Plants for Continental
Hay & Grazing Crops (65)
| Plant Name | Score* | Description |
|---|---|---|
| White Clover | 86.2% | Regenerative farmers select white clover (Trifolium repens) for its multifaceted contributions to farm ecosystem health and resilience. It is a valuable legume, contributing to nitrogen fixation, ther |
| Alfalfa | 83.8% | Regenerative farmers select lucerne (Medicago sativa) for its multifaceted contributions to ecosystem health and farm resilience. As a legume, it is a powerful nitrogen fixer, reducing the need for sy |
| Birdsfoot Trefoil | 77.1% | Regenerative farmers select birdsfoot trefoil (Lotus corniculatus) for its multi-faceted role in enhancing farm ecosystem services and resilience. Its value as a forage legume is noted, particularly i |
| Annual Ryegrass | 75.7% | Regenerative farmers select annual ryegrass (Lolium multiflorum) for its versatility and soil-enhancing properties. While not a nitrogen fixer itself, it integrates well into diverse cover crop mixes, |
| Illinois Bundleflower | 75.2% | While the provided sources offer limited direct insight into the specific motivations for regenerative farmers choosing *Desmanthus illinoensis* (Illinois bundleflower), they do hint at its potential |
| Timothy Grass | 74.3% | Regenerative farmers select timothy grass (Phleum pratense) for its significant contributions to soil health and farm system resilience. Its deep root system enhances soil structure, improves water in |
| Orchardgrass | 73.3% | Regenerative farmers select orchardgrass (Dactylis glomerata) for its multifaceted contributions to ecosystem health and farm resilience. As a component of diverse pasture mixtures, it supports livest |
| Purple Prairie Clover | 70.5% | The provided knowledge base highlights purple prairie clover (Dalea purpurea) as a valuable component in regenerative agriculture, though it offers limited insight into the specific reasons *why* farm |
| Tall Fescue | 70.0% | The provided sources mention Schedonorus arundinaceus (tall fescue) primarily in the context of its forage value and management for livestock grazing. Tall fescue is identified as a high-yielding cool |
| Big Bluestem | 69.0% | Regenerative farmers select big bluestem (*Andropogon gerardii*) for its significant contribution to soil health and farm system resilience. Its deep root system is a primary driver of soil benefits, |
| Kentucky Bluegrass | 69.0% | While the provided sources mention *Poa pratensis* (Kentucky bluegrass) primarily in the context of its management, particularly its role as a non-native species in degraded areas and its invasive pot |
| Saltbush | 68.6% | The provided sources offer limited insight into the specific reasons regenerative farmers choose *Atriplex halimus*. However, the mentions suggest its utility in challenging environments. Source highl |
| Switchgrass | 68.1% | Regenerative farmers select switchgrass (Panicum virgatum) for its multifaceted benefits that align with ecological and economic sustainability. Its deep root system is a significant asset, contributi |
| Self-Heal | 67.6% | While the provided sources offer limited insight into the specific reasons regenerative farmers choose *Prunella vulgaris*, they highlight certain beneficial characteristics. Source indicates *Prunell |
| Kentucky 31 | 67.1% | Sources indicate that Kentucky 31 fescue is chosen by some regenerative farmers primarily for its integration with livestock, particularly cattle. Greg Judy notes its tolerance by certain breeds like |
| Stiff Ryegrass | 67.1% | While the provided sources focus on the physiological responses of Lolium rigidum to defoliation and its impact on soil microbial communities, they offer insights into why regenerative farmers might i |
| Bromegrass | 66.7% | Sources indicate that smooth bromegrass (*Bromus inermis*) is utilized in regenerative systems for its role as a forage crop and for its potential to improve soil health. In livestock operations, it i |
| Blue Grama | 65.7% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Bouteloua gracilis (Blue Grama). However, the information available suggests its value is primarily |
| Crested Wheatgrass | 64.8% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Agropyron cristatum*. However, the existing information highlights its role in erosion control and |
| Meadow Brome | 64.8% | The provided sources mention meadow bromegrass (Bromus riparius Rehmann) in the context of perennial forage blends and pasture systems, often alongside legumes like alfalfa. While the knowledge base d |
| Bluestem Wheatgrass | 64.3% | The provided sources mention bluestem wheatgrass (*Pascopyrum smithii*) primarily as a component of diverse perennial pastures being re-established or managed regeneratively. While the specific reason |
| Reed Canary Grass | 63.8% | The provided sources offer limited insight into why regenerative farmers specifically choose *Phalaris arundinacea* (reed canarygrass). However, the information does highlight certain characteristics |
| Sideoats Grama | 63.3% | While the provided sources mention sideoats grama (Bouteloua curtipendula) as a component in diverse native grassland mixes for grazing pasture and restored prairies, their primary focus is on its pre |
| Indiangrass | 62.4% | Regenerative farmers select indiangrass (*Sorghastrum nutans*) for its significant contributions to farm system resilience and soil health. Sources highlight its role as a native warm-season grass tha |
| Little Bluestem | 62.4% | Regenerative farmers select little bluestem (Schizachyrium scoparium) for its significant contributions to ecosystem health and farm resilience. Its deep root system is a key benefit, enhancing soil s |
| Cup Plant | 61.0% | While the provided sources do not explicitly detail the full spectrum of reasons why regenerative farmers choose Silphium perfoliatum (cup plant), they highlight several key attributes. Its remarkable |
| Common Mallow | 57.1% | While direct explanations for regenerative farmers' specific choices of *Malva neglecta* are limited in the provided knowledge base, general principles of regenerative agriculture suggest potential be |
| Giant Feather Grass | 52.9% | While the provided sources do not explicitly detail why regenerative farmers choose *Stipa grandis*, they offer insights into its ecological roles within grassland systems. Source indicates that *Stip |
| Giant Buckwheat | 52.4% | While the provided knowledge base offers limited detailed insights into the specific reasons regenerative farmers select Eriogonum Giganteum, existing mentions suggest its potential value within regen |
| Honey Locust | 52.4% | While direct mentions of *Gleditsia triacanthos* within regenerative agriculture literature are limited, existing information suggests its potential value stems from a range of ecosystem services. Its |
| Short-Flower Needle Grass | 51.0% | The provided knowledge base offers limited insight into the specific reasons regenerative farmers choose *Stipa breviflora*. However, the sources highlight its role in a desert steppe ecosystem and it |
| Black-Eyed Susan | 46.7% | The provided sources mention Rudbeckia hirta (Black-eyed Susan) in the context of regenerative agriculture, primarily highlighting its role in establishing diverse native plant communities and support |
| Cutleaf Coneflower | 46.7% | The provided knowledge base, while mentioning Rudbeckia laciniata (Black-eyed Susan) nine times, offers limited direct insight into the specific reasons regenerative farmers choose this plant. The sou |
| Dog Rose | 45.2% | The provided knowledge base offers limited direct insight into the specific reasons regenerative farmers choose *Rosa canina*. While the sources mention its presence in grassland ecosystems and its po |
| Blue-Eyed Grass | 42.9% | While specific mentions of *Sisyrinchium bellum* within the provided regenerative agriculture sources are limited, its potential benefits align with core regenerative principles. As a native perennial |
| Baby Sage | 42.4% | While direct knowledge base mentions of Salvia microphylla in regenerative agriculture are limited, available information suggests potential benefits that align with regenerative principles. Its value |
| Big Sagebrush | 42.4% | The provided knowledge base includes two mentions of Artemisia tridentata, specifically the subspecies wyomingensis, in the context of regenerative agriculture research. Source investigates the role o |
| Heather | 42.4% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Calluna vulgaris. The available research focuses on its ecological role in natural and semi-natural |
| Naked Buckwheat | 41.9% | While specific regenerative agriculture sources detailing the precise reasons for choosing Eriogonum nudum are limited in the provided knowledge base, its inclusion in such systems can be inferred fro |
| Wild Privet | 41.0% | Direct knowledge base evidence on Ligustrum vulgare's specific application in regenerative agriculture is limited, with only five mentions found. Therefore, a detailed explanation of why regenerative |
| English Ryegrass | 79.0% | Regenerative farmers select English ryegrass (Lolium perenne) for its multifaceted contributions to soil health and farm system resilience. While specific ecosystem services like nitrogen fixation or |
| Holy Clover | 78.1% | Regenerative farmers select sainfoin (Onobrychis viciifolia) for its multifaceted benefits within a holistic farm system. Sainfoin is a valuable forage, noted for its high palatability and preference |
| Kikuyu Grass | 75.7% | The provided knowledge base offers limited insight into the specific reasons regenerative farmers choose Pennisetum clandestinum, commonly known as Kikuyu grass. However, the sources do highlight its |
| Lablab Bean | 73.8% | While the provided sources do not explicitly detail the reasons regenerative farmers select lablab bean (Dolichos lablab or Lablab purpureus), they offer insights into its functional roles. Studies in |
| Plantain | 71.4% | Regenerative farmers incorporate plantain, specifically Tonic Plantain (*Plantago lanceolata*), for its multifaceted contributions to farm ecosystems. While the provided sources offer limited detail o |
| Buffelgrass | 68.1% | While specific details on *Pennisetum ciliare*'s adoption in regenerative systems are limited in the provided knowledge base, its inclusion suggests potential benefits aligned with regenerative princi |
| Maximiliani's Sunflower | 68.1% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Helianthus maximiliani*. While mentioned in the context of interseeded forb blends in pasture syste |
| Sorghum-Sudangrass | 65.7% | The provided sources offer limited insight into the specific reasons regenerative farmers choose sorghum-sudangrass (often referred to as sudex). However, the existing mentions highlight its utility p |
| Lippia | 63.8% | While specific details on regenerative agriculture choices for *Phyla nodiflora* are limited in the provided sources, its inclusion can be inferred through its known ecological functions. This plant i |
| California Fescue | 63.3% | While direct explanations for *Festuca californica*'s selection by regenerative farmers are limited in the provided knowledge base, its characteristics suggest potential benefits aligned with regenera |
| White Mulberry | 63.3% | Regenerative farmers value *Morus alba* (white mulberry) for its multifaceted contributions to farm system resilience and soil health. Its leaves exhibit high protein content (15-28%) and minerality, |
| Buffalograss | 62.4% | Regenerative farmers may choose buffalograss for its resilience and soil-building potential, particularly in arid or semi-arid conditions where it is well-adapted. While the provided sources do not ex |
| Spanish Needles | 61.9% | While the provided sources offer limited direct insight into regenerative farmers' specific motivations for cultivating Bidens pilosa, they do highlight several potentially beneficial characteristics. |
| Chinese Bushclover | 55.7% | Chinese bushclover (Lespedeza cuneata), while not explicitly detailed in the provided sources for its specific regenerative benefits, aligns with principles observed in related practices. Its presence |
| Burning Bush | 49.0% | Regenerative farmers may consider *Bassia scoparia* for its potential to improve soil health and farm system resilience, though its integration into regenerative systems is not extensively detailed in |
| Giant Cane | 48.6% | The provided sources offer limited insight into why regenerative farmers specifically choose Arundinaria gigantea. The primary focus is on its ecological behavior, particularly its post-seeding die-of |
| Crabgrass | 47.6% | The provided regenerative agriculture sources offer limited direct insight into why farmers specifically choose *Digitaria sanguinalis* (large crabgrass) within their systems. However, ecological info |
| Red Brome | 46.7% | While the provided knowledge base offers limited direct insights into specific regenerative agriculture choices regarding *Bromus rubens*, general principles of regenerative farming suggest potential |
| Black Bamboo | 46.2% | While direct mentions of Phyllostachys nigra within regenerative agriculture literature are limited, its potential contributions to farm systems can be inferred from its known characteristics. As a ba |
| California Blackberry | 45.2% | Rubus ursinus, or California blackberry, is a valuable component in regenerative agriculture systems due to its multi-faceted ecosystem services. While specific regeneration practices for *Rubus ursin |
| Desert Willow | 43.3% | While specific knowledge base coverage detailing the precise reasons regenerative farmers choose Chilopsis linearis is limited, available information suggests its integration is driven by a combinatio |
| Yellow Dock | 43.3% | While the provided sources do not offer a comprehensive overview of why regenerative farmers choose yellow dock (Rumex crispus), they highlight several key areas of potential value. Source indicates t |
| Eastern Prickly Pear | 41.0% | While the provided knowledge base offers limited direct insights into *Opuntia humifusa*'s specific adoption by regenerative farmers, its known characteristics suggest potential benefits aligning with |
| Red Hot Poker | 40.5% | While direct knowledge base evidence detailing Kniphofia uvaria's specific adoption by regenerative farmers is limited, its potential benefits align with regenerative principles. Plants in this genus |
| Douglas Iris | 36.2% | The provided sources offer limited direct information on why regenerative farmers specifically choose Iris douglasiana. The knowledge base focuses on the ecological role of native plants in coastal Ca |
How Regenerative Scores Are Calculated
The regenerative score aggregates the trait dimensions shown in each plant's radar chart (excluding climate tolerance, which is already factored into zone suitability):
- Profit Potential (2× weight)
- Palatability
- Nutritional Value
- Grazing Durability
- Management Ease
- Multi-Benefit Value
Aggregation: Each trait is scored 1.0-3.0 (Limited → Typical → Exceptional). The regenerative score = (sum of weighted trait scores ÷ maximum possible) × 100. Profit Potential and System Value receive 2× weight because economic viability and ecosystem contribution are critical for supporting the transition to regenerative practices.
