Maize responds to low shoot P concentration by altering root morphology rather than increasing root exudation

Background and aims Alterations in root growth and rhizosphere processes in maize (Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of root morphological and physiological modifications with increasing shoot P concentration remain unclear. This study investigated root responses t...

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Published inPlant and soil Vol. 416; no. 1/2; pp. 377 - 389
Main Authors Wen, Zhihui, Li, Haigang, Shen, Jianbo, Rengel, Zed
Format Journal Article
LanguageEnglish
Published Cham Springer 01.07.2017
Springer International Publishing
Springer Nature B.V
Subjects
Acid phosphatase
Acidification
Biomass
Biomedical and Life Sciences
Concentration gradient
Corn
Ecology
Environmental aspects
enzyme activity
Exudation
fine roots
Life Sciences
Morphology
Phosphorus
Phosphorus (Nutrient)
Physiological aspects
physiological response
Physiological responses
Physiology
Plant development
Plant growth
Plant Physiology
Plant Sciences
Plant-soil relationships
Planting
Regular Article
Rhizosphere
root growth
Roots (Botany)
soil
Soil Science & Conservation
Zea mays
Rhizosphere processes
Phosphorus deficiency
Root exudation
Root growth
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Abstract Background and aims Alterations in root growth and rhizosphere processes in maize (Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of root morphological and physiological modifications with increasing shoot P concentration remain unclear. This study investigated root responses to a wide gradient in shoot P status. Methods A range of maize shoot P concentrations (1.0–4.0 mg g−1) was established using controlled pot experiment with eleven rates of P supply from 0 to 1200 mg P kg−1 soil. Root morphology and rhizosphere processes were characterized 28 days after planting. Results Maize reached maximum biomass at shoot P concentration of 2.7 mg g−1. Root morphological responses (i.e. total root length, specific root length and proportion of fine roots) showed a strong increasing trend with decreasing shoot P concentration (1.1–1.3 mg g−1), but they decreased when shoot P concentration was extremely low (below 1.1 mg g−1). In contrast, with increasing shoot P concentration, root morphological responses decreased, but root physiological responses (rhizosphere acidification, acid phosphatase activity and carboxylate exudation in the rhizosphere) were enhanced, and no decrease was noted even at high shoot P concentration (4.0 mg g−1) corresponding to excess P supply. Conclusions Increasing maize shoot P concentration induced a decrease in root morphological responses and an enhancement in root exudation, with maize response to P deficiency being dependent on root morphological rather than physiological traits.
AbstractList Alterations in root growth and rhizosphere processes in maize (Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of root morphological and physiological modifications with increasing shoot P concentration remain unclear. This study investigated root responses to a wide gradient in shoot P status. A range of maize shoot P concentrations (1.0-4.0 mg g.sup.-1) was established using controlled pot experiment with eleven rates of P supply from 0 to 1200 mg P kg.sup.-1 soil. Root morphology and rhizosphere processes were characterized 28 days after planting. Maize reached maximum biomass at shoot P concentration of 2.7 mg g.sup.-1. Root morphological responses (i.e. total root length, specific root length and proportion of fine roots) showed a strong increasing trend with decreasing shoot P concentration (1.1-1.3 mg g.sup.-1), but they decreased when shoot P concentration was extremely low (below 1.1 mg g.sup.-1). In contrast, with increasing shoot P concentration, root morphological responses decreased, but root physiological responses (rhizosphere acidification, acid phosphatase activity and carboxylate exudation in the rhizosphere) were enhanced, and no decrease was noted even at high shoot P concentration (4.0 mg g.sup.-1) corresponding to excess P supply. Increasing maize shoot P concentration induced a decrease in root morphological responses and an enhancement in root exudation, with maize response to P deficiency being dependent on root morphological rather than physiological traits.
