevation. Spring months are dry and warm in this semiarid climate. No
appreciable precipitation was reported from the April prefire
assessments to the June prescribed fire. No information was given on
specific topography, slope, or soils.
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Fire Management Considerations
Introduced annuals in desert habitats may create sufficient fuel to
increase fire frequency and severity [71]. Native annuals probably
provided less fuel [39,71].
In the soils on which yellow paloverde occurs, nutrients are quickly
translocated following fire. Two years after fire, soil nitrogen levels
can drop below prefire levels [13,101].
- 13. Cave, George Harold, III. 1982. Ecological effects of fire in the upper Sonoran Desert. Tempe, AZ: Arizona State University. 124 p. Thesis. [12295]
- 39. Loftin, Samuel Robert. 1987. Postfire dynamics of a Sonoran Desert ecosystem. Tempe, AZ: Arizona State University. 97 p. Thesis. [12296]
- 71. Thomas, Renee L.; Anderson, Roger C. 1993. Influence of topography on stand composition in a midwestern ravine forest. American Midland Naturalist. 130(1): 1-12. [1742]
- 101. Whysong, Gary L.; Heisler, Michael H. 1978. Nitrogen levels of soil and vegetation in the upper Sonoran Desert as affected by fire. In: Hyder, Donald N., ed. Proceedings, 1st international rangeland congress; 1978 August 14-18; Denver, CO. Denver, CO: Society for Range Management: 697-699. [3990]
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Plant Response to Fire
During May 1981 in the Tonto National Forest, Arizona, the prefire mean
density of yellow paloverde was 30 plants per acre (75 plants/ha).
Following a controlled fire of moderate severity during June 1981,
yellow paloverde mean density was 24.8 plants per acre (62 plants/ha).
Heat-damaged plants subsequently died. Nine months after the fire,
yellow paloverde mean density was 17.2 plants per acre (43 plants/ha)
[13].
Yellow paloverde was completely eliminated by fire at one site on the
Tonto National Forest, Arizona [13].
Yellow paloverde may require 20 years to return to prefire plant
densities and community species composition following fires in
paloverde-saguaro communities [13,39,72].
Wildfire during June 1979 in Arizona top-killed 83 percent of yellow
paloverde present. Twenty-five percent of top-killed plants sprouted
about 2 years following the fire. There was 63 percent mortality for
yellow paloverde after about 3 years [49].
Fire burned during June 1974 in two desert scrub communities of
south-central Arizona. Before the fires, yellow paloverde had not
sprouted; no seedlings were present on one site (Dead Man Wash Site),
and five seedlings were present at the other site (Saguaro Site).
Prefire data concerning yellow paloverde were not given. Fire killed 78
percent of the photosynthetic tissue on the Dead Man Wash Site and 92
percent on the Saguaro Site. For both sites, approximately 10 percent
of the yellow paloverde present after fire were not top-killed;
approximately 14 percent were top-killed and sprouted. Five seedlings
were found on the Saguaro Site in postfire year 1 [71,72].
Yellow paloverde occurred in two different communities that were
prescribed burned during different years, one in 1983 and the other in
1985. Control and prefire communities were similar in composition. No
information specific to yellow paloverde was given. The fires consumed
70 percent of the perennial vegetation. Plants were two-thirds less
dense immediately after than before the fire. In 1986, plant densities
were still below prefire levels [39].
Yellow paloverde was codominant with triange bursage and buckhorn cholla
(Opuntia acanthocarpa) on rocky slopes on the Tonto National Forest. A
prescribed fire during June 1985 burned 9.9 acres (4 ha). The fire
burned vigorously in washes and on lower slopes. But fire decreased on
the upper slopes due to a lack of fuel between the shrubs; vegetation
patches were ignited with flares. The spotty burning reduced shrub
cover by 49 percent. No specific effects on yellow paloverde response
to fire were given in the article [81].
The Research Project Summary Ibarra-F and others 1996 provides
information on mortality of yellow paloverde after prescribed fires
in buffelgrass (Pennisetum ciliare) pastures in Sonora, Mexico.