Click through to any plant to see its radar chart and detailed explanations for each trait dimension.
Grains & Cereals (2)
| Plant Name | Score* | Description |
|---|---|---|
| Rosinweed | 70.0% | Sources indicate Silphium integrifolium is being developed as a perennial oilseed crop for regenerative agriculture, with research focusing on its potential for domestication and integration into farm |
| Sesame | 60.0% | While the provided sources focus on experimental agricultural practices for Sesamum indicum (sesame) rather than the explicit reasoning behind its selection by regenerative farmers, they highlight its |
How Regenerative Scores Are Calculated
The regenerative score aggregates the trait dimensions shown in each plant's radar chart (excluding climate tolerance, which is already factored into zone suitability):
- Profit Potential (2× weight)
- Production Reliability
- Rotation Value
- Growing Ease
- Market Integration
- Resource Efficiency
- Multi-Benefit Value
Aggregation: Each trait is scored 1.0-3.0 (Limited → Typical → Exceptional). The regenerative score = (sum of weighted trait scores ÷ maximum possible) × 100. Profit Potential and System Value receive 2× weight because economic viability and ecosystem contribution are critical for supporting the transition to regenerative practices.
Click through to any plant to see its radar chart and detailed explanations for each trait dimension.
Tree Crops & Agroforestry (167)
| Plant Name | Score* | Description |
|---|---|---|
| Common Osier | 91.7% | While the provided sources offer limited direct insight into the specific reasons regenerative farmers choose Salix viminalis (common osier), they highlight several key benefits relevant to regenerati |
| Chokecherry | 87.8% | The provided knowledge base highlights several key characteristics of Prunus virginiana (choke cherry) relevant to regenerative agriculture, though it does not explicitly detail *why* regenerative far |
| Saskatoon Berry | 87.8% | The provided knowledge base offers limited direct insights into why regenerative farmers specifically choose Amelanchier alnifolia (Western Serviceberry). While the sources do not detail its ecosystem |
| Black Locust | 86.7% | Regenerative farmers select Robinia pseudoacacia, commonly known as black locust, for its multifaceted benefits within agroecosystems. Its deep root system contributes significantly to soil health by |
| Haskap | 86.7% | While the provided sources offer insights into haskap (Lonicera caerulea) cultivation and soil impacts, they offer limited direct information on the specific reasons regenerative farmers choose this p |
| Canadian Serviceberry | 86.1% | The provided sources do not offer specific insights into why regenerative farmers choose Amelanchier canadensis. The knowledge base primarily focuses on identifying and managing invasive species, with |
| White Willow | 84.4% | The provided sources offer limited insight into why regenerative farmers specifically choose Salix alba. Source mentions Salix alba bark as a component in a herbal tincture used for disbudding dairy c |
| Willow | 84.4% | Regenerative farmers select Salix (willow) for its multifaceted contributions to farm ecosystems and resilience. Willow is noted for its rapid biomass production and ease of propagation, making it a v |
| Hardy Kiwi | 83.9% | Actinidia Arguta, or kiwi berry, is a valuable component in regenerative agriculture systems due to its multifaceted ecosystem services and soil-enhancing properties. While specific details regarding |
| Nanking Cherry | 81.1% | The provided sources offer limited insight into why regenerative farmers specifically choose Prunus tomentosa (Nanking cherry). Source identifies Nanking cherry as an edible shrub suitable for windbre |
| Siberian Peashrub | 81.1% | Caragana arborescens is chosen by regenerative farmers primarily for its significant contributions to soil health and ecosystem services. As a legume, it is a nitrogen fixer, enriching soil fertility |
| Black Mulberry | 80.6% | While the provided sources on Morus nigra (black mulberry) focus primarily on its phytochemical and nutritional composition, offering insights into glucose, fructose, malic acid, citric acid, ascorbic |
| Red Elderberry | 80.0% | While the provided sources offer limited direct insights into specific regenerative farming choices for Sambucus racemosa, general principles of regenerative agriculture suggest potential benefits. Pl |
| American Basswood | 76.7% | While explicit reasons for regenerative farmers selecting *Tilia americana* are not extensively detailed in the provided knowledge base (16 mentions total), its known ecological attributes suggest sev |
| Beaked Hazelnut | 75.6% | While specific mentions of Corylus cornuta within the provided regenerative agriculture sources are limited, the plant's characteristics suggest potential benefits for regenerative farming systems. It |
| Butternut | 75.6% | While specific regenerative agriculture sources mentioning Juglans cinerea (butternut) are limited, existing literature suggests its potential utility within these systems. Butternut's ecosystem servi |
| Littleleaf Linden | 75.6% | The provided knowledge base, with 23 mentions of Tilia cordata (linden), offers limited direct insight into the specific reasons regenerative farmers choose this species. The sources primarily focus o |
| Rowan | 75.6% | While explicit details on *Sorbus aucuparia*'s specific adoption by regenerative farmers are limited in the provided knowledge base, the plant's characteristics suggest potential benefits aligned with |
| Wingleaf Soapberry | 75.6% | knowledge base data regarding the specific reasons regenerative farmers select *Sapindus saponaria* is limited. However, the provided sources offer insights into its ecological interactions that may i |
| Asian Wild Apple | 75.0% | While specific knowledge base evidence for *Malus sieversii*'s application in regenerative agriculture is limited, its wild apple heritage suggests potential ecological and economic benefits. As a fou |
| Arctic Beauty Kiwi | 74.4% | The provided sources offer limited direct insights into the specific reasons regenerative farmers might choose Actinidia kolomikta. While Actinidia kolomikta is mentioned, the knowledge base does not |
| Korean Pine | 74.4% | The provided sources on *Pinus koraiensis* (Korean pine) focus on its ecological impacts within forest ecosystems, particularly concerning soil organic carbon (SOC) dynamics and responses to environme |
| Oregon Crabapple | 74.4% | While direct knowledge base excerpts detailing regenerative farmers' specific reasons for choosing Malus fusca are limited, general principles of regenerative agriculture suggest potential benefits. P |
| American Persimmon | 73.9% | Regenerative farmers select American persimmon (Diospyros virginiana) for its multifaceted contributions to farm ecosystem health and resilience. While the provided sources do not explicitly detail it |
| Canadian Plum | 73.9% | While the provided knowledge base offers limited direct insights into why regenerative farmers specifically choose *Prunus nigra*, general principles of regenerative agriculture suggest potential bene |
| Cherry Plum | 73.9% | While direct mentions of Prunus cerasifera within the provided regenerative agriculture context are limited, its potential contributions align with key regenerative principles. Its value likely stems |
| Chickasaw Plum | 73.9% | The provided knowledge base offers limited insight into the specific reasons regenerative farmers choose *Prunus angustifolia*. However, the sources highlight its significant role in providing ecosyst |
| Red Osier Dogwood | 73.3% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Cornus sericea. However, general information on drought-tolerant plants, such as that from the Unive |
| Bird Cherry | 72.8% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose Prunus padus. The mentions focus primarily on distinguishing it from Prunus virginiana throu |
| Cornelian Cherry | 72.8% | While the provided knowledge base offers limited direct explanation for regenerative farmers' specific choices of Cornus mas, its presence in agroforestry research suggests potential alignment with re |
| Sweet Chestnut | 72.8% | The provided knowledge base offers limited insight into the specific reasons regenerative farmers choose *Castanea sativa* (European chestnut). While source indicates its presence in forest studies as |
| Sawtooth Oak | 72.2% | The provided knowledge base, while mentioning Quercus acutissima in the context of ecological studies, offers limited direct insight into the specific reasons regenerative farmers choose this species. |
| Blue Gum | 71.7% | While the provided sources do not extensively detail the reasons regenerative farmers choose Eucalyptus globulus, they offer insights into its utility within broader agricultural contexts. Source high |
| Common Hackberry | 71.1% | The provided sources highlight Celtis occidentalis, or hackberry, primarily for its significant value as a wildlife food source and its ecological resilience. While the knowledge base does not directl |
| Jujube | 71.1% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Ziziphus jujuba (jujube). However, the available information highlights its potential for soil impro |
| Osage Orange | 71.1% | The provided knowledge base offers limited insight into why regenerative farmers specifically choose Maclura pomifera. However, the sources highlight its utility in establishing dense, thorny hedgerow |
| Trifoliate Orange | 70.6% | The provided knowledge base offers limited insight into why regenerative farmers specifically choose Poncirus trifoliata. However, the sources do highlight certain characteristics that could align wit |
| Chinese Chestnut | 70.0% | While the provided sources do not explicitly detail the reasons regenerative farmers choose *Castanea mollissima* (Chinese chestnut) for its regenerative properties, they offer insights into its culti |
| Quince | 70.0% | The provided sources offer limited insight into why regenerative farmers specifically choose Cydonia oblonga (quince). Source discusses quince rootstock (Cydonia oblonga Mill. cv) in the context of ma |
| Box Elder | 68.9% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Acer negundo. However, the available information suggests potential benefits related to ecosystem se |
| Bullace | 68.9% | While specific regenerative agriculture sources extensively detailing the choice of *Prunus insititia* are limited, its potential benefits align with core regenerative principles. As a nitrogen-fixing |
| Bur Oak | 67.8% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Quercus macrocarpa* (bur oak). However, the existing research highlights its utility in ecosystem r |
| English Oak | 67.8% | The provided sources offer insights into *Quercus robur*'s ecological characteristics and potential applications, though they do not explicitly detail why regenerative farmers choose it. However, we c |
| Swamp White Oak | 67.8% | The provided sources on Quercus bicolor (swamp white oak) offer limited direct insight into why regenerative farmers specifically choose this species for its ecosystem services, soil benefits, livesto |
| White Oak | 67.8% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Quercus alba* (white oak). The knowledge base primarily focuses on ecological roles and establishme |
| Mexican Plum | 66.1% | While the provided sources offer limited explicit detail on the specific regenerative agricultural reasons for choosing Prunus mexicana (Mexican plum), they highlight its considerable ecosystem servic |
| Shagbark Hickory | 66.1% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose Carya ovata (Shagbark Hickory). While the sources identify key botanical characteristics, su |
| Medlar | 65.6% | The provided knowledge base offers limited insight into the specific reasons regenerative farmers choose Mespilus germanica (medlar). While the sources detail the fruit's physicochemical composition, |
| Sycamore | 65.6% | The provided sources primarily discuss *Acer pseudoplatanus* (sycamore maple) in the context of temperate forest ecosystems and common garden experiments, rather than specifically detailing its select |
| Pawpaw | 65.0% | Regenerative farmers select Asimina triloba, or pawpaw, for its multifaceted benefits within an agroecosystem. While the provided sources do not directly address nitrogen fixation, pollinator support, |
| Sugar Maple | 65.0% | The provided sources predominantly focus on *Acer saccharum*'s role in maple syrup production and its ecological interactions within temperate forests. While direct explanations from regenerative farm |
| Dawn Redwood | 64.4% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Metasequoia glyptostroboides. The available information focuses primarily on its paleobotanical sign |
| Himalayan Oak | 63.3% | The provided sources offer limited insight into why regenerative farmers specifically choose Quercus leucotrichophora. However, they do highlight its ecological role within its native Himalayan enviro |
