Boden
- Eisen-III- Acrisols: 25%
- Eisen-III- Acrisols: 25%
- Plinthic Acrisols: 30%
- Dystric Gleysole: 10%
- Gleyic Acrisols: 10%
- Techniken
Der Zufall, die Möglichkeit | Tiefe | Entwässerung | Texture Reaktions - pH-Wert | Organic Carbon Leitfähigkeit - Elektrisch | Untergrund Kationenaustausch | Ton Kationenaustausch | Kalziumkarbonat - Kalk | Gypsum Sodium - Austauschbar |
---|---|---|---|---|---|---|---|---|
Mutterboden | 4 | 6.2 | 0.61 | 4 | 28 | 0 | 0 | |
Untergrund | 4 | 6.2 | 0.3 | 5 | 16 | 0 | 0 |
Boden Triangle - Eisen-III- Acrisols
Definition - Eisen-III- Acrisols
- Acrisols son solos que teñen un alto contido de arxila no subsolo que na capa superficial, como un resultado de procesos pedogenéticos (especialmente a migración de arxila) que conducen a un horizonte subsolo argic. Férrico indica un horizonte subsuperficial en que a segregación de ferro tivo lugar na medida en que mosqueados grandes ou concreções ter formado nunha matriz que está en gran parte depletados de ferro. Acrisols teñen en determinadas profundidades a saturación por bases baixa e baixa actividade arxilas. Acrisols Moitos se correlacionam con Red Yellow Podzólicos (Indonesia, por exemplo) e Argissolos (Brasil), sols ferralitiques fortement OU moyennement désaturés (Francia), Terra Vermella e Amarela, e Argissolos con arxilas de baixa actividade (Estados Unidos). Acrisols atópanse principalmente en superficies de terra antigas con topografía montañosa ou ondulada, en rexións con clima tropical / monzóns, subtropical ou templado quente e húmido. Bosque é o tipo de vexetación natural. Acrisols se atopan tropical húmido, subtropical húmido e quente rexións temperadas e son máis extensa no sueste de Asia, as franxas do sur da Conca Amazónica, o sueste de Estados Unidos de América, e tanto en Oriente e África Occidental. Hai preto de 1.000 millóns de hectáreas de Acrisols todo o mundo. A fertilidade acrisols baixa e cantidades tóxicas de aluminio presentan limitacións ao seu uso agrícola favorecendo en moitos lugares, a súa utilización para silvicultura, pasto de baixa intensidade e áreas protexidas. Culturas que poden ser cultivadas con éxito, se o clima permite, incluíndo té, seringueira, dendê, café e cana de azucre
Beschreibung - Sandiger Lehm
- Sandigen Lehmboden ist eine der am meisten bevorzugten Arten von Böden für viele Arten von Pflanzen. Pflanzung im Lehmboden mit einem hohen Anteil an Sand ist die gleiche wie die Bepflanzung von normalen Lehmboden, aber zusätzliche Änderungen sind möglich, um für etwas niedriger Wasserretention Preise zu kompensieren. sandiger Lehm Abflüssen gut hält aber wenig Nährstoffe und ist nicht stichhaltig. Tomaten wie sandigem Lehmboden, besonders wenn es warm ist. tomatilloes wird auf die gleiche Bodenart wie Tomaten gedeihen. Salat am besten in gut -durchlässiger ausgewogene Lehm aber tun in einem sandigen Lehm, die wirklich gut entwässert in Ordnung. Paprika, von süß bis feurig Glocke Arten Habaneros und Jalapenos, in sandigen oder schlammigen Lehmboden, die leicht entwässert gedeihen. Gerste gedeiht am besten auch mit guter Drainage, aber es wächst gut in Lehm oder sandiger Lehm. und Hafer brauchen einen sehr feinen sandigen Lehm, sondern wird in Ton wachsen, wenn es gut entwässert. Mais verarbeiten kann auf sandigen Lehm, sondern liefert nur eine reichliche Ernte, wenn der Boden gut gedüngt
Metrik/Diskussion
Thema | Wert | Einzelheiten |
---|---|---|
Entwässerung | 4 | Der Hintergrund
Definition
|
Boden Referenztiefe | 100 mm | HerausforderungenDefinition
|