- 13. Cave, George Harold, III. 1982. Ecological effects of fire in the upper Sonoran Desert. Tempe, AZ: Arizona State University. 124 p. Thesis. [12295]
- 39. Loftin, Samuel Robert. 1987. Postfire dynamics of a Sonoran Desert ecosystem. Tempe, AZ: Arizona State University. 97 p. Thesis. [12296]
- 49. McLaughlin, Steven P.; Bowers, Janice E. 1982. Effects of wildfire on a Sonoran Desert plant community. Ecology. 63(1): 246-248. [1619]
- 71. Thomas, Renee L.; Anderson, Roger C. 1993. Influence of topography on stand composition in a midwestern ravine forest. American Midland Naturalist. 130(1): 1-12. [1742]
- 72. Rogers, Garry F.; Steele, Jeff. 1980. Sonoran Desert fire ecology. In: Stokes, Marvin A.; Dieterich, John H., technical coordinators. Proceedings of the fire history workshop; 1980 October 20-24; Tucson, AZ. Gen. Tech. Rep. RM-81. Fort Collins, CO: U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest and Range Experiment Station: 15-19. [16036]
- 81. Simons, L. H. 1989. Vertebrates killed by desert fire. Southwestern Naturalist. 34(1): 144. [7850]
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Immediate Effect of Fire
fire, they are top-killed or killed. Surviving yellow paloverde
rootstocks sprout following fire. Sprouting plants are susceptible to
death from repeated fires [39].
A fire on a southern Arizona rangeland during the 1900's burned for 2
days and killed paloverde species. Postfire recovery of the vegetation
was not mentioned in the article [29].
- 29. Humphrey, Robert R. 1958. The desert grassland: A history of vegetational change and an analysis of causes. Bull. 299. Tucson, AZ: University of Arizona, Agricultural Experiment Station. 61 p. [5270]
- 39. Loftin, Samuel Robert. 1987. Postfire dynamics of a Sonoran Desert ecosystem. Tempe, AZ: Arizona State University. 97 p. Thesis. [12296]
Trusted
Post-fire Regeneration
Tree with adventitious-bud root crown/soboliferous species root sucker
Tall shrub, adventitious-bud root crown
Secondary colonizer - off-site seed
Trusted
Fire Ecology
The thin-barked photosynthetic stems of yellow paloverde are killed by
fire [13]. Yellow paloverde may sprout from the root crown following
top-kill [39].
The temperatures of desert fires are variable due to fluctuations in
kinds and quantities of available fuel [104]. Heavy grazing in some
upland sites has eliminated the grass understory beneath paloverde
species and saguaro. Grass species were replaced with bursage,
burroweed (Haplopappus tenuisectus), and snakeweed (Gutierrezia spp.).
This has lowered the fire frequency because there is insufficient fuel
to carry fires [70]. However, introduced annuals in other areas may
have increased both the frequency and the severity of fire [71,72].
Fires in the Sonoran Desert are generally infrequent and are low
severity due to low fuel loads [49]. However, fires can be relatively
common in the Sonoran Desert under appropriate conditions, especially
during the summer [39]. Two consecutive wet winters are probably needed
to develop fuel loads adequate to sustain fire. Fire is frequent in
desert grasslands on the eastern edge of the Sonoran Desert [49].
The Sonoran savanna grasslands are subtropical, fire-climax grasslands.
Most of these communities were destroyed through grazing and other land
management practices by the 1940's. Yellow paloverde grows in remnants
of these communities at their northern limits [8].