| Mongolian Oak | 63.3% | While the provided sources do not explicitly detail the reasons regenerative farmers choose *Quercus mongolica*, they highlight its positive impacts on soil health and ecosystem function. Studies in N |
| Balsam Poplar | 62.2% | Limited knowledge base coverage restricts a comprehensive understanding of why regenerative farmers specifically choose *Populus balsamifera*. The provided sources focus on distinct scientific investi |
| Black Poplar | 62.2% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Populus nigra. Source notes its use in nonnative plantations, where it supported lower species richness |
| Eastern Cottonwood | 62.2% | The provided sources offer limited insight into why regenerative farmers specifically choose *Populus deltoides*. However, the available information points to several potential benefits. Studies indic |
| Riverbank Grape | 62.2% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Vitis riparia. Source mentions Riverbank grape, likely Vitis riparia, in the context of a speaker di |
| Eastern White Pine | 61.7% | While the provided sources do not extensively detail the specific reasons regenerative farmers choose *Pinus strobus* (eastern white pine), they offer some insights into its potential ecological roles |
| Green Ash | 61.7% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Fraxinus pennsylvanica. However, one study in Saskatchewan indicates that shelterbelts of F. pennsyl |
| Wintergreen | 61.7% | While the provided knowledge base offers limited direct insights into the specific reasons regenerative farmers choose Gaultheria procumbens, general principles of regenerative agriculture suggest pot |
| Red Maple | 61.1% | The provided sources offer limited insight into why regenerative farmers specifically choose red maple (*Acer rubrum*) for their systems. While the knowledge base details red maple's role in nursery p |
| Service Tree | 61.1% | While specific details on *Sorbus domestica*'s adoption by regenerative farmers are limited in the provided knowledge base, its potential benefits align with core regenerative principles. Its deep roo |
| Wild Cherry | 61.1% | The provided knowledge base offers limited insight into why regenerative farmers specifically choose *Prunus avium* (sweet cherry). The sources focus primarily on horticultural aspects, such as prunin |
| Scots Pine | 60.0% | Regenerative farmers may select Scots pine (*Pinus sylvestris*) for its multi-faceted contributions to farm ecosystem health and economic viability. While direct mentions of nitrogen fixation or polli |
| Silver Birch | 60.0% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose *Betula pendula* (European White Birch). However, the sources do highlight its role in ecosy |
| Kentucky Coffeetree | 59.4% | While direct explanations for Gymnocladus dioicus adoption in regenerative agriculture are limited in the provided knowledge base, its inclusion suggests potential benefits aligning with regenerative |
| Paper Birch | 58.3% | While the provided knowledge base offers limited direct insight into why regenerative farmers specifically choose Betula papyrifera, the sources highlight its significant ecosystem services. Betula pa |
| Ponderosa Pine | 58.3% | The provided sources mention *Pinus ponderosa* (Ponderosa pine) primarily in the context of forest ecology and fire management, with limited direct discussion on its specific integration into regenera |
| Common Tansy | 57.8% | The provided sources indicate regenerative farmers may utilize common tansy (Tanacetum vulgare) primarily for its role in weed management, particularly in organic grain systems. While not explicitly d |
| Red Oak | 57.8% | The provided sources offer limited insight into why regenerative farmers specifically choose Quercus rubra (Northern Red Oak) for their systems. The knowledge base primarily details challenges and obs |
| Monkey Puzzle Tree | 57.2% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Araucaria araucana*. However, we can infer potential benefits based on its characteristics. Source |
| White Ash | 57.2% | The provided sources offer limited insight into why regenerative farmers specifically choose White Ash (Fraxinus americana). The majority of mentions focus on its use in agroforestry systems and ecolo |
| Eastern Redcedar | 56.7% | Regenerative farmers are interested in Juniperus virginiana, commonly known as Eastern red-cedar, for its potential to enhance ecosystem services and soil health. Studies indicate that Juniperus virgi |
| Tulip Tree | 56.7% | The provided sources offer limited insight into direct farmer choices regarding Liriodendron tulipifera (yellow poplar) within regenerative agriculture systems. However, the studies do highlight certa |
| Chinese Red Pine | 55.0% | The provided sources indicate that *Pinus tabuliformis* is present in the Yellow River basin and Loess Plateau regions, where it contributes to ecosystem health and vegetation recovery. Studies show * |
| American Beech | 54.4% | knowledge base coverage regarding the specific reasons regenerative farmers choose Fagus grandifolia (American beech) is limited. However, existing sources highlight its ecological value and potential |
| Ginkgo | 54.4% | knowledge base coverage on why regenerative farmers specifically choose Ginkgo biloba is limited. However, the provided sources offer insights into its potential ecosystem services and soil benefits. |
| European Beech | 51.7% | Sources indicate that Fagus sylvatica, commonly known as European beech, is valued in regenerative agriculture primarily for its role in forest ecosystem management and biodiversity. Studies highlight |
| Corkscrew Willow | 51.1% | While specific knowledge base excerpts for Garrya elliptica in regenerative agriculture are limited, the plant's characteristics suggest potential reasons for its adoption. Regenerative systems priori |
| Red Columbine | 48.9% | While specific regenerative agriculture practices involving Aquilegia formosa are not extensively detailed in the provided sources, its inclusion suggests potential contributions to farm system resili |
| Dragon Spruce | 47.2% | While the provided sources do not explicitly detail why regenerative farmers choose *Picea asperata* (dragon spruce), they offer insights into its potential ecosystem contributions. Studies indicate * |
| Lodgepole Pine | 45.0% | The provided sources focus on the ecological characteristics and management of *Pinus contorta* (lodgepole pine), rather than explicit reasons for its adoption in regenerative agriculture systems. Lim |
| Lilac | 44.4% | While specific reasons for regenerative farmers choosing Syringa vulgaris are not extensively detailed in the provided sources, its inclusion can be inferred through its potential ecosystem services. |
| Norway Spruce | 44.4% | While Picea abies (Norway spruce) is not a primary focus in the provided regenerative agriculture sources, its mentions offer insights into its role within forest ecosystems and agricultural interface |
| Arborvitae | 42.8% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Thuja occidentalis (Northern White Cedar) for its ecosystem services, soil benefits, integration wit |
| Western Red Cedar | 42.8% | The provided sources indicate that Thuja plicata, or Western Red Cedar, holds significant cultural and ecological value, particularly for Indigenous peoples of the Pacific Northwest. While these sourc |
| Eastern Hemlock | 42.2% | Eastern hemlocks (*Tsuga canadensis*) are identified as keystone species in certain forest ecosystems, demonstrating significant ecological value. These trees create vital climate-controlled environme |
| Callery Pear | 41.1% | The provided sources offer limited insight into why regenerative farmers specifically choose *Pyrus calleryana*. While regenerative agriculture often prioritizes plants offering ecosystem services lik |
| Japanese Cedar | 38.9% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Cryptomeria japonica for its regenerative properties. However, the texts do highlight its significan |
| Princess Tree | 88.9% | While the provided knowledge base offers limited explicit detail on why regenerative farmers select Paulownia Tomentosa, existing mentions suggest its appeal lies in its multifaceted ecosystem service |
| Goumi | 87.8% | While the provided sources offer limited insight into the specific reasons regenerative farmers choose Elaeagnus multiflora (Gumi berries), they highlight several key benefits. The plant is recognized |
| Apple-Ring Acacia | 84.4% | The provided sources highlight several benefits of *Faidherbia albida* within regenerative agriculture systems, although direct explanations for farmer choice are limited. Source indicates its integra |
| Red Mulberry | 82.2% | While the provided sources focus on the ecological history and botanical distinctions of *Morus rubra*, they offer limited direct insight into why regenerative farmers specifically choose this plant. |
| Tipu Tree | 82.2% | The provided sources indicate that regenerative farmers select Tipuana tipu, also referred to as Lucina, primarily for its nitrogen-fixing capabilities, a key ecosystem service. Source notes its inclu |
| Kiwifruit | 80.6% | The provided sources offer limited insight into the specific reasons regenerative farmers choose *Actinidia deliciosa* (kiwifruit). However, the studies do highlight aspects relevant to regenerative p |
| Madake Bamboo | 79.4% | While the provided knowledge base offers limited direct insights into *Phyllostachys bambusoides*' specific adoption by regenerative farmers, general knowledge of bamboo's characteristics suggests pot |
| Chilean Guava | 73.9% | While the provided sources focus on the nutritional and bioactive compound profiles of native South American berries, including murta (Ugni molinae), they offer limited direct insight into the specifi |
| Pomegranate | 73.9% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose *Punica granatum* (pomegranate). However, the sources highlight its integration into agrofor |
| Casuarina | 73.3% | While the provided sources do not explicitly detail the motivations of regenerative farmers for selecting *Casuarina equisetifolia*, they offer insights into its ecological and economic potential with |
| Oregon Grape | 73.3% | While specific mentions of Mahonia aquifolium within the provided regenerative agriculture sources are limited, the general principles of regenerative farming suggest potential benefits. Regenerative |
| Cork Oak | 72.8% | The provided knowledge base highlights several reasons why regenerative farmers might integrate Quercus suber (cork oak) into their systems, though direct statements on farmer choice are limited. The |
| Salmonberry | 72.8% | While specific details on *Rubus spectabilis* (salmonberry) use in regenerative agriculture are limited in the provided knowledge base, its inclusion can be inferred from its known ecological and agri |
| Carob | 72.2% | The provided sources offer limited insight into why regenerative farmers specifically choose Ceratonia siliqua (carob). However, the available information highlights its potential for ecosystem servic |
| Large-Leaved Lime | 72.2% | While specific details on *Tilia platyphyllos* (large-leaved lime) adoption by regenerative farmers are not extensively covered in the provided sources, inferences can be drawn regarding its potential |
| Red River Gum | 71.7% | The provided knowledge base offers limited insight into why regenerative farmers specifically choose *Eucalyptus camaldulensis*. However, existing studies highlight several characteristics that may al |
| Sissoo | 71.7% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Dalbergia sissoo. However, the available information highlights its role within diverse agroecosyste |
| Black Cherry | 71.1% | While the provided sources do not explicitly detail why regenerative farmers choose *Prunus serotina* for specific ecosystem services, soil benefits, livestock integration, economic value, or farm sys |
| Khejri | 71.1% | While the provided sources offer limited direct insight into the explicit reasons regenerative farmers choose Prosopis cineraria (P. cineraria), the available information highlights its potential cont |
| Gamari | 69.4% | While the provided sources do not explicitly detail the reasons regenerative farmers choose Gmelina arborea, they highlight its presence in diverse agricultural and forestry systems, suggesting potent |
| Caper Bush | 68.9% | While the provided sources do not extensively detail the specific reasons regenerative farmers select <jats:italic>Capparis spinosa</jats:italic>, they offer insights into its integration within agric |
| Oregon Plum | 68.9% | While the provided knowledge base offers limited direct insights into *Prunus subcordata*'s specific applications in regenerative agriculture, its potential benefits can be inferred from general regen |