Basensättigung | 72% - Prozent | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Calciumcarbonat CaCO3 - Kalk | 0% Gewicht | Der HintergrundDefinition
|
Organischem Kohlenstoff | 0.61% Gewicht | HerausforderungenTipps
Der Hintergrund
Definition
|
Die Kationenaustauschkapazität - Ton | 28 cmol/kg | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Die Kationenaustauschkapazität - Boden | 4 cmol/kg | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Ton - Prozent - Gewicht | 10% Gewicht | Herausforderungen
Tipps
Der HintergrundDefinition
|
Kies - Prozent - Volumen | 4% Gewicht | HerausforderungenTippsDefinition
|
Sand - Prozent - Gewicht | 78% Gewicht | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Schlick - Prozent - Gewicht | 12% Gewicht | Herausforderungen
TippsDer Hintergrund
Definition
|
Elektrische Leitfähigkeit | 0.1 dS/m | HerausforderungenTippsDer Hintergrund
Definition
|
Gipsgehalt CaSO4 | 0% Volumen | Tipps
Der Hintergrund
Definition
|
Soil reaction - pH-Wert | 6.2 -log H+ | HerausforderungenTipps
Der Hintergrund
Definition
|
Austauschbarem Natrium | 3% - Prozent | Herausforderungen
Definition
|
Referenz Schüttdichte | 1.52 kg/dm3 | Tipps
Der Hintergrund
Definition
|
Stickstoff (N) | HerausforderungenTipps
Der Hintergrund
| |
Phosphor (P) | Herausforderungen
TippsDer Hintergrund
| |
Kalium (K) | Tipps
Der Hintergrund
|
Der Zufall, die Möglichkeit | Tiefe | Entwässerung | Texture Reaktions - pH-Wert | Organic Carbon Leitfähigkeit - Elektrisch | Untergrund Kationenaustausch | Ton Kationenaustausch | Kalziumkarbonat - Kalk | Gypsum Sodium - Austauschbar |
---|---|---|---|---|---|---|---|---|
Mutterboden | 4 | 5.1 | 0.98 | 6 | 14 | 0 | 0 | |
Untergrund | 4 | 5.1 | 0.39 | 6 | 12 | 0 | 0 |
Boden Triangle - Eisen-III- Acrisols
Definition - Eisen-III- Acrisols
- Acrisols son solos que teñen un alto contido de arxila no subsolo que na capa superficial, como un resultado de procesos pedogenéticos (especialmente a migración de arxila) que conducen a un horizonte subsolo argic. Férrico indica un horizonte subsuperficial en que a segregación de ferro tivo lugar na medida en que mosqueados grandes ou concreções ter formado nunha matriz que está en gran parte depletados de ferro. Acrisols teñen en determinadas profundidades a saturación por bases baixa e baixa actividade arxilas. Acrisols Moitos se correlacionam con Red Yellow Podzólicos (Indonesia, por exemplo) e Argissolos (Brasil), sols ferralitiques fortement OU moyennement désaturés (Francia), Terra Vermella e Amarela, e Argissolos con arxilas de baixa actividade (Estados Unidos). Acrisols atópanse principalmente en superficies de terra antigas con topografía montañosa ou ondulada, en rexións con clima tropical / monzóns, subtropical ou templado quente e húmido. Bosque é o tipo de vexetación natural. Acrisols se atopan tropical húmido, subtropical húmido e quente rexións temperadas e son máis extensa no sueste de Asia, as franxas do sur da Conca Amazónica, o sueste de Estados Unidos de América, e tanto en Oriente e África Occidental. Hai preto de 1.000 millóns de hectáreas de Acrisols todo o mundo. A fertilidade acrisols baixa e cantidades tóxicas de aluminio presentan limitacións ao seu uso agrícola favorecendo en moitos lugares, a súa utilización para silvicultura, pasto de baixa intensidade e áreas protexidas. Culturas que poden ser cultivadas con éxito, se o clima permite, incluíndo té, seringueira, dendê, café e cana de azucre
Beschreibung - Sandiger Lehm
- Sandigem Lehm enthält 20 bis 35% Ton, weniger als 28% Schluff und 45% oder mehr Sand
Metrik/Diskussion
Thema | Wert | Einzelheiten |
---|---|---|
Entwässerung | 4 | Der Hintergrund
Definition
|