- 8. Brown, David E. 1982. Sonoran savanna grassland. In: Brown, David E., ed. Biotic communities of the American Southwest--United States and Mexico. Desert Plants. 4(1-4): 137-141. [8897]
- 13. Cave, George Harold, III. 1982. Ecological effects of fire in the upper Sonoran Desert. Tempe, AZ: Arizona State University. 124 p. Thesis. [12295]
- 39. Loftin, Samuel Robert. 1987. Postfire dynamics of a Sonoran Desert ecosystem. Tempe, AZ: Arizona State University. 97 p. Thesis. [12296]
- 49. McLaughlin, Steven P.; Bowers, Janice E. 1982. Effects of wildfire on a Sonoran Desert plant community. Ecology. 63(1): 246-248. [1619]
- 70. Robinett, Dan. 1990. Tohono O'odham range history. Rangelands. 12(6): 296-300. [14968]
- 71. Thomas, Renee L.; Anderson, Roger C. 1993. Influence of topography on stand composition in a midwestern ravine forest. American Midland Naturalist. 130(1): 1-12. [1742]
- 72. Rogers, Garry F.; Steele, Jeff. 1980. Sonoran Desert fire ecology. In: Stokes, Marvin A.; Dieterich, John H., technical coordinators. Proceedings of the fire history workshop; 1980 October 20-24; Tucson, AZ. Gen. Tech. Rep. RM-81. Fort Collins, CO: U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest and Range Experiment Station: 15-19. [16036]
- 104. Patten, Duncan T.; Cave, George H. 1984. Fire temperatures and physical characteristics of a controlled burn in the upper Sonoran Desert. Journal of Range Management. 37(3): 277-280. [181]
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Successional Status
More info for the term: climax
Facultative Seral Species
Yellow paloverde is a climax species in the Sonoran Desert flora [51,54,61].
Successional sequences have not been completely identified for the
desert scrub communities in which yellow paloverde occurs. Dominants
such as yellow paloverde are the first to reappear and replace
themselves following disturbance [69].
- 51. Moir, W. H. 1983. A series vegetation classification for Region 3. In: Moir, W. H.; Hendzel, Leonard, tech. coords. Proceedings of the workshop on Southwestern habitat types; 1983 April 6-8; Albuquerque, NM. Albuquerque, NM: U.S. Department of Agriculture, Forest Service, Southwestern Region: 91-95. [1672]
- 54. Niering, William A.; Lowe, Charles H. 1984. Vegetation of the Santa Catalina Mountains: community types and dynamics. Vegetatio. 58: 3-28. [12037]
- 61. Paysen, Timothy E.; Derby, Jeanine A.; Black, Hugh, Jr.; [and others]
- 69. Reynolds, Hudson G. 1962. Some characteristics and uses of Arizona's major plant communities. Journal of the Arizona Academy of Science. 2: 62-71. [1959]
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Regeneration Processes
Yellow paloverde reproduces sexually and asexually. Yellow paloverde
has fair to poor ability to produce sprouts after top removal [11].
Photoperiod initiates fruit and flower production of yellow paloverde.
Subsequent local weather conditions determine whether flowering or seed
set occurs [91]. A seed crop is produced when the spring is wet or very
cool [105].
Yellow paloverde is insect pollinated [44,82].
McAuliffe [47] stated that yellow paloverde pods rapidly abscise as a
mechanism to avoid seed predation by bruchid beetles. The constricted
fruits of yellow paloverde do not open before dispersing [37].
Seeds germinate during a rainy season after 1 year in the soil.
Seedlings are very susceptible to drought during the first 2 to 3 months
following germination. During a 9-year study in Arizona, 1.6 percent of
all seedlings that germinated survived [105].
Recruitment of yellow paloverde is very slow. Additions as low as two
individuals over 30 years or longer have been recorded [22,79].
Herbivory limits yellow paloverde distribution [45]. Bruchid beetles
are seed predators of yellow paloverde [47]. Heteromyid rodents rapidly
cache yellow paloverde seeds. The cached seeds occasionally germinate
[47,95].
Initial distributions of yellow paloverde seedlings are random.
However, after 1 year, a greater proportion of seedlings in open spaces
were consumed by rabbits and hares than seedlings beneath triangle
bursage. Recruitment patterns of yellow paloverde show significantly
(P less than 0.001) positive associations with mature triangle bursage and white
bursage (Ambrosia dumosa) [45,46]. Because yellow paloverde outlives
triangle bursage, large mature yellow paloverde have no association with
triangle bursage [46].
