Plants for Arid
Hay & Grazing Crops (20)
| Plant Name | Score* | Description |
|---|---|---|
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| Pencil Cactus | 36.2% | Limited knowledge base coverage prevents a comprehensive understanding of why regenerative farmers specifically choose Cylindropuntia Leptocaulis. However, the available information suggests potential |
| 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 |
| Rhodes Grass | 72.9% | The provided sources offer limited direct insight into the specific reasons regenerative farmers choose Chloris Gayana (Rhodes grass). However, existing data suggests its utility in pastureland improv |
| Bermuda Grass | 71.9% | Cynodon dactylon, commonly known as bermudagrass, is chosen by some regenerative farmers for its potential to improve soil health and farm system resilience, although its aggressive nature requires ca |
| 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 |
| 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 |
| 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 |
| 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 |
| 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. |
| Puncturevine | 52.4% | While the provided knowledge base offers limited direct insights into regenerative farmers' specific motivations for integrating Tribulus terrestris, general principles of regenerative agriculture sug |
| 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 |
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 |
|---|---|---|
| Tepary Bean | 73.3% | The provided sources indicate that *Phaseolus acutifolius*, or tepary bean, is valued in regenerative agriculture primarily for its exceptional resilience, particularly in hot and dry environments. It |
| 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 (33)
| Plant Name | Score* | Description |
|---|---|---|
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| Lebbeck Tree | 81.1% | While the provided sources mention Albizia lebbeck (lebbeck tree) in the context of regenerative agriculture, they offer limited specific insights into the explicit reasons farmers choose this species |
| 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 |
| Tamarind | 80.0% | While the provided sources offer limited direct insight into the specific reasons regenerative farmers choose *Tamarindus indica*, they highlight its potential contributions to soil health and agroeco |
| Gum Arabic Tree | 76.7% | While the provided sources offer insights into *Vachellia nilotica*'s role in regenerative agriculture, they do not explicitly detail the specific reasons why regenerative farmers choose this plant. H |
| Baobab | 74.4% | While the provided sources offer limited direct insight into why regenerative farmers specifically choose Adansonia digitata (baobab), they highlight several of its beneficial attributes relevant to r |
| 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 |
| Neem | 72.2% | Regenerative farmers may choose *Azadirachta indica* for its multifaceted benefits, particularly its role in pest management and drought tolerance. Source highlights its effectiveness as a botanical c |
| 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 |
| 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 |
| 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 |
| 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 |
| Pomelo | 66.1% | The provided sources on Citrus maxima (pomelo) do not explicitly detail the reasons regenerative farmers choose this plant. However, the studies highlight its cultivation within regenerative framework |
| Physic Nut | 63.9% | While the provided knowledge base offers limited direct explanations for why regenerative farmers specifically choose Jatropha curcas, the sources highlight several agriculturally beneficial propertie |
| Royal Poinciana | 60.0% | The provided sources offer limited direct insight into why regenerative farmers specifically choose Delonix Regia. However, the information available suggests potential benefits within regenerative sy |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| Frangipani | 43.9% | While the provided knowledge base offers limited direct insights into Plumeria rubra's specific applications in regenerative agriculture, its botanical characteristics suggest potential benefits. Rege |
| 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 |
| Canary Island Date Palm | 42.2% | While the provided sources offer limited direct insight into why regenerative farmers specifically choose *Phoenix canariensis*, they highlight a key ecosystem service: its natural capacity as a phosp |
| Chinese Fan Palm | 40.6% | While the provided knowledge base offers limited specific details on Livistona Chinensis within regenerative agriculture, its potential benefits can be inferred from general ecological principles and |
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 (32)
| Plant Name | Score* | Description |
|---|---|---|
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| Bocking 14 | 75.0% | While the provided sources offer limited explicit detail on the comprehensive reasons regenerative farmers select Bocking 14 comfrey, one source highlights its significant value at Tapenoth Farm. It i |
| Castor Bean | 75.0% | Limited knowledge base coverage restricts a comprehensive understanding of why regenerative farmers choose Ricinus communis. However, available sources indicate its integration into cropping systems f |
| 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 |
| 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 |
| Guar | 68.3% | While the provided sources focus on the agricultural performance of cluster bean (Cyamopsis tetragonoloba), they offer limited direct insight into the specific reasons regenerative farmers choose this |
| 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 |
| 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 |
| Vetiver | 66.7% | The provided sources offer limited insight into the specific reasons regenerative farmers choose Chrysopogon zizanioides (vetiver grass). The knowledge base focuses on its phytoremediation capabilitie |
| Bambara Groundnut | 65.8% | While the provided knowledge base offers insights into the cultivation of Bambara groundnut (*Vigna subterranea*), it does not explicitly detail the specific regenerative agriculture motivations for i |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| 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 |
| Parthenium Weed | 54.2% | While the provided sources do not explicitly detail why regenerative farmers choose to integrate *Parthenium hysterophorus* into their systems, they offer insights into its ecological functions and po |
| 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 |
| 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 |
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 (26)
| Plant Name | Score* | Description |
|---|---|---|
| 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 |
| 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 |
| 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 |
| Drumstick Tree | 78.9% | Regenerative farmers select Moringa oleifera for its multifaceted benefits that enhance farm system resilience and soil health. Its remarkable drought tolerance and potential disease resistance contri |
| 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 |
| 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 |
| Rosemary | 75.6% | While the provided knowledge base offers limited direct insight into the specific economic or livestock integration reasons regenerative farmers choose Rosmarinus officinalis, it highlights several ke |
| Habanero | 70.6% | While the provided sources focus on the cultivation and yield of <jats:italic>Capsicum chinense</jats:italic> (habanero pepper) under various agricultural conditions, they offer limited direct insight |
| Lemongrass | 70.6% | While the provided sources do not extensively detail the specific reasons regenerative farmers choose Cymbopogon citratus (lemongrass) for its ecosystem services, soil benefits, integration with lives |
| Bitter Melon | 68.3% | The provided sources offer insights into the cultivation and yield of Momordica charantia (bitter gourd) within specific agricultural research contexts, but do not extensively detail the underlying re |
| 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 |
| 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 |
| Pineapple Sage | 65.6% | While the provided sources focus on the culinary and medicinal uses of Salvia elegans, offering insights into its edibility, flavor, and historical applications in teas for calming anxiety and depress |
| 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 |
| Tiger Nut | 64.4% | While the provided knowledge base offers limited direct insight into why regenerative farmers specifically choose *Cyperus esculentus* for its ecosystem services, soil benefits, livestock integration, |
| 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 |
| 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 |
| 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 |
| 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 |
| Aloe Vera | 53.3% | Regenerative farmers may choose aloe vera for its multi-purpose utility and resilience within a farm system. Several sources highlight its potential for pest management, noting that aloe vera juice ca |
| 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 |
| 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 * |
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.