Boden Referenztiefe | 100 mm | HerausforderungenDefinition
|
Basensättigung | 49% - Prozent | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Calciumcarbonat CaCO3 - Kalk | 0% Gewicht | Der HintergrundDefinition
|
Organischem Kohlenstoff | 0.98% Gewicht | HerausforderungenTipps
Der Hintergrund
Definition
|
Die Kationenaustauschkapazität - Ton | 14 cmol/kg | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Die Kationenaustauschkapazität - Boden | 6 cmol/kg | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Ton - Prozent - Gewicht | 25% Gewicht | Herausforderungen
Tipps
Der HintergrundDefinition
|
Kies - Prozent - Volumen | 23% Gewicht | HerausforderungenTippsDefinition
|
Sand - Prozent - Gewicht | 53% Gewicht | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Schlick - Prozent - Gewicht | 22% Gewicht | Herausforderungen
TippsDer Hintergrund
Definition
|
Elektrische Leitfähigkeit | 0.1 dS/m | HerausforderungenTippsDer Hintergrund
Definition
|
Gipsgehalt CaSO4 | 0% Volumen | Tipps
Der Hintergrund
Definition
|
Soil reaction - pH-Wert | 5.1 -log H+ | HerausforderungenTipps
Der Hintergrund
Definition
|
Austauschbarem Natrium | 2% - Prozent | Herausforderungen
Definition
|
Referenz Schüttdichte | 1.4 kg/dm3 | Tipps
Der Hintergrund
Definition
|
Stickstoff (N) | HerausforderungenTipps
Der Hintergrund
| |
Phosphor (P) | Herausforderungen
TippsDer Hintergrund
| |
Kalium (K) | Tipps
Der Hintergrund
|
Der Zufall, die Möglichkeit | Tiefe | Entwässerung | Texture Reaktions - pH-Wert | Organic Carbon Leitfähigkeit - Elektrisch | Untergrund Kationenaustausch | Ton Kationenaustausch | Kalziumkarbonat - Kalk | Gypsum Sodium - Austauschbar |
---|---|---|---|---|---|---|---|---|
Mutterboden | 2 | 4.8 | 1.13 | 6 | 13 | 0 | 0 | |
Untergrund | 2 | 4.8 | 0.41 | 6 | 12 | 0 | 0 |
Boden Triangle - Plinthic Acrisols
Definition - Plinthic Acrisols
- Acrisols son solos que teñen un alto contido de arxila no subsolo que na capa superficial, como un resultado de procesos pedogenéticos (especialmente a migración de arxila) que conducen a un horizonte subsolo argic. Plíntico indica un horizonte subsuperficial consiste dunha rica en ferro, mestura de humus-pobre de arxila caulínica con constituíntes de cuarzo e outras, e que cambia de forma irreversible a un hardpan ou agregados irregulares sobre a exposición repetida ao humectación e secado con acceso libre de osíxeno. Acrisols teñen en determinadas profundidades a saturación por bases baixa e baixa actividade arxilas. Acrisols Moitos se correlacionam con Red Yellow Podzólicos (Indonesia, por exemplo) e Argissolos (Brasil), sols ferralitiques fortement OU moyennement désaturés (Francia), Terra Vermella e Amarela, e Argissolos con arxilas de baixa actividade (Estados Unidos). Acrisols atópanse principalmente en superficies de terra antigas con topografía montañosa ou ondulada, en rexións con clima tropical / monzóns, subtropical ou templado quente e húmido. Bosque é o tipo de vexetación natural. Acrisols se atopan tropical húmido, subtropical húmido e quente rexións temperadas e son máis extensa no sueste de Asia, as franxas do sur da Conca Amazónica, o sueste de Estados Unidos de América, e tanto en Oriente e África Occidental. Hai preto de 1.000 millóns de hectáreas de Acrisols todo o mundo. A fertilidade acrisols baixa e cantidades tóxicas de aluminio presentan limitacións ao seu uso agrícola favorecendo en moitos lugares, a súa utilización para silvicultura, pasto de baixa intensidade e áreas protexidas. Culturas que poden ser cultivadas con éxito, se o clima permite, incluíndo té, seringueira, dendê, café e cana de azucre...
