{"id":815,"date":"2026-05-28T07:53:18","date_gmt":"2026-05-28T07:53:18","guid":{"rendered":"https:\/\/rock-crusher-tractor.com\/?p=815"},"modified":"2026-05-28T07:53:18","modified_gmt":"2026-05-28T07:53:18","slug":"korean-highland-legume-year-green-manure-soil-health-rotation","status":"publish","type":"post","link":"https:\/\/rock-crusher-tractor.com\/ko\/korean-highland-legume-year-green-manure-soil-health-rotation\/","title":{"rendered":"\ud55c\uad6d \uace0\uc0b0 \ucf69\uacfc \uc2dd\ubb3c\uc758 \ud574 - 4\ub144 \uc724\uc791\uc5d0\uc11c \ub179\ube44\uc791\ubb3c, \ud53c\ubcf5\uc791\ubb3c \ubc0f \ud1a0\uc591 \uac74\uac15 \ud68c\ubcf5"},"content":{"rendered":"
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Korean Highland Legume Year \u2014 Green Manure, Cover Crops, and Rebuilding Soil Health in the 4-Year Rotation<\/h1>\n

Three years of potato, radish, and cabbage production extract from Korean highland soil. The legume year is the one year in four when the farm puts organic nitrogen back rather than taking it out \u2014 and a managed legume year reduces the following potato year’s fertiliser cost by 15\u201325%.<\/p>\n

Soil Health System Consultation<\/a><\/p>\n<\/div>\n<\/div>\n

<\/p>\n

The Korean highland 4-year crop rotation \u2014 potato (Year 1), radish (Year 2), cabbage (Year 3), legume (Year 4) \u2014 is described in the rotation calendar article as a disease management and stone management framework. The agronomic rationale for Year 4 extends beyond disease break: the legume year is the only year in the rotation when the soil actively gains fixed nitrogen from atmospheric N\u2082, gains organic matter from deep-rooting cover crop biomass, gains structural improvement from the legume root network’s physical channelling of the soil profile, and rebuilds the microbial community diversity that supports plant nutrient cycling in the following three years. Managing the legume year well determines, more than any other single rotation decision, how much mineral fertiliser the potato year needs and how productive the soil remains over successive rotation cycles.<\/p>\n

This article covers the legume year management decisions that most Korean highland farms make informally or inconsistently: which species to plant, when to establish and terminate the cover crop, how to manage the stone clearing requirement in the legume year (which is genuinely lighter than for root crops), and how the PSW-3200 \ub85c\ud130\ubca0\uc774\ud130<\/a> incorporates the legume residue to make its nitrogen and organic matter available to the following potato crop.<\/p>\n

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Why the Legume Year Matters \u2014 The Soil Health Accounting View<\/h2>\n

\"Korean<\/p>\n

Korean highland granite soils have low natural nutrient reserves and below 2% organic matter on most un-amended sites. Each year of potato, radish, or cabbage production removes significant nutrient quantities in the harvested crop \u2014 nitrogen, potassium, and phosphorus that must be replaced by mineral fertiliser in the following season. The legume year breaks this extraction cycle:<\/p>\n

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Biological nitrogen fixation (BNF)<\/p>\n

Legume root nodules hosting Rhizobium bacteria fix atmospheric N\u2082 into plant-available ammonium. A well-managed Korean highland legume cover crop fixes 80\u2013200 Kg N\/ha over the growing season \u2014 equivalent to 60\u201380% of the potato year’s total nitrogen requirement. When the legume biomass is incorporated by the PSW-3200 in autumn, this fixed nitrogen mineralises over the winter and spring, becoming available to the potato crop’s root system from the first weeks after planting. The economic value: at Korean compound NPK fertiliser prices, 80\u2013150 Kg available N from legume BNF represents a fertiliser cost saving of 200,000\u2013400,000 KRW\/ha in the following potato year.<\/p>\n<\/div>\n

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Organic matter addition<\/p>\n