Background and aims Alterations in root growth and rhizosphere processes in maize (Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of root morphological and physiological modifications with increasing shoot P concentration remain unclear. This study investigated root responses to a wide gradient in shoot P status. Methods A range of maize shoot P concentrations (1.0-4.0 mg g-1) was established using controlled pot experiment with eleven rates of P supply from 0 to 1200 mg P kg-1 soil. Root morphology and rhizosphere processes were characterized 28 days after planting. Results Maize reached maximum biomass at shoot P concentration of 2.7 mg g-1. Root morphological responses (i.e. total root length, specific root length and proportion of fine roots) showed a strong increasing trend with decreasing shoot P concentration (1.1-1.3 mg g-1), but they decreased when shoot P concentration was extremely low (below 1.1 mg g-1). In contrast, with increasing shoot P concentration, root morphological responses decreased, but root physiological responses (rhizosphere acidification, acid phosphatase activity and carboxylate exudation in the rhizosphere) were enhanced, and no decrease was noted even at high shoot P concentration (4.0 mg g-1) corresponding to excess P supply. Conclusions Increasing maize shoot P concentration induced a decrease in root morphological responses and an enhancement in root exudation, with maize response to P deficiency being dependent on root morphological rather than physiological traits.
Background and aims Alterations in root growth and rhizosphere processes in maize (Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of root morphological and physiological modifications with increasing shoot P concentration remain unclear. This study investigated root responses to a wide gradient in shoot P status. Methods A range of maize shoot P concentrations (1.0-4.0 mg g.sup.-1) was established using controlled pot experiment with eleven rates of P supply from 0 to 1200 mg P kg.sup.-1 soil. Root morphology and rhizosphere processes were characterized 28 days after planting. Results Maize reached maximum biomass at shoot P concentration of 2.7 mg g.sup.-1. Root morphological responses (i.e. total root length, specific root length and proportion of fine roots) showed a strong increasing trend with decreasing shoot P concentration (1.1-1.3 mg g.sup.-1), but they decreased when shoot P concentration was extremely low (below 1.1 mg g.sup.-1). In contrast, with increasing shoot P concentration, root morphological responses decreased, but root physiological responses (rhizosphere acidification, acid phosphatase activity and carboxylate exudation in the rhizosphere) were enhanced, and no decrease was noted even at high shoot P concentration (4.0 mg g.sup.-1) corresponding to excess P supply. Conclusions Increasing maize shoot P concentration induced a decrease in root morphological responses and an enhancement in root exudation, with maize response to P deficiency being dependent on root morphological rather than physiological traits.
Background and aims Alterations in root growth and rhizosphere processes in maize (Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of root morphological and physiological modifications with increasing shoot P concentration remain unclear. This study investigated root responses to a wide gradient in shoot P status. Methods A range of maize shoot P concentrations (1.0–4.0 mg g−1) was established using controlled pot experiment with eleven rates of P supply from 0 to 1200 mg P kg−1 soil. Root morphology and rhizosphere processes were characterized 28 days after planting. Results Maize reached maximum biomass at shoot P concentration of 2.7 mg g−1. Root morphological responses (i.e. total root length, specific root length and proportion of fine roots) showed a strong increasing trend with decreasing shoot P concentration (1.1–1.3 mg g−1), but they decreased when shoot P concentration was extremely low (below 1.1 mg g−1). In contrast, with increasing shoot P concentration, root morphological responses decreased, but root physiological responses (rhizosphere acidification, acid phosphatase activity and carboxylate exudation in the rhizosphere) were enhanced, and no decrease was noted even at high shoot P concentration (4.0 mg g−1) corresponding to excess P supply. Conclusions Increasing maize shoot P concentration induced a decrease in root morphological responses and an enhancement in root exudation, with maize response to P deficiency being dependent on root morphological rather than physiological traits.
BACKGROUND AND AIMS: Alterations in root growth and rhizosphere processes in maize (Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of root morphological and physiological modifications with increasing shoot P concentration remain unclear. This study investigated root responses to a wide gradient in shoot P status. METHODS: A range of maize shoot P concentrations (1.0–4.0 mg g⁻¹) was established using controlled pot experiment with eleven rates of P supply from 0 to 1200 mg P kg⁻¹ soil. Root morphology and rhizosphere processes were characterized 28 days after planting. RESULTS: Maize reached maximum biomass at shoot P concentration of 2.7 mg g⁻¹. Root morphological responses (i.e. total root length, specific root length and proportion of fine roots) showed a strong increasing trend with decreasing shoot P concentration (1.1–1.3 mg g⁻¹), but they decreased when shoot P concentration was extremely low (below 1.1 mg g⁻¹). In contrast, with increasing shoot P concentration, root morphological responses decreased, but root physiological responses (rhizosphere acidification, acid phosphatase activity and carboxylate exudation in the rhizosphere) were enhanced, and no decrease was noted even at high shoot P concentration (4.0 mg g⁻¹) corresponding to excess P supply. CONCLUSIONS: Increasing maize shoot P concentration induced a decrease in root morphological responses and an enhancement in root exudation, with maize response to P deficiency being dependent on root morphological rather than physiological traits.