Beschreibung - Lehm
- Loams son os máis útiles "All Around" dos solos; eles combinan a lixeireza ea rapidez das areas, coa forza ea retentividade das arxilas. Loams conter de 40 a 60 por cento, de area, e 15 a 25 por cento, de arxila. Eles "traballan a" facilidade, non codia ou crack, están ben abastecidos con alimentos vexetais, e, o que é importante, sobre todo, a auga móvese libremente a través deles e eles aínda non son leachy. Practicamente todas as culturas agrícolas medrar satisfactoriamente nun barro. É especialmente adecuado para patacas, millo, mercado de xardinería, plantas, froitos e pequenos, pero gramíneas, cereais, trébol, alfafa e algodón, atopalo agradable. Non require ningún tratamento especial, excepto esa atención ao preparo bo, saneamento, ea adición de humus como unha parte necesaria de prácticas agrícolas en todas as partes. Non importa se pemento son cultivadas en climas templados, tropical ou subtropical, mentres que eles teñen unha estación relativamente seca, polo tanto, un bo barro que drena ben axuda a compensar un clima máis húmido. A maioría das árbores de froita viven máis e producen mellor cando crecen en barro equilibrado. Árbores cítricas como boa drenaxe, pero teñen que ser mantida húmida. O barro é unha boa opción para citros
Metrik/Diskussion
Thema | Wert | Einzelheiten |
---|---|---|
Entwässerung | 2 | Tipps
Der Hintergrund
Definition
|
Boden Referenztiefe | 100 mm | HerausforderungenDefinition
|
Basensättigung | 54% - Prozent | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Calciumcarbonat CaCO3 - Kalk | 0% Gewicht | Der HintergrundDefinition
|
Organischem Kohlenstoff | 1.13% Gewicht | HerausforderungenTipps
Der Hintergrund
Definition
|
Die Kationenaustauschkapazität - Ton | 13 cmol/kg | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Die Kationenaustauschkapazität - Boden | 6 cmol/kg | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Ton - Prozent - Gewicht | 23% Gewicht | Herausforderungen
Tipps
Der HintergrundDefinition
|
Kies - Prozent - Volumen | 35% Gewicht | HerausforderungenTipps
Definition
|
Sand - Prozent - Gewicht | 47% Gewicht | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Schlick - Prozent - Gewicht | 30% Gewicht | Herausforderungen
TippsDer Hintergrund
Definition
|
Elektrische Leitfähigkeit | 0.1 dS/m | HerausforderungenTippsDer Hintergrund
Definition
|
Gipsgehalt CaSO4 | 0% Volumen | Tipps
Der Hintergrund
Definition
|
Soil reaction - pH-Wert | 4.8 -log H+ | HerausforderungenTipps
Der Hintergrund
Definition
|
Austauschbarem Natrium | 2% - Prozent | Herausforderungen
Definition
|
Referenz Schüttdichte | 1.44 kg/dm3 | Tipps
Der Hintergrund
Definition
|
Stickstoff (N) | HerausforderungenTipps
Der Hintergrund
| |
Phosphor (P) | Herausforderungen
TippsDer Hintergrund
| |
Kalium (K) | Tipps
Der Hintergrund
|
Der Zufall, die Möglichkeit | Tiefe | Entwässerung | Texture Reaktions - pH-Wert | Organic Carbon Leitfähigkeit - Elektrisch | Untergrund Kationenaustausch | Ton Kationenaustausch | Kalziumkarbonat - Kalk | Gypsum Sodium - Austauschbar |
---|---|---|---|---|---|---|---|---|
Mutterboden | 2 | 5.1 | 1.25 | 11 | 24 | 0 | 0 | |
Untergrund | 2 | 5.1 | 0.4 | 10 | 31 | 0 | 0 |
Boden Triangle - Dystric Gleysole
Definition - Dystric Gleysole
- Un Gleissolo na base de datos de referencia da FAO Mundial de recursos do solo é un solo de várzea que, a non ser drenado, está saturado de auga subterránea durante longos períodos suficientes para desenvolver un estándar de cor característica gleyic. Este estándar é esencialmente composto de cores avermellada, marrón ou amarelada na superficie de partículas do solo (PEDS) e / ou nos horizontes superiores do solo mesturado con gris / cor azulados dentro dos peds e / ou máis profundas no chan. Tb distrófico indica ter unha saturación de base (por 1 M NH4OAc) de menos de 50 por cento na maior parte entre 20 e 100 cm a partir da superficie do chan ou entre 20 cm e de rocha continua ou unha capa de cimentada ou endurecido. Gleissolos son tamén coñecidos como Gleyzems e solos de várzea (Rusia), AQU de subordens de Neossolos Litólicos, Cambissolos e Mollisols (USDA taxonomía do solo), ou como solos e augas subterráneas hidro-mórficos solos. Gleissolos ocorren en gran variedade de materiais inconsolidados, sedimentos, principalmente fluviais, marítimas e lacustres de idade Pleistoceno ou Holoceno, en base a mineralogia ácida. Son atopados en áreas de depresión e posicións da paisaxe baixo as augas subterráneas planas. Gleissolos ocupan preto de 720 millóns de hectáreas en todo o mundo. Son solos azonais e ocorren en case todos os climas. A maior extensión de Gleissolos é no norte de Rusia, Siberia, Canadá, Alaska, China e Bangladesh. Estímase que 200 millóns de hectáreas de Gleissolos atópanse nos trópicos, sobre todo na rexión amazónica, África ecuatorial e os pantanos costeiros do sueste de Asia. Humidade é a principal limitación dos Gleissolos virxes, as cales son cubertas con vexetación do pantano natural e quedan ociosas ou son utilizadas para pastoreo extensivo. Gleissolos artificialmente drenados se usan para o cultivo de arvenses, gandería leiteira e horticultura. Gleissolos nas rexións tropicais e subtropicais son amplamente plantada de arroz...