| Japanese Plum | 67.8% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose *Prunus salicina* (Japanese plum). However, the sources do highlight certain characteristics |
| Japanese White Oak | 67.8% | While the provided sources focus on the ecological impacts of *Quercus variabilis* rather than the specific reasons regenerative farmers select it, they do offer insights into its potential benefits. |
| Sessile Oak | 67.8% | The provided sources offer limited insight into explicit reasons why regenerative farmers choose Quercus petraea. However, they indirectly highlight potential benefits. Acorns from ancient oak trees, |
| Persimmon | 66.7% | The provided sources on *Diospyros kaki* (persimmons) offer limited direct insight into why regenerative farmers specifically choose this plant for its regenerative practices. The texts primarily focu |
| Holm Oak | 66.1% | While the provided sources do not explicitly detail the reasons regenerative farmers select Quercus ilex, they offer insights into its ecological and economic contributions within regenerative systems |
| Oregon White Oak | 66.1% | While the provided sources mention Quercus garryana (Oregon White Oak) as a significant native tree species in the Pacific West Coast, they offer limited explicit information on why regenerative farme |
| California Black Oak | 65.6% | While direct mentions of Quercus kelloggii within the provided regenerative agriculture sources are limited, the general principles of regenerative farming suggest potential benefits that align with t |
| Chinaberry | 65.6% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Melia azedarach (Malabar Neem). However, the existing data highlights its role in agroforestry systems |
| Blue Oak | 64.4% | The provided sources do not directly explain why regenerative farmers choose Quercus douglasii (blue oak). Source focuses on ecological factors influencing blue oak seedling establishment, such as com |
| California White Oak | 64.4% | While the provided source specifically details a genome assembly for northern red oak (Quercus rubra L.) and its comparison with Quercus lobata, it highlights the close evolutionary relationship and g |
| Silky Oak | 64.4% | While the provided sources do not explicitly detail why regenerative farmers choose Grevillea robusta, they offer insights into its potential ecological roles. Studies on soil and water conservation i |
| Texas Persimmon | 64.4% | While the provided sources offer limited explicit detail on why regenerative farmers choose *Diospyros texana* (Texas persimmon), they highlight its role in ecosystem services, particularly erosion co |
| Hupeh Crabapple | 63.9% | Limited knowledge base coverage prevents a comprehensive explanation of why regenerative farmers choose *Malus hupehensis*. However, the provided sources highlight its role in addressing challenges wi |
| Pistachio | 62.8% | The provided sources offer limited direct insight into why regenerative farmers choose Pistacia vera. However, they do highlight its cultivation within existing agricultural systems and its interactio |
| American Sycamore | 62.2% | While the provided sources do not explicitly detail the reasons why regenerative farmers choose *Platanus occidentalis* (American sycamore), they offer insights into its ecological functions relevant |
| Loblolly Pine | 62.2% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose loblolly pine (Pinus taeda). The sources focus on ecological impacts and silvicultural treat |
| California Tree Poppy | 61.7% | While specific details on Romneya Coulteri's adoption by regenerative farmers are limited in the provided knowledge base, its potential ecosystem services suggest why it might be considered. Plants wi |
| California Black Walnut | 61.1% | The provided sources focus on the propagation and use of *Juglans hindsii* as a rootstock, particularly for walnut trees. While the specific reasons regenerative farmers choose *Juglans hindsii* for i |
| Judas Tree | 60.6% | While the provided knowledge base offers limited explicit detail on why regenerative farmers specifically select *Cercis siliquastrum* (Judas tree), its characteristics suggest potential benefits with |
| Bigleaf Maple | 60.0% | Information directly linking regenerative farmers' choices of *Acer macrophyllum* to specific ecosystem services, soil benefits, livestock integration, economic value, or farm system resilience is lim |
| California Sycamore | 60.0% | The provided knowledge base offers limited direct insight into the specific reasons regenerative farmers choose Platanus racemosa. The majority of mentions focus on its association with fungal symbion |
| Maritime Pine | 60.0% | While the provided sources do not explicitly detail the reasons regenerative farmers choose *Pinus pinaster*, they offer insights into its ecological role. Studies indicate *Pinus pinaster* plantation |
| Masson's Pine | 60.0% | While the provided sources do not extensively detail the reasons regenerative farmers choose Pinus massoniana, they offer insights into its potential benefits within agroecosystems. Studies indicate t |
| Radiata Pine | 60.0% | While the provided sources do not directly address why regenerative farmers choose Pinus radiata for specific ecosystem services like nitrogen fixation or pollinator support, they highlight several as |
| Western Redbud | 60.0% | While specific regenerative agriculture sources mentioning Cercis occidentalis are noted as limited, the plant's characteristics suggest potential benefits for regenerative farming systems. Its legume |
| Pacific Dogwood | 59.4% | While direct knowledge base mentions of Cornus nuttallii in regenerative agriculture are limited, its potential benefits can be inferred from its ecological characteristics. Regenerative farmers often |
| Stone Pine | 59.4% | The provided sources offer limited explicit detail on why regenerative farmers specifically choose *Pinus pinea*. However, the information available points to its role within established agroecologica |
| Golden Rain Tree | 58.9% | While the provided knowledge base offers limited specific insights into *Koelreuteria elegans* within regenerative agriculture, general principles of regenerative farming suggest potential benefits. P |
| California Foothills Pine | 57.8% | Limited knowledge base coverage restricts a comprehensive understanding of why regenerative farmers specifically choose Pinus sabiniana. However, the available information suggests potential benefits |
| Bunya Bunya | 57.2% | While direct knowledge base excerpts regarding *Araucaria bidwillii*'s specific adoption in regenerative agriculture are limited, available information suggests potential benefits aligned with regener |
| Aleppo Pine | 56.7% | The provided sources offer limited insight into the specific reasons why regenerative farmers choose *Pinus halepensis* (Aleppo Pine). The knowledge base primarily focuses on its role in Mediterranean |
| Bald Cypress | 56.7% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Taxodium distichum (bald cypress) for its regenerative properties. The knowledge base primarily focu |
| California Buckeye | 56.7% | While specific mentions of Aesculus californica in regenerative agriculture literature are limited, existing information suggests its potential value within these systems. Its ecosystem services may i |
| Red Bay | 56.7% | The provided sources, totaling five mentions of Persea borbonia (redbay), offer limited insight into the specific reasons regenerative farmers choose this plant. The information available focuses on i |
| Kousa Dogwood | 56.1% | While direct knowledge base mentions of Cornus kousa in regenerative agriculture are limited, its potential benefits suggest reasons for its inclusion. As a multi-purpose woody perennial, it can contr |
| Sasanqua Camellia | 56.1% | While the provided knowledge base offers limited direct insights into *Camellia sasanqua*'s specific applications in regenerative agriculture, its potential benefits can be inferred from general regen |
| Longleaf Pine | 54.4% | While the provided sources do not explicitly detail why regenerative farmers choose Pinus palustris, they highlight several characteristics relevant to regenerative practices. The species' thick, fire |
| Manzanita | 54.4% | Regenerative farmers may select Arctostaphylos manzanita, commonly known as Manzanita, for its contributions to ecosystem services and farm system resilience, though detailed information on its integr |
| Pinyon Pine | 54.4% | While the provided sources focus on the ecological characteristics and resilience of Pinus edulis (pinyon pine) rather than its direct adoption by regenerative farmers, we can infer potential benefits |
| Vine Maple | 54.4% | While the provided knowledge base offers limited direct insights into *why* regenerative farmers specifically choose Acer circinatum, the general principles of regenerative agriculture suggest potenti |
| Deodar Cedar | 52.8% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose Cedrus deodara. However, available data suggests its potential role in soil health and carbo |
| Pin Oak | 51.1% | The provided knowledge base offers limited insight into why regenerative farmers specifically choose Pin Oak (<jats:italic>Quercus palustris</jats:italic>). While the sources do not directly address i |
| Douglas Fir | 48.9% | The provided knowledge base offers limited explicit information regarding why regenerative farmers specifically choose Douglas fir (Pseudotsuga menziesii). However, existing sources highlight its role |
| Notoginseng | 46.7% | The provided sources on Panax pseudoginseng notoginseng (P. notoginseng) offer limited direct insight into the specific reasons regenerative farmers choose this plant. However, the studies do highligh |
| Sitka Spruce | 46.1% | The provided sources offer limited insight into why regenerative farmers specifically choose Picea sitchensis (Sitka spruce). The majority of mentions focus on its role in commercial forestry and carb |
| Monterey Cypress | 44.4% | While the provided knowledge base offers limited direct insights into why regenerative farmers specifically select Cupressus macrocarpa, existing information suggests potential benefits aligning with |
| Chinese Wisteria | 43.9% | While explicit details on *Wisteria sinensis* in regenerative agriculture are limited in the provided knowledge base, its potential benefits can be inferred from its known ecological characteristics. |
| Black Spruce | 42.8% | While the provided sources focus on the ecological impacts of Picea mariana (black spruce) in boreal forest ecosystems, they offer limited insight into why regenerative farmers specifically choose thi |
| Italian Cypress | 42.8% | While specific regenerative agriculture literature detailing the use of Cupressus sempervirens is limited, its potential benefits within such systems can be inferred from its known ecological characte |
| Camphor Tree | 42.2% | The provided sources offer limited insight into why regenerative farmers specifically choose Cinnamomum camphora. The knowledge base primarily focuses on its role in subtropical plantation studies, ex |
| Japanese Maple | 42.2% | The provided sources offer limited insight into why regenerative farmers specifically choose *Acer palmatum*. The knowledge base primarily details its use in ornamental nursery settings and the impact |
| Tree Anemone | 40.6% | While the provided knowledge base offers limited specific details on *Carpenteria californica*'s use in regenerative agriculture, general principles of regenerative farming suggest potential reasons f |
| Heavenly Bamboo | 40.0% | Limited knowledge base coverage prevents a comprehensive explanation of why regenerative farmers choose Nandina domestica. While specific details are scarce, the plant's potential ecosystem services, |
| Chinese Fir | 38.9% | While the provided sources focus on <jats:italic>Cunninghamia lanceolata</jats:italic>'s role in reforestation and soil organic carbon dynamics, they offer insights relevant to regenerative agricultur |
| Giant Sequoia | 38.9% | Information regarding why regenerative farmers specifically choose *Sequoiadendron giganteum* is limited within the provided knowledge base. The texts focus on ecological characteristics and identific |
How Regenerative Scores Are Calculated
The regenerative score aggregates the trait dimensions shown in each plant's radar chart (excluding climate tolerance, which is already factored into zone suitability):
- System Value (2× weight)
- Time to Production
- Management Ease
- Integration Friendliness
- Multi-Benefit Value
Aggregation: Each trait is scored 1.0-3.0 (Limited → Typical → Exceptional). The regenerative score = (sum of weighted trait scores ÷ maximum possible) × 100. Profit Potential and System Value receive 2× weight because economic viability and ecosystem contribution are critical for supporting the transition to regenerative practices.
Click through to any plant to see its radar chart and detailed explanations for each trait dimension.