Unpredictable water availability causes low, erratic seedling
establishment [12]. Mature yellow paloverde maintain deep root contact
with wet soil [73,105]. Yellow paloverde self prunes; large branches
die during drought [3,105]. Young plants usually survive drought once
they drop branches which occurs at variable ages [77,105]. Death of
mature yellow paloverde due to drought and subsequent desiccation is
uncommon [45,77,92]. Based on water requirement trials, the water-use
efficiency of yellow paloverde approaches that of perennial grasses
[48].
- 3. Benson, Lyman; Darrow, Robert A. 1981. The trees and shrubs of the Southwestern deserts. Tucson, AZ: The University of Arizona Press. [18066]
- 11. Carr, Merle E.; Mason, Charles T., Jr.; Bagby, Marvin O. 1986. Renewable resources from Arizona trees and shrubs. Forest Ecology and Management. 16: 155-167. [3053]
- 22. Goldberg, Deborah E.; Turner, Raymond M. 1986. Vegetation change and plant demography in permanent plots in the Sonoran Desert. Ecology. 67(3): 695-712. [4410]
- 37. Little, Elbert L., Jr. 1950. Southwestern trees: A guide to the native species of New Mexico and Arizona. Agriculture Handbook No. 9. Washington, DC: U.S. Department of Agriculture, Forest Service. 109 p. [20330]
- 44. McArthur, E. Durant. 1989. Breeding systems in shrubs. In: McKell, Cyrus M., ed. The biology and utilization of shrubs. San Diego, CA: Academic Press, Inc.: 341-361. [8039]
- 45. McAuliffe, Joseph R. 1986. Herbivore-limited establishment of a Sonoran Desert tree, Cercidium microphyllum. Ecology. 67(1): 276-280. [2756]
- 47. McAuliffe, Joseph R. 1990. Paloverdes, pocket mice, and bruchid beetles: interrelationships of seeds, dispersers, and seed predators. Southwestern Naturalist. 35(3): 329-337. [14988]
- 77. Shreve, Forrest. 1911. Establishment behavior of the Palo Verde. Plant World. 14: 289-296. [11168]
- 79. Shreve, Forrest; Hinckley, Arthur L. 1937. Thirty years of change in desert vegetation. Ecology. 18(4): 463-478. [4574]
- 82. Simpson, B. B.; Neff, J. L.; Moldenke, A. R. 1977. Prosopis flowers as a resource. In: Simpson, B. B., ed. Mesquite: Its biology in two desert ecosystems. US/IBP Synthesis 4. Stroudsburg, PA: Dowden, Hutchinson & Ross, Inc: 84-107. [5192]
- 91. Turner, Raymond M. 1963. Growth in four species of Sonoran Desert trees. Ecology. 44: 760-765. [9883]
- 95. Vander Wall, Stephen B. 1993. Seed water content and the vulnerability of buried seeds to foraging rodents. American Midland Naturalist. 129(2): 272-281. [21306]
- 105. Shreve, Forrest. 1917. The establishment of desert perennials. Journal of Ecology. 5: 210-216. [22785]
- 12. Castellanos, A. E.; Molina, F. E. 1990. Differential survivorship and establishment in Simmondsia chinensis (jojoba). Journal of Arid Environments. 19: 65-76. [14982]
- 46. McAuliffe, Joseph R. 1988. Markovian dynamics of simple and complex desert plant communities. American Naturalist. 131(4): 459-490. [6744]
- 48. McGinnies, W. G.; Arnold, Joseph F. 1939. Relative water requirement of Arizona range plants. Technical Bulletin No. 80. Tucson, AZ: University of Arizona, Agricultural Experiment Station: 167-246. [4441]
- 73. Roundy, Bruce A.; Dobrenz, Albert K. 1989. Herbivory and plant water status of jojoba [Simmondsia chinensis (Link) Schn.]
- 92. Turner, Raymond M. 1990. Long-term vegetation change at a fully protected Sonoran Desert site. Ecology. 7(2): 464-477. [10866]
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Growth Form (according to Raunkiær Life-form classification)
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Life History and Behavior
Cyclicity
Phenology
Yellow paloverde may not flower every year, depending on adequate
moisture availability. It develops flowers from March to May
[24,31,80,91,100]. Leaf production is erratic [24]. Yellow paloverde
grows drought-deciduous leaves two or more times during the year
following summer and winter rains [77,91].