Beschreibung - Lehm
- Loams son os máis útiles "All Around" dos solos; eles combinan a lixeireza ea rapidez das areas, coa forza ea retentividade das arxilas. Loams conter de 40 a 60 por cento, de area, e 15 a 25 por cento, de arxila. Eles "traballan a" facilidade, non codia ou crack, están ben abastecidos con alimentos vexetais, e, o que é importante, sobre todo, a auga móvese libremente a través deles e eles aínda non son leachy. Practicamente todas as culturas agrícolas medrar satisfactoriamente nun barro. É especialmente adecuado para patacas, millo, mercado de xardinería, plantas, froitos e pequenos, pero gramíneas, cereais, trébol, alfafa e algodón, atopalo agradable. Non require ningún tratamento especial, excepto esa atención ao preparo bo, saneamento, ea adición de humus como unha parte necesaria de prácticas agrícolas en todas as partes. Non importa se pemento son cultivadas en climas templados, tropical ou subtropical, mentres que eles teñen unha estación relativamente seca, polo tanto, un bo barro que drena ben axuda a compensar un clima máis húmido. A maioría das árbores de froita viven máis e producen mellor cando crecen en barro equilibrado. Árbores cítricas como boa drenaxe, pero teñen que ser mantida húmida. O barro é unha boa opción para citros
Metrik/Diskussion
Thema | Wert | Einzelheiten |
---|---|---|
Entwässerung | 2 | Tipps
Der Hintergrund
Definition
|
Boden Referenztiefe | 100 mm | HerausforderungenDefinition
|
Basensättigung | 47% - Prozent | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Calciumcarbonat CaCO3 - Kalk | 0% Gewicht | Der HintergrundDefinition
|
Organischem Kohlenstoff | 1.25% Gewicht | Tipps
Der Hintergrund
Definition
|
Die Kationenaustauschkapazität - Ton | 24 cmol/kg | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Die Kationenaustauschkapazität - Boden | 11 cmol/kg | Herausforderungen
Tipps
Definition
|
Ton - Prozent - Gewicht | 21% Gewicht | Herausforderungen
Tipps
Der HintergrundDefinition
|
Kies - Prozent - Volumen | 2% Gewicht | HerausforderungenTippsDefinition
|
Sand - Prozent - Gewicht | 40% Gewicht | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Schlick - Prozent - Gewicht | 39% Gewicht | Herausforderungen
TippsDer Hintergrund
Definition
|
Elektrische Leitfähigkeit | 0.1 dS/m | HerausforderungenTippsDer Hintergrund
Definition
|
Gipsgehalt CaSO4 | 0% Volumen | Tipps
Der Hintergrund
Definition
|
Soil reaction - pH-Wert | 5.1 -log H+ | HerausforderungenTipps
Der Hintergrund
Definition
|
Austauschbarem Natrium | 1% - Prozent | Definition
|
Referenz Schüttdichte | 1.33 kg/dm3 | Tipps
Der Hintergrund
Definition
|
Stickstoff (N) | HerausforderungenTipps
Der Hintergrund
| |
Phosphor (P) | Herausforderungen
TippsDer Hintergrund
| |
Kalium (K) | Tipps
Der Hintergrund
|
Der Zufall, die Möglichkeit | Tiefe | Entwässerung | Texture Reaktions - pH-Wert | Organic Carbon Leitfähigkeit - Elektrisch | Untergrund Kationenaustausch | Ton Kationenaustausch | Kalziumkarbonat - Kalk | Gypsum Sodium - Austauschbar |
---|---|---|---|---|---|---|---|---|
Mutterboden | 2 | 4.9 | 0.83 | 7 | 18 | 0 | 0 | |
Untergrund | 2 | 4.9 | 0.3 | 12 | 22 | 0 | 0 |
Boden Triangle - Gleyic Acrisols
Definition - Gleyic Acrisols
- Gleyic refírese a ter unha capa dentro de 100 cm a partir da superficie do solo mineral que é polo menos 25 cm de espesor e que teña condicións de redución nalgunhas partes e un estándar de cor gleyic todo. Este estándar é esencialmente constituída de cores avermellada, marrón ou amarelada en superficies ped e / ou na capa superior do solo ou capas, en combinación con acinzentados / azulada cores dentro da peds e / ou máis profundo no chan. Acrisols son solos que teñen un alto contido de arxila no subsolo que na capa superficial, como un resultado de procesos pedogenéticos (especialmente a migración de arxila) que conducen a un horizonte subsolo argic. Acrisols teñen en determinadas profundidades a saturación por bases baixa e baixa actividade arxilas. Acrisols Moitos se correlacionam con Red Yellow Podzólicos (Indonesia, por exemplo) e Argissolos (Brasil), sols ferralitiques fortement