Background and aims Alterations in root growth and rhizosphere processes in maize ( Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of root morphological and physiological modifications with increasing shoot P concentration remain unclear. This study investigated root responses to a wide gradient in shoot P status. Methods A range of maize shoot P concentrations (1.0–4.0 mg g −1 ) was established using controlled pot experiment with eleven rates of P supply from 0 to 1200 mg P kg −1 soil. Root morphology and rhizosphere processes were characterized 28 days after planting. Results Maize reached maximum biomass at shoot P concentration of 2.7 mg g −1 . Root morphological responses (i.e. total root length, specific root length and proportion of fine roots) showed a strong increasing trend with decreasing shoot P concentration (1.1–1.3 mg g −1 ), but they decreased when shoot P concentration was extremely low (below 1.1 mg g −1 ). In contrast, with increasing shoot P concentration, root morphological responses decreased, but root physiological responses (rhizosphere acidification, acid phosphatase activity and carboxylate exudation in the rhizosphere) were enhanced, and no decrease was noted even at high shoot P concentration (4.0 mg g −1 ) corresponding to excess P supply. Conclusions Increasing maize shoot P concentration induced a decrease in root morphological responses and an enhancement in root exudation, with maize response to P deficiency being dependent on root morphological rather than physiological traits.
Audience Academic
Author Wen, Zhihui
Li, Haigang
Shen, Jianbo
Rengel, Zed
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  fullname: Shen, Jianbo
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  givenname: Zed
  surname: Rengel
  fullname: Rengel, Zed
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Springer International Publishing Switzerland 2017
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IEDL.DBID BENPR
ISSN 0032-079X
IngestDate Fri Jul 11 00:38:32 EDT 2025
Fri Jul 25 19:10:33 EDT 2025
Tue Jun 17 21:01:50 EDT 2025
Tue Jun 10 20:49:50 EDT 2025
Tue Jul 01 00:58:59 EDT 2025
Thu Apr 24 22:58:17 EDT 2025
Fri Feb 21 02:33:30 EST 2025
Sun Aug 24 12:10:46 EDT 2025
IsPeerReviewed true
IsScholarly true
Issue 1/2
Keywords Rhizosphere processes
Phosphorus deficiency
Root exudation
Root growth
Language English
LinkModel DirectLink
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PublicationDate 2017-07-01
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  year: 2017
  text: 2017-07-01
  day: 01
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PublicationSubtitle An International Journal on Plant-Soil Relationships
PublicationTitle Plant and soil
PublicationTitleAbbrev Plant Soil
PublicationYear 2017
Publisher Springer
Springer International Publishing
Springer Nature B.V
Publisher_xml – name: Springer
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Snippet Background and aims Alterations in root growth and rhizosphere processes in maize (Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of root...
Background and aims Alterations in root growth and rhizosphere processes in maize ( Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of...
Alterations in root growth and rhizosphere processes in maize (Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of root morphological and...
BACKGROUND AND AIMS: Alterations in root growth and rhizosphere processes in maize (Zea mays L.) occur under phosphorus (P) deficiency, but the dynamics of...
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SubjectTerms Acid phosphatase
Acidification
Biomass
Biomedical and Life Sciences
Concentration gradient
Corn
Ecology
Environmental aspects
enzyme activity
Exudation
fine roots
Life Sciences
Morphology
Phosphorus
Phosphorus (Nutrient)
Physiological aspects
physiological response
Physiological responses
Physiology
Plant development
Plant growth
Plant Physiology
Plant Sciences
Plant-soil relationships
Planting
Regular Article
Rhizosphere
root growth
Roots (Botany)
soil
Soil Science & Conservation
Zea mays
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  providerName: Springer Nature
Title Maize responds to low shoot P concentration by altering root morphology rather than increasing root exudation
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