- 24. Hanley, Thomas A.; Brady, Ward W. 1977. Seasonal fluctuations in nutrient content of feral burro forages, lower Colorado River Valley, Arizona. Journal of Range Management. 30(5): 370-375. [4336]
- 31. Kearney, Thomas H.; Peebles, Robert H.; Howell, John Thomas; McClintock, Elizabeth. 1960. Arizona flora. 2d ed. Berkeley, CA: University of California Press. 1085 p. [6563]
- 77. Shreve, Forrest. 1911. Establishment behavior of the Palo Verde. Plant World. 14: 289-296. [11168]
- 80. Shreve, F.; Wiggins, I. L. 1964. Vegetation and flora of the Sonoran Desert. Stanford, CA: Stanford University Press. 2 vols. [21016]
- 91. Turner, Raymond M. 1963. Growth in four species of Sonoran Desert trees. Ecology. 44: 760-765. [9883]
- 100. Wiggins, Ira L. 1980. Flora of Baja California. Stanford, CA: Stanford University Press. 1025 p. [21993]
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Molecular Biology and Genetics
Molecular Biology
Barcode data: Parkinsonia microphylla
No available public DNA sequences.
Download FASTA File
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Statistics of barcoding coverage: Parkinsonia microphylla
Public Records: 1
Specimens with Barcodes: 1
Species With Barcodes: 1
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Conservation
Conservation Status
National NatureServe Conservation Status
United States
Rounded National Status Rank: NNR - Unranked
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Management
Management considerations
Dimensional analyses that relate fresh biomass to stem diameter and dry
matter content are available for yellow paloverde [18].
Yellow paloverde was evaluated as a potential energy-producing crop.
During 2 years of sampling, the stems, leaves, and fruits of yellow
paloverde yielded moderate amounts of oil and crude protein. It was not
considered a promising species for exploitation [11].
Yellow paloverde spread from residential plantings into surrounding
wildlands in Death Valley National Monument, California. Yellow
paloverde does not occur there naturally, and mechanical and herbicide
control methods have been proposed to eradicate it [40].
Yellow paloverde and other desert scrub species invade desert grasslands
following disturbances such as grazing [40,98].
Yellow paloverde up to 3 inches (7.6 cm) tall may be seriously injured
or killed by jackrabbit browsing. Larger trees are browsed to the
extent that a jackrabbit can reach, about 3 feet (1 m) [96].
Yellow paloverde is an alternate host for seed-predating bruchid
beetles (Mimosestes spp.). Yellow paloverde responses are probably
similar to those of the beetles' primary host, mesquite (Prosopis spp.),
with reduced yields of viable seeds [33].
Yellow paloverde and community associates typical of the Arizona upland
subdivision of the Sonoran Desert occur in very few places in
southeastern California. This is a community type with one of the
highest priorities in California for rare plant inventories [27].
Yellow paloverde provides canopy cover that reduces maximum soil surface
temperatures. This is important for the establishment of other desert
species [20,78]. Yellow paloverde is the primary nurse plant for
saguaro [14,30,43,55,84].