OU moyennement désaturés (Francia), Terra Vermella e Amarela, e Argissolos con arxilas de baixa actividade (Estados Unidos). Acrisols atópanse principalmente en superficies de terra antigas con topografía montañosa ou ondulada, en rexións con clima tropical / monzóns, subtropical ou templado quente e húmido. Bosque é o tipo de vexetación natural. Acrisols se atopan tropical húmido, subtropical húmido e quente rexións temperadas e son máis extensa no sueste de Asia, as franxas do sur da Conca Amazónica, o sueste de Estados Unidos de América, e tanto en Oriente e África Occidental. Hai preto de 1.000 millóns de hectáreas de Acrisols todo o mundo
Beschreibung - Lehm
- Loams son os máis útiles "All Around" dos solos; eles combinan a lixeireza ea rapidez das areas, coa forza ea retentividade das arxilas. Loams conter de 40 a 60 por cento, de area, e 15 a 25 por cento, de arxila. Eles "traballan a" facilidade, non codia ou crack, están ben abastecidos con alimentos vexetais, e, o que é importante, sobre todo, a auga móvese libremente a través deles e eles aínda non son leachy. Practicamente todas as culturas agrícolas medrar satisfactoriamente nun barro. É especialmente adecuado para patacas, millo, mercado de xardinería, plantas, froitos e pequenos, pero gramíneas, cereais, trébol, alfafa e algodón, atopalo agradable. Non require ningún tratamento especial, excepto esa atención ao preparo bo, saneamento, ea adición de humus como unha parte necesaria de prácticas agrícolas en todas as partes. Non importa se pemento son cultivadas en climas templados, tropical ou subtropical, mentres que eles teñen unha estación relativamente seca, polo tanto, un bo barro que drena ben axuda a compensar un clima máis húmido. A maioría das árbores de froita viven máis e producen mellor cando crecen en barro equilibrado. Árbores cítricas como boa drenaxe, pero teñen que ser mantida húmida. O barro é unha boa opción para citros
Metrik/Diskussion
Thema | Wert | Einzelheiten |
---|---|---|
Entwässerung | 2 | Tipps
Der Hintergrund
Definition
|
Boden Referenztiefe | 100 mm | HerausforderungenDefinition
|
Basensättigung | 30% - Prozent | Herausforderungen
Tipps
Der Hintergrund
Definition
|
Calciumcarbonat CaCO3 - Kalk | 0% Gewicht | Der HintergrundDefinition
|
Organischem Kohlenstoff | 0.83% Gewicht | HerausforderungenTipps
Der Hintergrund
Definition
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Die Kationenaustauschkapazität - Ton | 18 cmol/kg | Herausforderungen
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Die Kationenaustauschkapazität - Boden | 7 cmol/kg | Herausforderungen
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Der Hintergrund
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Ton - Prozent - Gewicht | 23% Gewicht | Herausforderungen
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Der HintergrundDefinition
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Kies - Prozent - Volumen | 9% Gewicht | HerausforderungenTippsDefinition
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Sand - Prozent - Gewicht | 34% Gewicht | Herausforderungen
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Schlick - Prozent - Gewicht | 43% Gewicht | Herausforderungen
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Elektrische Leitfähigkeit | 0.1 dS/m | HerausforderungenTippsDer Hintergrund
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Gipsgehalt CaSO4 | 0% Volumen | Tipps
Der Hintergrund
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Soil reaction - pH-Wert | 4.9 -log H+ | HerausforderungenTipps
Der Hintergrund
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Austauschbarem Natrium | 2% - Prozent | Herausforderungen
Definition
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Referenz Schüttdichte | 1.39 kg/dm3 | Tipps
Der Hintergrund
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Stickstoff (N) | HerausforderungenTipps
Der Hintergrund
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Phosphor (P) | Herausforderungen
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Kalium (K) | Tipps
Der Hintergrund