Cover Crops & Soil Builders (176)
| Plant Name | Score* | Description |
|---|---|---|
| White Lupin | 85.8% | While the provided knowledge base offers insights into *Lupinus albus* (white lupin) cultivation and its agronomic benefits, it offers limited direct explanation for *why* regenerative farmers specifi |
| Lima Bean | 76.7% | While the provided knowledge base offers limited direct insight into why regenerative farmers specifically choose *Phaseolus lunatus* (lima bean), the available data highlights its contributions to so |
| Oilseed Radish | 76.7% | Regenerative farmers select oilseed radish (Raphanus sativus) for its multifaceted contributions to ecosystem services and soil health. Its deep taproot excels at breaking up soil compaction, improvin |
| Rye | 75.8% | Regenerative farmers select rye (Secale cereale) primarily for its robust ecosystem services and soil-building capabilities. Sources highlight its effectiveness in erosion control, particularly on rol |
| Black Mustard | 75.0% | The provided sources offer limited direct insight into why regenerative farmers specifically choose black mustard (*Brassica nigra*) within their systems. However, available information suggests its u |
| Incarnate Clover | 75.0% | Regenerative farmers select crimson clover (Trifolium incarnatum) for its multifaceted contributions to ecosystem services and soil health. As a legume, it is a natural nitrogen fixer, enhancing soil |
| Common Comfrey | 73.3% | The provided sources do not specifically detail why regenerative farmers choose common comfrey (Symphytum officinale). However, they do highlight several plants and practices that illustrate the princ |
| Green Alder | 72.5% | The provided knowledge base offers limited insight into the specific reasons regenerative farmers choose *Alnus viridis*. Source indicates its use in Arctic research, highlighting its role in tall shr |
| Grey Alder | 72.5% | While the provided sources offer limited insight into the specific motivations of regenerative farmers for selecting *Alnus incana*, they highlight several key ecosystem services and soil benefits rel |
| Spring Vetch | 72.5% | Regenerative farmers select spring vetch (*Vicia sativa*) primarily for its role as a nitrogen-fixing legume, significantly contributing to nutrient cycling and reducing the need for synthetic nitroge |
| White Mustard | 72.5% | Regenerative farmers utilize white mustard (Sinapis alba) for its multifaceted benefits within diverse farming systems. Its rapid and aggressive growth makes it an effective cover crop, contributing t |
| Triticale | 71.7% | Triticale is selected by regenerative farmers for its versatile role in enhancing farm systems. Its rapid spring growth and cold hardiness make it a valuable component in winter cover crop mixes, cont |
| Alexandrian Clover | 70.8% | Regenerative farmers select *Trifolium alexandrinum*, commonly known as Egyptian clover or berseem, for its multifaceted contributions to farm ecosystem health and resilience. Its primary benefit lies |
| Jerusalem Artichoke | 70.8% | Regenerative farmers select Jerusalem artichokes (Helianthus tuberosus) for their significant contributions to soil health and ecosystem services. The plant's vigorous growth and deep root system enha |
| Milk Thistle | 70.8% | The provided sources offer limited insight into why regenerative farmers specifically choose Silybum marianum (milk thistle). While the plant is mentioned in studies related to salinity stress toleran |
| Winter Vetch | 70.8% | Regenerative farmers select winter vetch (Vicia villosa) for its multifaceted contributions to ecosystem services and soil health. As a legume, it excels at nitrogen fixation, enriching the soil and r |
| Kale | 70.0% | While the provided sources mention kale (Brassica oleracea var. acephala) in various agricultural contexts, including organic vegetable farming and livestock wintering, they offer limited direct insig |
| Common Sunflower | 69.2% | Regenerative farmers select common sunflower (Helianthus annuus) for its multifaceted contributions to farm ecosystem health and economic viability. While not explicitly detailed for nitrogen fixation |
| Industrial Hemp | 69.2% | Sources indicate regenerative farmers select industrial hemp primarily for its role in soil health and ecosystem services. While direct mentions of hemp's specific ecosystem services like nitrogen fix |
| Purple Top Turnip | 69.2% | Regenerative farmers select purple top turnip (Brassica rapa) for its multifaceted contributions to farm ecosystem health and resilience. While direct mentions of purple top turnip are limited, *Brass |
| Chicory | 68.3% | Regenerative farmers incorporate chicory (Cichorium intybus) due to its significant contributions to soil health and farm system resilience. Its deep taproot structure is instrumental in breaking soil |
| Russian Olive | 68.3% | Regenerative farmers may select Elaeagnus angustifolia for its nitrogen-fixing capabilities, a key ecosystem service that enhances soil fertility and reduces the need for synthetic fertilizers. Source |
| Swedish Clover | 68.3% | While the provided knowledge base offers limited explicit detail on the specific reasons regenerative farmers choose Swedish clover (Trifolium hybridum), it highlights several key ecosystem services a |
| White Sweet Clover | 68.3% | While the provided sources offer insights into white sweet clover's (Melilotus albus) ecological roles and agricultural utility, direct explanations from regenerative farmers detailing their specific |
| Yellow Sweet Clover | 68.3% | Regenerative farmers select yellow sweet clover (*Melilotus officinalis*) for its multifaceted benefits, significantly contributing to ecosystem health and farm resilience. Its deep root system is cru |
| Buckwheat | 66.7% | Regenerative farmers select buckwheat (<jats:italic>Fagopyrum esculentum</jats:italic>) for its multifaceted contributions to farm ecosystem services and soil health. While specific ecosystem services |
| Proso Millet | 66.7% | While the provided sources offer limited direct explanation on why regenerative farmers specifically choose *Panicum miliaceum* (proso millet) for its regenerative benefits, they highlight several rel |
| Sea Buckthorn | 65.8% | Regenerative farmers select Hippophae rhamnoides for its valuable ecosystem services and soil benefits. Sources highlight its role as a nitrogen-fixing shrub, contributing to nutrient cycling within t |
| Maiden Grass | 65.0% | While the provided sources do not explicitly detail the reasons regenerative farmers choose *Miscanthus sinensis*, they offer insights into its ecological functions and potential benefits. Source high |
| Cattail | 64.2% | The provided knowledge base offers limited insight into why regenerative farmers specifically choose *Typha latifolia* (broadleaf cattail) for their systems, focusing instead on its ecological functio |
| Common Dandelion | 64.2% | Regenerative farmers may tolerate or integrate common dandelion (Taraxacum officinale) into their systems due to several ecosystem services and soil benefits, even though direct mentions in the provid |
| Eastern Gamagrass | 64.2% | Limited knowledge base coverage restricts a comprehensive understanding of why regenerative farmers choose Tripsacum dactyloides (Eastern gamagrass). The provided sources focus on experimental agricul |
| Kura Clover | 64.2% | The provided knowledge base offers limited direct insight into the specific reasons regenerative farmers choose *Trifolium ambiguum* (kura clover). However, the sources do highlight its role in certai |
| Ground Elder | 63.3% | While direct knowledge base excerpts on Aegopodium podagraria's specific use in regenerative agriculture are limited, general knowledge of its characteristics suggests potential benefits. Its deep roo |
| Silverberry | 63.3% | While direct knowledge base excerpts for Elaeagnus x ebbingei in regenerative agriculture are limited, its selection by farmers can be inferred from its known characteristics and alignment with regene |
| Flax | 62.5% | Regenerative farmers select flax (*Linum usitatissimum*) for its role in enhancing farm system resilience and soil health. While the provided sources do not extensively detail flax's ecosystem service |
| Nutans Wild Rye | 62.5% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Elymus nutans. However, the available information highlights its significant role in ecosystem restorat |
| Quaking Aspen | 62.5% | While the provided sources focus on the ecological characteristics and soil benefits of Quaking Aspen (Populus tremuloides), they offer limited direct insight into why regenerative farmers specificall |
| Stinging Nettle | 62.5% | Regenerative farmers utilize stinging nettle (Urtica dioica) for its multifaceted contributions to farm ecosystems. While direct mentions of nitrogen fixation, pollinator support, erosion control, or |
| Sweet Gale | 62.5% | While direct information on Myrica gale's specific adoption by regenerative farmers is limited within the provided knowledge base, the plant's known characteristics suggest potential benefits aligned |
| Black Cottonwood | 61.7% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Populus trichocarpa*. However, they do highlight characteristics relevant to regenerative agricultu |
| Korshinsky Caragana | 61.7% | While the provided sources do not explicitly detail the reasons regenerative farmers choose Caragana korshinskii, they highlight its significant ecological impacts, suggesting potential benefits. Stud |
| Nodding Wild Rye | 60.8% | While the provided sources do not explicitly detail the reasons regenerative farmers select nodding wild rye (Elymus canadensis), their mentions offer insights into its ecological context. Source high |
| Red Fescue | 60.8% | The provided sources mention Festuca rubra (creeping red fescue) in the context of regenerative agriculture but offer limited direct insight into the specific reasons regenerative farmers choose this |
| Chickweed | 60.0% | While the provided sources mention *Stellaria media* (common chickweed) in regenerative agriculture contexts, they offer limited direct insight into the specific reasons farmers choose to integrate it |
| Black Cumin | 57.5% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Nigella sativa. However, they do highlight its potential benefits within agricultural systems. Sourc |
| Sheep's Fescue | 57.5% | The provided sources offer limited direct insight into the specific reasons regenerative farmers choose Festuca ovina (sheep's fescue). However, what is presented suggests its utility in degraded ecos |
| Blue False Indigo | 56.7% | While the provided sources do not extensively detail the specific reasons regenerative farmers choose blue false indigo (Baptisia australis), existing information suggests its potential value. One sou |
| Beetroot | 55.8% | While the provided sources do not extensively detail the specific reasons regenerative farmers choose Beta vulgaris, they offer insights into its potential role within such systems. Source highlights |
| Rugosa Rose | 55.0% | The provided knowledge base does not offer specific reasons why regenerative farmers choose Rosa Rugosa. The limited mentions in the text focus on general farming practices, crop rotations, and soil f |
| Common Mullein | 54.2% | While the provided sources do not explicitly detail why regenerative farmers choose Verbascum thapsus (Mullein) for specific ecosystem services like nitrogen fixation, pollinator support, erosion cont |
| Common Yarrow | 54.2% | Regenerative farmers select common yarrow (*Achillea millefolium*) for its multifaceted contributions to farm ecosystem health and resilience. Yarrow is incorporated into multispecies pastures, where |
| Siberian Elm | 54.2% | The provided sources offer limited insight into the specific reasons regenerative farmers choose *Ulmus pumila*. While *Ulmus pumila* is mentioned as a land use pattern in a study on soil organic carb |
| Staghorn Sumac | 54.2% | The provided sources mention Rhus typhina (Staghorn Sumac) as a pollen source for bees in feeding trials, alongside Taraxacum officinale and Crataegus sp.. However, these specific texts do not detail |
| Tall Goldenrod | 54.2% | The provided knowledge base offers limited direct insight into explicit reasons why regenerative farmers choose Solidago Altissima. However, source indicates interactions with other plants, suggesting |
| Lemon Balm | 53.3% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Melissa officinalis. However, they do highlight its role in soil studies. Source investigates Melissa o |
| Common Ash | 52.5% | While the provided sources do not explicitly detail the reasons regenerative farmers choose *Fraxinus excelsior* (European ash), they highlight its significant soil-related benefits. Studies indicate |
| Horseweed | 52.5% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Conyza canadensis* (*Conyza canadensis*), also known as horseweed. The knowledge base primarily dis |
| Caraway | 51.7% | While the provided sources do not explicitly detail the reasons regenerative farmers choose Carum carvi (caraway), they highlight its utility in agroecosystem improvement and soil health. Source demon |
| Parsnip | 51.7% | The provided sources on *Pastinaca sativa* (wild parsnip) focus primarily on its identification, hazards, and management due to its potential to cause phytophotodermatitis, a severe skin inflammation |