- 11. Carr, Merle E.; Mason, Charles T., Jr.; Bagby, Marvin O. 1986. Renewable resources from Arizona trees and shrubs. Forest Ecology and Management. 16: 155-167. [3053]
- 14. Ciesla, Bill. 1993. Cactus condo. American Forests. 99(5&6): 25-28, 58. [20995]
- 18. Felker, Peter; Cannell, G. H.; Clark, Peter R.; [and others]
- 20. Franco, A. C.; Nobel, P. S. 1989. Effect of nurse plants on the microhabit and growth of cacti. Journal of Ecology. 77: 870-886. [9766]
- 27. Holland, Robert F. 1986. Preliminary descriptions of the terrestrial natural communities of California. Sacramento, CA: California Department of Fish and Game. 156 p. [12756]
- 30. Hutto, Richard L.; McAuliffe, Joseph R.; Hogan, Lynee. 1986. Distributional associates of the saguaro (Carnegiea gigantea). Southwestern Naturalist. 31(4): 469-476. [1229]
- 33. Kingsolver, J. M.; Johnson, C. D.; Swier, S. R.; Teran, A. 1977. Prosopis fruits as a resource for invertebrates. In: Simpson, B. B., ed. Mesquite: Its biology in two desert ecosystems. US/IBP Synthesis 4. Stroudsburg, PA: Dowden, Hutchinson & Ross, Inc: 108-122. [5193]
- 40. Loope, Lloyd L.; Sanchez, Peter G.; Tarr, Peter W.; [and others]
- 43. MacMahon, James A. 1988. Warm deserts. In: Barbour, Michael G.; Billings, William Dwight, eds. North American terrestrial vegetation. Cambridge; New York: Cambridge University Press: 231-264. [19547]
- 55. Niering, W. A.; Whittaker, R. H.; Lowe, C. H. 1963. The saguaro: a population in relation to environment. Science. 142(3588): 15-23. [5093]
- 78. Shreve, Forrest. 1942. The desert vegetation of North America. Botanical Review. 8(4): 195-246. [5051]
- 84. Steenbergh, Warren F.; Lowe, Charles H. 1969. Critical factors during the first years of the saguaro (Cereus giganteus) at Saguaro National Monument, Arizona. Ecology. 50(5): 825-834. [19692]
- 96. Vorhies, Charles T.; Taylor, Walter P. 1933. The life histories and ecology of jack rabbits, Lepus alleni and Lepus californicus ssp., in relation to grazing in Arizona. Technical Bulletin No. 49. Tucson, AZ: University of Arizona, Agricultural Experiment Station. 117 p. [9933]
- 98. Whitfield, Charles J.; Anderson, Hugh L. 1938. Secondary succession in the desert plains grassland. Ecology. 19(2): 171-180. [5252]
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Relevance to Humans and Ecosystems
Benefits
Cover Value
Yellow paloverde that are taller than 6.6 feet (2 m) are used for
nesting [89]. Verdin and black-tailed gnatcatchers nest in yellow
paloverde [58]. Gambel's quail use them for roosts [23]. Yellow
paloverde snags are important wildlife habitat because snags occur
infrequently in the Sonoran Desert. In Arizona, nine bird species used
one yellow paloverde snag daily [32].
White-throated woodrats use yellow paloverde for shelter or nests [57].
- 23. Goodwin, John G., Jr.; Hungerford, C. Roger. 1977. Habitat use by native Gambel's and scaled quail and released masked bobwhite quail in southern Arizona. Res. Pap. RM-197. Fort Collins, CO: U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest and Range Experiment Station. 8 p. [14970]
- 57. Olsen, Ronald W. 1973. Shelter-site selection in the white-throated woodrat, Neotoma albigula. Journal of Mammalogy. 54: 594-610. [9886]
- 58. Parker, Kathleen C. 1986. Partitioning of foraging space and nest sites in a desert shrubland bird community. American Midland Naturalist. 115(2): 255-267. [19258]
- 89. Tomoff, Carl S. 1974. Avian species diversity in desert scrub. Ecology. 55: 396-403. [19307]
- 32. Kennedy, Charles E. 1983. A palo verde snag in the Sonora Desert. In: Davis, Jerry W.; Goodwin, Gregory A.; Ockenfeis, Richard A., technical coordinators. Snag Habitat management: proceedings of the symposium; 1983 June 7-9; Flagstaff, AZ. Gen. Tech. Rep. RM-99. Fort Collins, CO: U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest and Range Experiment Station: 165-166. [17832]
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Other uses and values
Native Americans [37,66].
Yellow paloverde is planted as an ornamental [37].