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Zero Tillage
Conservation tillage systems such as zero tillage cause minimum disturbance to the soil after the previous crop has been harvested. In zero tillage, the ideal is to plant direct into the soil, without hoeing or plowing. Tillage is reduced to ripping planting lines or making holes for planting with a hoe. Crop residues are left in the field to reduce soil erosion, conserve moisture, inhibit weed growth, and act as green manure. Zero tillage is not recommended when disease is present. To manage disease, crop residues must be either removed from the field and destroyed or deeply ploughed to reduce sources of disease infection and spread.
Advantages of conservation tillage include less machinery, labour and fuel, as well as reduced soil erosion and compaction. Disadvantages of conservation tillage include lower soil temperatures, slower germination and emergence when direct sowing is used, slower early growth, delayed competition with weeds, higher incidence of root diseases, heavier crop residue, the possibility of more difficult planter operation, weed spectrum changes, and potential increase of soil insect pests or insects that spend part of their life cycle in the soil (e.g. cutworms, thrips, leafmining flies, grubs). Cultivation exposes these pests to desiccation by the sun heat and to predation by natural enemies.
Die Gründüngung
Green manure legumes create nitrogen in the soil by fixing it from the atmosphere.
Benefits of Green Manure Cover Crops
- Easy to grow
- Increases soil organic matter
- Reduce soil losses from wind and water erosion
- If it is a legume, it can fix nitrogen. When the legume is mature, chopped up and added to the soil, it will add nitrogen to the soil which will be used by later crops on the land.
- The roots of the green manure crops extract nutrients from deep in the soil.
- The deep roots work to break up and aerate the soil
- When the green manure is added to the soil, it works to lighten and loosen the soil to aerate and improve drainage, making the soil healthier for later crops. After tilling in a green manure crop, we see the soil level in the farm beds raise several inches. The soil is loose and no longer compacted.
- Green manure crops include jack beans, perennial peanut, and Mucuna.
- These plants help the main crop by increasing soil fertility by adding nitrogen to the soil by nitrogen fixation.
- They add biomass (organic matter) to the soil.
- As cover crops, they reduce soil loss.
Planting Green Manure Crops
Green manure crops can be planting using intercropping with the main crop or by using crop rotation in which the green manure crop is planted in-between plantings of the main crop. For intercropping, plant the legume seeds in rows between rows of the main crop. Plow the legumes into the soil at the start of the rainy season.
In crop rotation, plant legumes after the main crop has been harvested. The legumes will benefit the field as a cover crop and as green manure. At full biomass maturity, plow the legumes into the soil as green manure for the next crop.
For a source of green manure to the field, cut the legumes at full maturity, shred, and spread over the field.
Preventing Soil Erosion while Adding Nutrients to the Soil
The first step in soil management is preventing the loss, or erosion, of soil. Topsoil is particularly vulnerable to erosion if not protected by plants or mulch or by other measures. The soil that remains after the loss of topsoil is usually less productive, which can result in lower yields. The challenge is to protect soil while using the land for food production and other non-food activities.
Soil erosion is caused mainly by wind and water but also by incorrect cultivation practices. Rain and wind dislodge and then carry away soil particles. Where the soil is bare or the vegetation poor, rainwater does not seep into the soil; instead it runs off and carries with it loose topsoil. Sloping land and light soils with low organic matter content are both prone to erosion. Once eroded, the soil is lost forever.