| Red Valerian | 51.7% | While the provided knowledge base has limited direct mentions of Centranthus ruber, existing information suggests its potential value in regenerative agriculture systems. Its deep root structure is li |
| Saxaul | 51.7% | While the provided sources do not explicitly detail why regenerative farmers choose *Haloxylon ammodendron*, they offer insights into its ecological roles and soil interactions. Studies indicate that |
| Austrian Pine | 50.8% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose Pinus nigra for its regenerative benefits. However, the sources highlight several characteri |
| Chinese Artichoke | 50.0% | While direct knowledge base excerpts on Stachys affinis within regenerative agriculture are limited, its inclusion by practitioners can be inferred from its potential ecosystem services and soil benef |
| Sweet Pea | 50.0% | While specific mentions of Lathyrus odoratus within regenerative agriculture literature are limited, existing information suggests potential benefits aligning with regenerative principles. The plant's |
| Wild Strawberry | 50.0% | While the provided sources offer limited insight into the specific economic drivers or livestock integration for Fragaria vesca in regenerative agriculture, they do highlight its potential ecosystem s |
| Showy Milkweed | 49.2% | While the provided sources mention Asclepias speciosa, they offer limited direct information on why regenerative farmers choose this specific plant. Source lists Showy Milkweed as part of a cover crop |
| Siberian Crabapple | 49.2% | The provided sources offer limited insight into the specific reasons why regenerative farmers choose *Malus baccata* (Siberian crabapple). However, they do highlight its potential roles within an ecos |
| Canadian Buffaloberry | 47.5% | While specific knowledge base excerpts detailing the reasons regenerative farmers choose Shepherdia canadensis are limited, its inclusion in regenerative systems can be inferred from its known ecologi |
| Japanese White Birch | 47.5% | The provided sources offer limited insight into the specific reasons regenerative farmers might choose *Betula platyphylla*. Three of the eight mentions focus on ecological studies, examining its role |
| Meadowsweet | 47.5% | While specific mentions of Filipendula ulmaria within the provided regenerative agriculture sources are limited, its inclusion in such systems can be inferred from its known ecological and agronomic p |
| Siberian Ginseng | 47.5% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Eleutherococcus senticosus. Source focuses on the plant's association with microbial communities in |
| Common Juniper | 45.0% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Juniperus communis* (juniper). Source identifies juniper bushes as a land cover type in revegetatin |
| Grassnut | 40.8% | While specific mentions of Triteleia Laxa within the provided regenerative agriculture sources are limited, its potential benefits align with common regenerative practices. Its deep root system sugges |
| Egyptian Riverhemp | 90.8% | The provided sources offer limited explicit detail on why regenerative farmers specifically choose Sesbania sesban (S. sesban). However, three studies highlight its role in agricultural systems, sugge |
| Velvet Bean | 90.0% | Regenerative farmers choose velvet bean (Mucuna pruriens) primarily for its significant contributions to soil health and ecosystem services. It is a highly effective nitrogen fixer, capable of supplyi |
| Coffeeweed | 85.8% | The provided sources offer limited direct insight into why regenerative farmers specifically choose coffeeweed (*Sesbania exaltata*) over other cover crops. However, existing information points to sev |
| Jack Bean | 85.8% | While the provided sources do not extensively detail the specific reasons regenerative farmers choose jack bean (*Canavalia ensiformis*), they highlight its potential ecosystem services and soil benef |
| Sunn Hemp | 85.0% | Regenerative farmers select sunn hemp (Crotalaria juncea) for its multifaceted contributions to ecosystem health and farm productivity. As a legume, it is recognized for nitrogen fixation, a key ecosy |
| Showy Rattlebox | 83.3% | While the provided sources offer limited insight into the specific reasons regenerative farmers choose *Crotalaria spectabilis*, they highlight its potential ecosystem services and soil benefits. Sour |
| Hummingbird Tree | 82.5% | The provided sources offer limited direct insight into the specific motivations behind regenerative farmers choosing Sesbania grandiflora. However, the information presented suggests several potential |
| Mexican Sunflower | 82.5% | While the provided knowledge base offers limited direct insights into the specific reasons regenerative farmers choose Tithonia rotundifolia (Tithonia rotundifolia), the available information, combine |
| Bluebonnet | 80.8% | While the provided sources offer insights into the cultivation and agronomic benefits of *Lupinus angustifolius* (narrow-leaved or blue lupin), they do not explicitly detail the specific reasons *why* |
| Lead Tree | 80.8% | Regenerative farmers select *Leucaena leucocephala* for its multifaceted contributions to farm system health and resilience. Its nitrogen-fixing capabilities are a key ecosystem service, enriching soi |
| Yellow Lupin | 80.8% | While the provided sources do not explicitly detail *why* regenerative farmers choose Lupinus luteus, they highlight several characteristics that align with regenerative principles. Lupinus luteus, or |
| Golden Wattle | 78.3% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Acacia saligna. However, they do highlight its ecological role, particularly its invasive status in som |
| Common Alder | 77.5% | While the provided sources do not extensively detail the specific reasons regenerative farmers choose *Alnus glutinosa* (black alder), they offer insights into its ecological functions. Source indicat |
| Japanese Knotweed | 77.5% | While the provided sources do not extensively detail why regenerative farmers *choose* Polygonum cuspidatum, they offer insights into its ecological characteristics and interactions within agricultura |
| Red Alder | 77.5% | The provided sources, while mentioning Alnus rubra (red alder), offer limited insight into the specific reasons regenerative farmers might choose this plant. The knowledge base primarily focuses on th |
| Subterranean Clover | 77.5% | Regenerative farmers select subterranean clover (*Trifolium subterraneum*) for its multifaceted benefits that enhance ecosystem services and farm system resilience. It is a valuable cover crop for nit |
| Mungbean | 76.7% | Regenerative farmers incorporate mung bean (Vigna radiata) for its multifaceted contributions to farm ecosystem health and resilience. As a legume, mung bean provides the crucial ecosystem service of |
| Scarlet Runner Bean | 76.7% | While the provided sources do not extensively detail the specific reasons regenerative farmers choose Phaseolus coccineus (scarlet runner bean), they highlight several beneficial attributes relevant t |
| Giant Reed | 75.8% | Regenerative farmers may consider *Arundo donax* (giant reed) for its potential to enhance soil health and farm system resilience, although its integration requires careful management due to its invas |
| Siam Weed | 75.0% | While the provided sources do not explicitly detail the motivations of regenerative farmers for choosing Chromolaena odorata, they offer insights into its potential roles. Studies indicate C. odorata |
| Black Wattle | 74.2% | While the provided sources do not explicitly detail *why* regenerative farmers choose Acacia mearnsii, they offer insights into its ecological and agricultural relevance. Source highlights its role as |
| Groundnut | 74.2% | Regenerative farmers select groundnut (Arachis hypogaea) for its multifaceted contributions to farm ecosystems and economic viability. While not explicitly detailed in the provided sources for all reg |
| Mimosa | 74.2% | While direct explanations for *Acacia dealbata*'s specific adoption in regenerative agriculture are limited in the provided sources, its characteristics suggest potential benefits aligned with regener |
| Amaranth | 73.3% | Regenerative farmers choose amaranth, specifically *Amaranthus cruentus*, for its multifaceted contributions to farm ecosystem health and resilience. While the provided sources do not directly detail |
| Bicolor Lespedeza | 73.3% | The provided sources, while limited in their direct discussion of *Lespedeza bicolor*'s selection by regenerative farmers, offer insights into the plant's potential ecological and agronomic contributi |
| Barrel Clover | 72.5% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Medicago truncatula*. However, the existing information points to potential benefits relevant to re |
| Broad Bean | 72.5% | Regenerative farmers select Vicia faba, or faba bean, for its contributions to soil health and system resilience. While the provided sources do not extensively detail all potential regenerative benefi |
| Chinese Milk Vetch | 72.5% | The knowledge base indicates that *Astragalus sinicus*, commonly known as Chinese milk vetch, is utilized in regenerative agriculture primarily as a green manure and organic amendment. Source demonstr |
| Bur Clover | 70.8% | The provided sources focus on the cultivation and integration of burr medic (*Medicago polymorpha*) as a living mulch and cover crop, rather than extensively detailing the specific economic or compreh |
| Crownvetch | 70.8% | The provided sources offer limited direct explanation for why regenerative farmers choose crown vetch (Coronilla varia). Source mentions crown vetch as one of many diverse crops grown on a farm practi |
| Grass Pea | 70.8% | The provided sources mention Lathyrus sativus, also known as grass pea or chickling vetch, in regenerative agriculture contexts but do not extensively detail the specific reasons for its selection by |
| Purple Clover | 70.8% | Regenerative farmers select purple clover (Trifolium pratense) for its multiple ecosystem services and soil-building capabilities. As a legume, it excels at nitrogen fixation, enriching soil fertility |
| Canary Island Broom | 70.0% | While specific reasons for regenerative farmers choosing Chamaecytisus palmensis are not extensively detailed in the provided sources, its selection can be inferred from its known ecological and agron |
| Italian Alder | 70.0% | While direct knowledge base coverage of *Alnus cordata* in regenerative agriculture is limited, available information suggests its potential value stems from several key ecosystem services and farm sy |
| Moso Bamboo | 70.0% | Regenerative farmers may incorporate Phyllostachys edulis, commonly known as Moso bamboo, for its potential to enhance soil health and farm system resilience. Studies indicate that Moso bamboo plantat |
| Amur Silvergrass | 69.2% | While the provided sources offer limited direct insight into the specific reasons regenerative farmers choose Miscanthus sacchariflorus, they highlight its potential for significant ecosystem services |
| Lacy Phacelia | 66.7% | Regenerative farmers select Lacy phacelia (Phacelia tanacetifolia) for its multifaceted contributions to ecosystem health and farm resilience. While specific details on all its benefits are not extens |
| Teff | 66.7% | While the provided sources offer limited direct insight into the specific reasons regenerative farmers choose Eragrostis tef (tef), they highlight its utility in agricultural systems. Source demonstra |
| Durum Wheat | 65.0% | The provided sources offer limited direct insight into the specific reasons regenerative farmers choose *Triticum turgidum* (durum wheat). However, the research does highlight its role in conservative |
| Japanese Millet | 65.0% | The provided sources offer limited insight into the specific reasons why regenerative farmers choose Echinochloa esculenta. However, several mentions highlight its role as a cover crop, particularly a |
| Wild Marigold | 65.0% | The provided sources indicate that regenerative farmers may choose *Tagetes minuta* for its pest management capabilities. Specifically, it is cited for its potential to deter root-knot nematodes and t |
| Creeping Bentgrass | 64.2% | While the provided knowledge base focuses on specific agronomic and pathological aspects of *Agrostis stolonifera* (creeping bentgrass), it offers limited direct insight into *why* regenerative farmer |
| Garden Cress | 64.2% | The provided sources offer limited insight into why regenerative farmers specifically choose Lepidium sativum, commonly known as garden cress or watercress, for their farming systems. These studies pr |
| Purple False Brome | 63.3% | The provided knowledge base offers limited insight into the specific reasons regenerative farmers choose *Brachypodium distachyon*. However, existing research highlights its utility as a model grass i |
| Purslane | 63.3% | The provided sources offer limited insight into why regenerative farmers specifically choose *Portulaca oleracea* (common purslane). While the knowledge base highlights its ecological characteristics |