- 37. Little, Elbert L., Jr. 1950. Southwestern trees: A guide to the native species of New Mexico and Arizona. Agriculture Handbook No. 9. Washington, DC: U.S. Department of Agriculture, Forest Service. 109 p. [20330]
- 66. Rea, Amadeo M. 1991. Gila River Pima dietary reconstruction. Arid Lands Newsletter. 31: 3-10. [18255]
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Value for rehabilitation of disturbed sites
in Arizona. Yellow paloverde survived significantly (P less than 0.05) better on
the east slope (27 plants/244 sq m) than on the north slope (1 plant/244
sq m) [56].
- 56. Norem, M. A.; Day, A. D.; Ludeke, K. L. 1982. An evaluation of shrub and tree species used for revegetating copper mine wastes in the south-western United States. Journal of Arid Environments. 5: 99-304. [1776]
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Importance to Livestock and Wildlife
Bighorn sheep, mule deer, and feral burros browse yellow paloverde
[25,34,63,75,76]. It is important browse for jackrabbits, heteromyid
rodents, and other small mammals [16,25,67,96]. Collared peccary
consume yellow paloverde fruits from July to September [15]. Yellow
paloverde was used significantly (P less than 0.01) more than other plant species
for foraging by birds [58].
Small mammals such as desert shrews and mice use the habitats where
yellow paloverde occurs [86].
- 3. Benson, Lyman; Darrow, Robert A. 1981. The trees and shrubs of the Southwestern deserts. Tucson, AZ: The University of Arizona Press. [18066]
- 15. Eddy, Thomas A. 1961. Foods and feeding patterns of the collared peccary in southern Arizona. Journal of Wildlife Management. 25: 248-257. [9888]
- 16. Elias, Thomas S. 1980. The complete trees of North America: field guide and natural history. New York: Times Mirror Magazines, Inc. 948 p. [21987]
- 25. Hanley, Thomas A.; Brady, Ward W. 1977. Feral burro impact on a Sonoran Desert range. Journal of Range Management. 30(5): 374-377. [4337]
- 28. Humphrey, R. R. 1950. Arizona range resources. II. Yavapai County. Bull. 229. Tucson, AZ: University of Arizona, Agricultural Experiment Station. 55 p. [5088]
- 34. Krausman, Paul R.; Ordway, Leonard L.; Whiting, Frank M.; Brown, William H. 1990. Nutritional compostition of desert mule deer forage in the Picacho Mountains, Arizona. Desert Plants. 10(1): 32-34. [7259]
- 58. Parker, Kathleen C. 1986. Partitioning of foraging space and nest sites in a desert shrubland bird community. American Midland Naturalist. 115(2): 255-267. [19258]
- 63. Rautenstrauch, Kurt R.; Krausman, Paul R.; Whiting, Frank M.; Brown, William H. 1988. Nutritional quality of desert mule deer forage in King Valley, Arizona. Desert Plants. 8(4): 172-174. [2768]
- 67. Reichman, O. J. 1975. Relation of desert rodent diets to available resources. Journal of Mammalogy. 56(4): 731-751. [4572]
- 75. Scarbrough, David L.; Krausman, Paul R. 1988. Sexual segregation by desert mule deer. Southwestern Naturalist. 33(2): 157-165. [5250]
- 76. Seegmiller, Rick F.; Krausman, Paul R.; Brown, William H.; Whiting, Frank M. 1990. Nutritional composition of desert bighorn sheep forage in the Harquahala Mountains, Arizona. Desert Plants. 10(2): 87-90. [11943]
- 87. Thornber, J. J. 1910. The grazing ranges of Arizona. Bull. No. 65. Tucson, AZ: University of Arizona, Agricultural Experiment Station. 360 p. [4555]
- 96. Vorhies, Charles T.; Taylor, Walter P. 1933. The life histories and ecology of jack rabbits, Lepus alleni and Lepus californicus ssp., in relation to grazing in Arizona. Technical Bulletin No. 49. Tucson, AZ: University of Arizona, Agricultural Experiment Station. 117 p. [9933]
- 86. Szaro, Robert C.; Belfit, Scott C. 1987. Small mammal use of a desert riparian island and its adjacent scrub habitat. Res. Note RM-473. Fort Collins, CO: U.S. Department of Agriculture, Forest Service, Rocky Mountain Forest and Range Experiment Station. 5 p. [3843]
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Nutritional Value
leaves, flowers, and new growth had from 30 to 60 percent dry matter and
from 6 to 16 percent crude protein [34,63,76]. Yellow paloverde has
large seeds that weigh an average of 0.005 ounce (0.147 g) and contain
733.3 calories per seed [68].