Soil erosion is a problem in regions with little vegetation, particularly in the semi-arid and arid zones. In the humid tropics, erosion was not considered a problem when the land was in its natural state, because the variety of native plants kept the soils covered at all times. Now, people are clearing more land for agricultural purposes, and the situation has changed. Heavy rains coupled with poor soil management of cultivated areas are now common causes of soil erosion in the humid areas.
Wasserbedingte Erosion
Some common forms of water erosion include:
- Sheet erosion: a thin top layer of soil is removed from the soil by the impact of rain. With sheet erosion, small heaps of loose material (e.g. grass) amass between fine lines of sand after a rainstorm. This erosion takes place across a whole garden or field.
- Rill erosion: water flows over minor depressions on the land's surface and cuts small channels into the soil. The erosion takes place along the length of these channels.
- Gully erosion: a gully forms along natural depressions on the soil's surface or on slopes. The head of a gully moves up the slope in the opposite direction of the flow of water. Gullies are symptoms of severe erosion.
Windbedingte Erosion
This occurs mostly on light soils and bare land. High winds cause severe damage. Wind erosion is a common problem in dry and semi-arid areas, as well as in areas that get seasonal rains.
Unlike water which only erodes on slopes, wind can remove soil from flat land as well as from sloping land; it can also transport the soil particles through the air and deposit them far away. Soils vulnerable to wind erosion are dry, loose, light soils with little or no vegetative cover.
Plowing up and down a slope causes soil erosion. To prevent the loss of soils, certain measures must be taken.
These include:
- clearing only the land to be cultivated;
- planting along a contour and using grassed channels;
- establishing windbreaks and bench terraces;
- plowing along a contour;
- planting cover crops and mulching.
When clearing land for cultivation, the beneficial effects of certain trees and plants should be considered. Some trees should be left, since they may supply food, medicine, shade or, when they shed their leaves, organic matter.
Feeding the Soil
One of the main goals in growing crops is to make the soil fertile and well structured, so a wide range of useful crops can grow and produce well. In order to grow, plants require nutrients that are present in organic matter, such as nitrogen, calcium and phosphorus, as well as minerals and trace elements.
If the natural fertility or structure of the soil is poor, it must be continuously "fed" with organic matter, such as leaves and manure, in order to improve its productivity and water-holding capacity. As organic matter decomposes, it becomes food for plants. It also improves soil structure by loosening heavy clay and binding sandy soil.
Feeding the soil with organic matter is especially important in the early years of cultivating the land. Organic matter (i.e. waste from plants and livestock) can be collected and buried in the soil, where it will decompose. The organic matter also can be used to make compost, which can be applied to the soil to enrich its fertility.
The roots of legumes contain nitrogen-fixing bacteria. Therefore, intercropping or rotating legumes with other crops helps maintain or improve the nitrogen content of the soil, and this enhances the growth of other plants.
Healthy plants yield more and are better protected from insects and disease. The application of organic matter, such as compost, animal manure, green manure and soil from anthills, improves soil structure and adds nutrients to the soil.
Long-Term Soil Management
The ideal way to protect and feed the soil is to apply organic matter or compost regularly and to keep the soil covered with plants. A multilayer cropping system in which a mixture of trees and other plants with different maturity times are grown together will protect the soil and recycle nutrients. Leguminous plants such as cowpeas, groundnuts and beans are particularly useful in providing continuous nutrients for crops.
Apply Organic Matter to Soil to Improve the Crop
Plants can contain up to 90 percent water. The water is absorbed mainly through the root system of the plant. With the water, plant nutrients are absorbed. Healthy roots need air (aeration) for development. Excess water in the soil prevents air from penetrating and damages a plant's roots. Water management is therefore extremely important in regions with good water resources as well as in those where water is scarce.
The water-holding capacity of soil varies according to soil type. Soil with a high content of organic matter has better aeration, better structure and better water-holding capacity. Heavy, sticky soils are too dense to allow air in and water out, so roots cannot breathe and plants can have growth problems. When this kind of soil dries out, it sets like cement, and water takes a long time to soak into it. On the other hand, sandy, coarse-grained soils are too loose to hold water before it drains away. In this kind of soil, without a regular external water supply, a plant's roots cannot find enough water for growth. Regular application of organic matter will improve the ability of both these kinds of soil to hold and release enough water and air. During land preparation for planting, organic materials such as animal manure or compost should be applied to the land such that they are well incorporated into the soil.
Quellen
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