| California Wax Myrtle | 62.5% | While direct mentions of Myrica californica within the provided regenerative agriculture sources are limited, its potential benefits align with core regenerative principles. Plants offering nitrogen f |
| Chia | 62.5% | While the provided sources do not directly explain why regenerative farmers choose Salvia hispanica (chia seeds), they highlight characteristics relevant to regenerative agriculture principles. Source |
| Indigobush | 62.5% | While the provided sources do not explicitly detail the reasons regenerative farmers choose Amorpha fruticosa, they highlight several key ecosystem services and soil benefits that likely contribute to |
| Paper Mulberry | 62.5% | While the provided sources do not explicitly detail why regenerative farmers choose *Broussonetia papyrifera*, they highlight its potential for ecosystem services and soil improvement. Source indicate |
| Sow Thistle | 62.5% | While the provided sources focus on the ecological and management characteristics of *Sonchus oleraceus* (Annual Sowthistle), they do not explicitly detail the reasons regenerative farmers choose this |
| Honey Mesquite | 61.7% | While the provided sources focus on the ecological impacts of *Prosopis glandulosa* (honey mesquite) encroachment, particularly its significant role in increasing soil total phosphorus through deep ro |
| Pinto Peanut | 61.7% | While the provided knowledge base offers limited direct insight into the specific reasons regenerative farmers choose *Arachis pintoi* (Pinto peanut), the sources highlight several key ecosystem servi |
| Velvet Mesquite | 61.7% | While the provided sources offer limited direct insight into the specific motivations of regenerative farmers for choosing Prosopis velutina, they highlight several key ecosystem services and farm sys |
| French Marigold | 60.8% | Limited knowledge base coverage restricts a comprehensive understanding of why regenerative farmers choose Tagetes patula. However, the provided sources highlight several potential benefits. Tagetes p |
| Shore Grass | 60.8% | The provided regenerative agriculture sources offer limited insight into the specific reasons farmers choose Paspalum vaginatum. However, the available information highlights its role in soil remediat |
| Borage | 60.0% | The provided sources do not offer specific details on why regenerative farmers choose borage (Borago officinalis). The knowledge base mentions borage in the context of an in vitro study investigating |
| Licorice | 60.0% | While the provided sources do not explicitly detail why regenerative farmers choose *Glycyrrhiza glabra* (licorice), they offer insights into its potential benefits within such systems. Source demonst |
| Silk Tree | 60.0% | The provided knowledge base, with 15 mentions of *Albizia julibrissin* (mimosa), offers limited insight into the specific reasons regenerative farmers choose this plant, focusing primarily on its role |
| Broadleaf Pepperweed | 59.2% | While direct knowledge base excerpts on *Lepidium latifolium* within regenerative agriculture are limited, existing mentions suggest its potential value. Regenerative farmers may select this plant for |
| Crofton Weed | 58.3% | knowledge base coverage on why regenerative farmers specifically choose Ageratina adenophora is limited. However, existing sources highlight its potential for ecosystem services and soil benefits. Stu |
| Sweet Alyssum | 58.3% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Lobularia maritima, often referred to as Sweet Alyssum. However, source highlights its role in attracti |
| Japanese Pagoda Tree | 57.5% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Sophora japonica* (Japanese pagoda tree) for their systems, focusing more on its botanical and ecol |
| Mile-A-Minute Vine | 57.5% | The provided sources indicate that Mikania micrantha is an invasive species that can outcompete native plants and significantly alter soil microbial communities and nutrient cycling. Source highlights |
| Chinese Wolfberry | 56.7% | The provided sources offer limited insight into the specific reasons regenerative farmers choose *Lycium chinense*. However, existing research indicates its potential role in ecological restoration an |
| Goji Berry | 56.7% | The provided sources offer limited direct insight into the specific reasons regenerative farmers choose <jats:italic>Lycium barbarum</jats:italic> (Goji berry/wolfberry). However, the research does hi |
| California False Indigo | 55.8% | While specific details on *Amorpha californica*'s adoption by regenerative farmers are limited in the provided knowledge base, the general principles of regenerative agriculture suggest its potential |
| California Wild Rose | 55.8% | While the provided knowledge base offers limited direct mentions of Rosa Californica within regenerative agriculture contexts, available information suggests its potential value stems from several key |
| Cardoon | 55.8% | While the provided sources do not explicitly detail the reasons regenerative farmers choose cardoon (Cynara cardunculus L.), they highlight its potential benefits within regenerative systems. Cardoon |
| Climbing Ground Cherry | 55.8% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose *Physalis heterophylla* for their systems. The mentions do not detail its ecosystem services |
| Common Rush | 55.8% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Juncus effusus. While Juncus effusus is mentioned in the context of peatland soil studies and its im |
| Nasturtium | 55.8% | The provided knowledge base offers limited insight into the specific reasons regenerative farmers choose Tropaeolum majus. The sources focus on its cultivation in controlled environments, such as plan |
| Seepweed | 55.8% | knowledge base coverage regarding the specific reasons regenerative farmers choose Suaeda glauca is limited. However, available sources indicate its role in improving saline and alkali-saline soils. A |
| Pot Marigold | 54.2% | While the provided sources mention Calendula officinalis (pot marigold) in regenerative agriculture contexts, they do not explicitly detail the reasons why farmers choose this plant for their systems. |
| Saltcedar | 54.2% | The provided sources offer limited insight into why regenerative farmers specifically choose *Tamarix ramosissima*. The current knowledge base focuses on ecological studies of *Tamarix ramosissima* wi |
| Spearmint | 54.2% | While the provided sources offer practical guidance on cultivating spearmint (*Mentha spicata*), they do not extensively detail the specific reasons regenerative farmers choose this plant for its ecos |
| Tamarisk | 54.2% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose Tamarix chinensis, focusing instead on its ecological roles in certain environments. The sou |
| Achira | 53.3% | While the provided text offers limited direct explanation for why regenerative farmers specifically choose *Canna edulis*, it highlights several of its beneficial attributes that align with regenerati |
| Annual Seepweed | 53.3% | The provided sources offer limited insight into the specific reasons regenerative farmers choose *Suaeda salsa*. However, the existing research highlights its role in coastal ecosystems and its intera |
| Broadleaf Arrowhead | 53.3% | While the provided knowledge base offers limited specific details on *Sagittaria latifolia*'s use in regenerative agriculture, its known ecological characteristics suggest potential benefits. *Sagitta |
| California Buckwheat | 53.3% | While the provided knowledge base offers limited direct insight into the specific reasons regenerative farmers choose *Eriogonum fasciculatum*, its characteristics suggest several potential benefits a |
| Glossy Privet | 52.5% | The provided sources, focusing on Ligustrum lucidum, offer limited direct insight into why regenerative farmers specifically choose this plant. However, the research highlights its potential for soil |
| Dayflower | 51.7% | Limited knowledge base coverage makes it challenging to definitively outline the specific reasons regenerative farmers choose Commelina communis. However, the available information suggests potential |
| Golden Currant | 51.7% | While the provided knowledge base offers limited direct insights into specific farmer choices regarding *Ribes aureum* in regenerative agriculture, its known ecological characteristics suggest several |
| Gotu Kola | 50.8% | The provided sources offer limited insight into why regenerative farmers specifically choose Centella asiatica. However, the available information highlights its potential for soil health improvement. |
| Smoke Bush | 50.8% | While the provided sources offer limited insight into the specific reasons regenerative farmers might choose *Cotinus coggygria*, they do highlight certain characteristics relevant to regenerative pra |
| Yellowhorn | 50.0% | knowledge base coverage regarding Xanthoceras sorbifolium's specific integration into regenerative agriculture systems is limited, offering few direct insights into farmer motivations. However, existi |
| Queen Anne's Lace | 49.2% | While the provided sources do not directly detail why regenerative farmers choose Queen Anne's Lace (Daucus carota), we can infer potential benefits based on its family and related practices. As a mem |
| Russian Sage | 49.2% | While the provided sources offer limited direct insights into the specific reasons regenerative farmers choose Perovskia atriplicifolia, general principles of regenerative agriculture suggest potentia |
| Lamb's Ears | 47.5% | knowledge base coverage regarding the specific reasons regenerative farmers choose Stachys byzantina (Lamb's ears) is limited. However, available information suggests potential benefits. Source notes |
| Sweet Cicely | 47.5% | While the provided knowledge base offers limited direct information on Myrrhis odorata's specific role in regenerative agriculture, its known characteristics suggest potential contributions. As a memb |
| Bunchberry | 46.7% | While specific details on *Cornus canadensis* (Canadian bunchberry) in regenerative agriculture are limited within the provided knowledge base, its potential benefits can be inferred from general ecol |
| Sweet Flag | 46.7% | While the provided sources do not explicitly detail *why* regenerative farmers choose Acorus calamus, they highlight its significant soil benefits and ecological roles. Source demonstrates Acorus cala |
| Hispid Honeysuckle | 45.8% | Limited knowledge base coverage for Lonicera Hispidula in regenerative agriculture necessitates a focused approach on its potential ecosystem services. While specific regenerative farming applications |
| Salal | 45.8% | While direct mentions of *Gaultheria shallon* within the provided regenerative agriculture knowledge base are limited, existing information suggests its potential utility in regenerative systems. Its |
| Scouring Rush | 45.8% | While direct mentions of Equisetum hyemale in regenerative agriculture literature are limited, its known ecological functions suggest potential benefits for regenerative systems. Its deep root structu |
| Oriental Arborvitae | 45.0% | While the provided sources do not explicitly detail the reasons regenerative farmers choose Platycladus orientalis, they offer insights into its ecological impact. Studies indicate that Platycladus or |
| Sweetgum | 45.0% | The provided sources offer limited insight into why regenerative farmers specifically choose Liquidambar styraciflua. The knowledge base primarily highlights its ecological role in fixing communities |
| Greater Periwinkle | 44.2% | While direct mentions of Vinca Major within regenerative agriculture contexts are limited in the provided knowledge base, existing information suggests potential benefits that align with regenerative |
| Slender-Leaf Waterleaf | 43.3% | While specific knowledge base excerpts detailing the reasons regenerative farmers choose Hydrophyllum tenuipes are limited, its inclusion in regenerative systems can be inferred from its known ecologi |
| Wild Ginger | 43.3% | Regenerative agriculture sources offer limited direct insights into the specific reasons for selecting Asarum caudatum. However, general principles of regenerative land management suggest potential be |
| Brake Fern | 41.7% | The provided sources focus on Pteris vittata's role in phytoremediation, particularly its capacity for arsenic phytoextraction and hyperaccumulation of toxic elements, rather than its integration into |
| Naked Lady | 41.7% | Limited knowledge base coverage necessitates a cautious approach when detailing specific farmer choices regarding Amaryllis Belladonna in regenerative agriculture. While the provided sources do not of |
How Regenerative Scores Are Calculated
The regenerative score aggregates the trait dimensions shown in each plant's radar chart (excluding climate tolerance, which is already factored into zone suitability):
- System Value (2× weight)
- Nitrogen Fixation
- Soil Building
- Weed Suppression
- Establishment Ease
- Adaptability
- Low Maintenance
Aggregation: Each trait is scored 1.0-3.0 (Limited → Typical → Exceptional). The regenerative score = (sum of weighted trait scores ÷ maximum possible) × 100. Profit Potential and System Value receive 2× weight because economic viability and ecosystem contribution are critical for supporting the transition to regenerative practices.
Click through to any plant to see its radar chart and detailed explanations for each trait dimension.