- 34. Krausman, Paul R.; Ordway, Leonard L.; Whiting, Frank M.; Brown, William H. 1990. Nutritional compostition of desert mule deer forage in the Picacho Mountains, Arizona. Desert Plants. 10(1): 32-34. [7259]
- 63. Rautenstrauch, Kurt R.; Krausman, Paul R.; Whiting, Frank M.; Brown, William H. 1988. Nutritional quality of desert mule deer forage in King Valley, Arizona. Desert Plants. 8(4): 172-174. [2768]
- 68. Reichman, O. J. 1976. Relationships between dimensions, weights, volumes, and calories of some Sonoran Desert seeds. Southwestern Naturalist. 20(4): 573-574. [12326]
- 76. Seegmiller, Rick F.; Krausman, Paul R.; Brown, William H.; Whiting, Frank M. 1990. Nutritional composition of desert bighorn sheep forage in the Harquahala Mountains, Arizona. Desert Plants. 10(2): 87-90. [11943]
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Wood Products Value
- 37. Little, Elbert L., Jr. 1950. Southwestern trees: A guide to the native species of New Mexico and Arizona. Agriculture Handbook No. 9. Washington, DC: U.S. Department of Agriculture, Forest Service. 109 p. [20330]
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Wikipedia
Parkinsonia microphylla
| This article includes a list of references, related reading or external links, but its sources remain unclear because it lacks inline citations. (March 2013) |
Parkinsonia microphylla, the Yellow Palo Verde or Foothill Palo Verde; syn. Cercidium microphyllum), is a species of palo verde.
It is native to the Southwestern United States in southeastern California and southern Arizona; and to Northwest Mexico in Sinaloa, Sonora, and Baja California. The plant is mostly found on slopes, and is one of the most common trees of the Sonoran Desert.
Contents |
Description
Parkinsonia microphylla is a bristling, upright-branching tree. The species is slow-growing, sometimes living for several hundred years. It typically grows to heights of around 5 metres (16 ft), although rarely it can reach 6–7 metres (20–23 ft) tall.
The leaves are yellowish green, and during extensively dry and hot periods the tree will shed them. It has the characteristic of performing photosynthesis in its bark (hence the green color), and this is what allows it to survive leafless in hotter periods.
The flowers are found on the end of a branch, small, pale yellow and occur in late spring. The tree may not flower every year, depending on the amount rainfall. If there is enough rainfall, seeds will also appear in 4–8 cm long, soft pods which dip in between each seed. They ripen in July, and stick to the branches. Rodents will often carry and store the seeds underground, where some of them will germinate after a rainy season.
The seedlings are very sensitive to drought for the first two to three months of their lives, and only about 1.6% will survive after germinating.
- Threats
Buffelgrass is an exotic species of grass native to Africa, first introduced into the Sonoran Desert for livestock grazing, which spreads very quickly and can often kill seedlings by using available water, which could be a threat in the future.
Uses
The Seri people, a Native American group of northwestern Mexico, call this tree ziipxöl [ ʃiːpχʷɬ ]. They used to grind up the seeds for flour, boil the green pods with meat, and eat the sweet green seeds as well as the flowers. They also strung the seeds for necklaces.
Cultivation
Parkinsonia microphylla is cultivated as an ornamental tree for use in drought tolerant, modernist, and native plant gardens. It is also used as a small tree in parking lot plantings of commercial developments.
References
- Germplasm Resources Information Network: Parkinsonia microphylla
- Felger, Richard; Mary B. Moser. (1985). People of the desert and sea: ethnobotany of the Seri Indians. Tucson: University of Arizona Press.
| Wikimedia Commons has media related to: Parkinsonia microphylla |
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