Vegetables & Specialty Crops (73)
| Plant Name | Score* | Description |
|---|---|---|
| Chives | 82.8% | The provided sources offer limited insight into the specific reasons regenerative farmers choose *Allium schoenoprasum* (chives). Both studies focus on evaluating homeopathic treatments for anthracnos |
| Garlic Chives | 82.8% | The provided knowledge base offers limited insight into why regenerative farmers specifically choose *Allium tuberosum* (garlic chives). However, existing research hints at potential benefits. One stu |
| New Zealand Spinach | 81.1% | The provided sources offer limited insight into the specific reasons regenerative farmers choose *Tetragonia tetragonioides*. However, the existing data points to its potential utility in certain agri |
| Garlic | 79.4% | While the provided sources do not extensively detail *Allium sativum*'s role in regenerative agriculture across all requested categories, they highlight specific benefits. Source demonstrates its util |
| Sage | 78.3% | The provided sources, while mentioning Salvia officinalis (sage) in agricultural contexts, offer limited direct insight into the specific reasons regenerative farmers choose this plant. The case studi |
| Onion | 77.8% | Regenerative farmers may select onion (Allium cepa) for its potential to enhance farm system resilience and contribute to soil health. While the provided sources do not directly detail onion's ecosyst |
| Tartary Buckwheat | 76.1% | While the provided sources focus heavily on the nutritional and health benefits of *Fagopyrum tataricum* (Himalayan Tartary buckwheat), they offer limited direct information on why regenerative farmer |
| Field Mint | 75.6% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose Mentha arvensis for its ecosystem services, soil benefits, livestock integration, or resilie |
| Black Chokeberry | 75.0% | The provided sources on Aronia melanocarpa (aronia/chokeberry) do not explicitly detail the reasons regenerative farmers choose this plant, particularly concerning ecosystem services, soil benefits, l |
| Spinach | 70.0% | Regenerative farmers select spinach (*Spinacia oleracea*) for its contributions to soil health and farm system resilience. While the provided sources do not extensively detail its role in nitrogen fix |
| Coneflower | 69.4% | Regenerative farmers may choose *Echinacea purpurea* for its potential to enhance farm system resilience and soil health. Sources indicate its use in meadow designs and interseeded into pastures, sugg |
| Butternut Squash | 68.9% | Regenerative farmers cultivate *Cucurbita moschata* for several reasons that align with ecological principles and farm resilience. While direct mentions of ecosystem services like nitrogen fixation or |
| Tomato | 68.3% | Regenerative farmers select Solanum lycopersicum, commonly known as tomato, for its multifaceted contributions to farm system health and economic viability. While the provided sources do not extensive |
| Bramble | 67.8% | While the provided sources focus on the nutritional and health benefits of Rubus species, their specific integration into regenerative agriculture systems and the rationale behind farmer adoption is n |
| Cranberry | 67.8% | While the provided sources focus on specific agricultural research concerning Vaccinium macrocarpon (cranberry), such as its response to subirrigation and yield optimization, disease management, and c |
| Strawberry | 67.8% | While the provided sources focus on specific management techniques for strawberry (<jats:italic>Fragaria</jats:italic> × <jats:italic>ananassa</jats:italic>) rather than the inherent regenerative bene |
| Leek | 67.2% | The provided sources mention *Allium ampeloprasum* (leek and elephant garlic) in several agricultural contexts, though direct explanations for *why* regenerative farmers specifically choose it are lim |
| Hops | 66.1% | While the provided sources do not explicitly detail why regenerative farmers choose *Humulus lupulus* (hops), they offer insights into its agricultural context and potential benefits. Source highlight |
| Burpee Tomato | 65.6% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose *Solanum burbankii* for its regenerative properties. The sources focus primarily on cultivat |
| Lettuce | 65.6% | While the provided sources focus on Lactuca sativa's (lettuce) response to various soil amendments and contamination, they offer insights into its integration within regenerative farming systems. Sour |
| Ramps | 64.4% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose Allium tricoccum (ramps). However, the sources do touch upon propagation methods, indicating |
| Cucumber | 63.3% | While the provided sources focus on specific cultivation practices and genetic distinctions of Cucumis sativus, they offer insights into its integration within regenerative systems. Source and highlig |
| Winter Squash | 63.3% | Regenerative farmers may choose Cucurbita maxima for several reasons, primarily related to its contributions to soil health and farm system resilience. While direct mentions of nitrogen fixation, eros |
| Asparagus | 62.2% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Asparagus officinalis for its ecosystem services, soil benefits, livestock integration, or economic |
| Angelica | 61.7% | While the provided sources offer limited direct insight into why regenerative farmers specifically choose Angelica archangelica, they highlight its potential ecosystem services and soil benefits. Sour |
| St. John's Wort | 61.7% | The provided sources offer limited insight into why regenerative farmers specifically choose Hypericum perforatum (St. John's Wort). The knowledge base primarily details its cultivation, phytochemical |
| Spicebush | 61.1% | The provided sources highlight Lindera benzoin (Spicebush) primarily for its ecological and culinary contributions, rather than explicitly detailing its integration into regenerative agriculture syste |
| Korean Ginseng | 60.0% | Current regenerative agriculture sources offer limited insight into the specific reasons farmers choose to integrate Panax ginseng into their systems. The provided texts primarily focus on the plant's |
| Squash | 60.0% | Regenerative farmers may choose to cultivate Cucurbita pepo, commonly known as zucchini and pumpkins, for several reasons that align with regenerative principles. While the provided sources do not exp |
| Opium Poppy | 58.9% | The provided sources offer limited insight into why regenerative farmers specifically choose Papaver somniferum (poppy) for its regenerative properties. Source highlights its potential for increased s |
| Statice | 58.9% | The provided sources offer limited insight into the specific reasons why regenerative farmers choose Limonium sinuatum. The primary information available focuses on its cultivation under a ratoon crop |
| Watermelon | 58.9% | Citrullus lanatus, commonly known as watermelon, is a valuable crop for regenerative farmers due to its contributions to soil health and farm system resilience. While the provided sources do not expli |
| American Ginseng | 53.3% | While the provided knowledge base offers limited direct insights into why regenerative farmers specifically choose Panax quinquefolius for its ecosystem services, soil benefits, livestock integration, |
| Saffron Crocus | 50.6% | While the provided sources do not explicitly detail why regenerative farmers choose *Crocus sativus* for its regenerative properties, they highlight several aspects relevant to such systems. The plant |
| Melon | 48.9% | Regenerative farmers may choose *Cucumis melo* for several reasons, although the provided sources offer limited direct information on its specific role within regenerative systems. Sources highlight * |
| Japanese Bunching Onion | 82.2% | The provided sources offer limited insight into the specific reasons regenerative farmers choose <jats:italic>Allium fistulosum</jats:italic> (<jats:italic>Welsh onion</jats:italic> or <jats:italic>sp |
| Shallot | 82.2% | The provided knowledge base offers limited insight into the specific reasons why regenerative farmers choose Allium ascalonicum (shallots). However, the sources do highlight its cultivation within int |
| Thyme | 81.7% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Thymus vulgaris (thyme) for its ecosystem services, soil benefits, livestock integration, or economi |
| English Lavender | 78.3% | The provided knowledge base offers limited direct insight into why regenerative farmers specifically choose *Lavandula angustifolia*. However, existing sources highlight several characteristics that a |
| Oregano | 78.3% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Origanum vulgare for its ecosystem services, soil benefits, integration with livestock, economic val |
| Rocket | 76.1% | The provided sources offer limited direct information on why regenerative farmers specifically choose rocket (<jats:italic>Eruca vesicaria</jats:italic>) for its regenerative properties. However, one |
| Spanish Lavender | 74.4% | The provided sources offer limited insight into the specific reasons regenerative farmers choose *Lavandula stoechas*. While *Lavandula Stoechas subsp. Luisieri* is mentioned as a unique Portuguese va |
| Joseph's Coat | 73.9% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Amaranthus tricolor. However, the studies do highlight its potential utility within agricultural system |
| Slim Amaranth ( | 73.9% | The provided knowledge base offers limited direct insights into why regenerative farmers specifically choose slim amaranth (Amaranthus hybridus) for its ecosystem services, soil benefits, livestock in |
| Water Spinach | 73.9% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Ipomoea aquatica. While the plant is identified as Chinese water spinach or water spinach, and its grow |
| Malabar Spinach | 73.3% | While the provided sources do not explicitly detail why regenerative farmers choose Basella alba (malabar spinach) for its regenerative properties, they offer insights into its cultivation and potenti |
| Napa Cabbage | 73.3% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Brassica chinensis. While the plant is mentioned in contexts related to pest management (flea beetle, p |
| Sweet Fennel | 73.3% | Regenerative farmers may choose sweet fennel (Foeniculum vulgare) for several ecosystem services and soil benefits. While specific mentions of fennel's nitrogen fixation or direct erosion control are |
| Parsley | 72.8% | While the provided knowledge base offers limited direct insights into why regenerative farmers specifically choose *Petroselinum crispum* (parsley), it highlights its utility in certain agricultural c |
| Winter Savory | 72.8% | While the provided sources do not explicitly detail the reasons regenerative farmers choose *Satureja montana*, they offer insights into its cultivation and potential benefits within such systems. One |
| Groundnut - | 71.7% | Regenerative farmers are drawn to Apios americana, commonly known as groundnut, for several key benefits. Its status as a legume means it is a nitrogen fixer, reducing the need for synthetic fertilize |
| Basil | 71.1% | While the provided sources mention *Ocimum basilicum* (basil) in several contexts, they offer limited direct insight into why regenerative farmers specifically choose this plant for its ecosystem serv |
| Coriander | 70.0% | The provided knowledge base offers limited direct insights into why regenerative farmers specifically choose Coriandrum sativum. However, the sources do highlight its cultivation within agricultural s |
| Eggplant | 68.3% | Regenerative farmers may choose to cultivate eggplant (Solanum melongena) for its contributions to soil health and farm system resilience. While the provided sources do not directly address all aspect |
| Celery | 67.8% | The provided knowledge base, while mentioning Apium graveolens (celery) in regenerative contexts, offers limited direct insight into the specific reasons farmers choose this plant for regenerative agr |
| Dill | 67.8% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Anethum graveolens (dill). While the texts highlight its potential applications and benefits, they do n |
| Roselle | 67.8% | While the provided sources do not explicitly detail the reasons regenerative farmers choose *Hibiscus sabdariffa* (Rosella), they offer insights into its potential benefits within such systems. Source |
| Sweet Marjoram | 67.8% | The provided sources, focusing on Origanum majorana (sweet marjoram), offer limited direct insight into why regenerative farmers specifically choose this plant for its broader systemic benefits. Howev |
| Tomatillo | 67.8% | Due to limited direct knowledge base excerpts specifically detailing Physalis philadelphica's role in regenerative agriculture, this explanation synthesizes potential benefits often associated with pl |
| Chili Pepper | 65.6% | The provided sources offer limited direct insight into why regenerative farmers specifically choose *Capsicum annuum* (bell pepper) within a regenerative system. However, source indicates its use in f |
| African Marigold | 64.4% | While the provided sources highlight the practical applications of Tagetes erecta within regenerative agriculture systems, they offer limited direct insight into the specific motivations behind its se |
| Bay Laurel | 64.4% | The provided sources offer limited explicit information on why regenerative farmers specifically choose Laurus nobilis. However, they do highlight certain characteristics that could align with regener |
| Sweet Potato | 64.4% | While the provided sources do not explicitly detail the reasons regenerative farmers choose *Ipomoea batatas*, they offer context for its inclusion in regenerative systems. Source indicates its use in |
| Bottle Gourd | 63.3% | The provided knowledge base, while mentioning Lagenaria siceraria (bottle gourd) in regenerative agriculture contexts, offers limited direct explanation for its selection by farmers. The sources highl |
| Okra | 63.3% | Regenerative farmers may select Abelmoschus esculentus (okra) for its potential to enhance soil health and farm system resilience. While the provided sources do not explicitly detail ecosystem service |
| Malanga | 60.0% | The provided sources on Xanthosoma sagittifolium (cocoyam) in regenerative agriculture primarily focus on its cultivation and soil improvement aspects, rather than explicitly detailing *why* regenerat |
| Tarragon | 58.9% | While specific mentions of Artemisia dracunculus in regenerative agriculture literature are limited, its potential benefits suggest several reasons for its inclusion. As a perennial herb, it likely co |
| Ashwagandha | 56.7% | The provided sources focus on agronomic research for Withania somnifera (Ashwagandha), detailing its cultivation with organic amendments like farmyard manure, vermicompost, castor cake, and biostimula |
| Oca | 56.1% | The provided sources offer limited insight into why regenerative farmers specifically choose Oxalis tuberosa (Oca). The texts primarily focus on cultivation requirements, such as the need for short da |
| Stevia | 56.1% | The provided sources offer limited insight into why regenerative farmers specifically choose Stevia rebaudiana. However, existing research highlights its potential for improving soil health and crop p |
| Cassava | 54.4% | Regenerative farmers may choose to cultivate cassava (*Manihot esculenta*) for its potential to enhance soil health and system resilience, though the provided sources offer limited insight into its sp |
| Tobacco | 52.2% | Regenerative farmers may incorporate Nicotiana tabacum into their systems for several reasons, primarily related to its economic value and potential for pest management. Sources indicate that improved |
| Schisandra | 50.6% | The provided sources offer limited insight into the specific reasons regenerative farmers might choose *Schisandra chinensis* for its ecosystem services or soil benefits. Source mentions *Schisandra c |
How Regenerative Scores Are Calculated
The regenerative score aggregates the trait dimensions shown in each plant's radar chart (excluding climate tolerance, which is already factored into zone suitability):
- Profit Potential (2× weight)
- Production Reliability
- Growing Ease
- Space Productivity
- Multi-Benefit Value
Aggregation: Each trait is scored 1.0-3.0 (Limited → Typical → Exceptional). The regenerative score = (sum of weighted trait scores ÷ maximum possible) × 100. Profit Potential and System Value receive 2× weight because economic viability and ecosystem contribution are critical for supporting the transition to regenerative practices.
Click through to any plant to see its radar chart and detailed explanations for each trait dimension.