A full-season legume cover crop produces 3\u20136 t\/ha of above-ground biomass plus 1\u20133 t\/ha of root biomass. When incorporated, this 4\u20139 t\/ha organic input increases soil organic matter by approximately 0.1\u20130.3% per rotation cycle on Korean highland granite soils. Over four rotation cycles (16 years), consistent legume year management raises organic matter from below 1% to 1.5\u20132.0% \u2014 improving water retention, nutrient holding capacity, and microbial activity in the potato, radish, and cabbage years of subsequent rotations.<\/p>\n<\/div>\n

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Soil structure and erosion protection<\/p>\n

Legume roots \u2014 especially those of red clover and hairy vetch \u2014 penetrate the Korean highland granite soil profile to 40\u201360 cm, creating permanent channels that improve drainage, reduce compaction from the previous years’ machinery traffic, and provide pathways for the following potato crop’s roots to access deeper profile moisture. The above-ground legume cover also protects bare Korean highland slopes from the erosion that is the single most destructive force on terrace structure during the July\u2013August monsoon season.<\/p>\n<\/div>\n<\/div>\n

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Legume Species Selection \u2014 The Four Options for Korean Highland Altitude<\/h2>\n

Not all legume species perform equally at Korean highland altitude. The choice is constrained by cold tolerance (the species must survive or establish before the first autumn frost at 600 m), biomass production (higher biomass = more N fixed and more organic matter returned), and PSW-3200 incorporation ease (species with thick stems are more difficult to incorporate than fine-stemmed species):<\/p>\n

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Hairy Vetch (Vicia villosa)<\/span>
\nRECOMMENDED FIRST CHOICE<\/span><\/div>\n
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BNF rate:<\/strong> 100\u2013160 Kg N\/ha<\/div>\n
Cold tolerance:<\/strong> Survives to \u201315\u00b0C \u2014 fully hardy at 600 m<\/div>\n
Establishment:<\/strong> September seeding after cabbage harvest<\/div>\n
Termination:<\/strong> PSW-3200 incorporation May (before potato preparation)<\/div>\n<\/div>\n

Hairy vetch overwinters reliably at Korean highland altitude, establishes quickly in September, and produces the highest N-fixation of any commonly available Korean highland legume cover crop. Its fine, vine-like stems are easily incorporated by the PSW-3200 without the tangling problems that thicker-stemmed legumes create. The twining growth habit means hairy vetch also provides effective slope erosion protection during the July\u2013August monsoon \u2014 the dense interlocking biomass resists rainfall impact better than upright-growing species. First choice for the Korean highland legume year on all field types and altitudes.<\/p>\n<\/div>\n

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Red Clover (Trifolium pratense)<\/span>
\nSTRONG ALTERNATIVE<\/span><\/div>\n
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BNF rate:<\/strong> 80\u2013140 Kg N\/ha<\/div>\n
Cold tolerance:<\/strong> Hardy to \u201320\u00b0C \u2014 suitable all Korean highland altitudes<\/div>\n
Establishment:<\/strong> Spring (May) or autumn (September) seeding<\/div>\n
Option:<\/strong> 2-year clover stand if full legume year is available<\/div>\n<\/div>\n

Red clover’s deep taproot (40\u201360 cm) provides the greatest soil structural improvement of the common Korean highland legume species \u2014 its root channels persist for 2\u20133 years after incorporation, providing drainage pathways for the potato crop’s roots in Year 1. Red clover can be maintained as a 2-year stand if the farmer’s rotation allows a full legume block year without the pressure to return the land to vegetable production \u2014 the second clover year typically produces higher biomass and BNF than the first year as the root system matures. PSW-3200 incorporation of mature red clover (dense, stemmy biomass at 2+ years) requires two passes and benefits from pre-chopping if possible.<\/p>\n<\/div>\n

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Soybean (Glycine max)<\/span>
\nCOMMERCIAL DUAL-PURPOSE<\/span><\/div>\n

Korean highland soybean is planted May\u2013June and harvested September\u2013October. BNF rate: 60\u2013100 Kg N\/ha. Unlike hairy vetch and clover (which are pure cover crops with no market value), soybean generates commercial revenue from seed harvest (Korean highland soybean has a premium market for premium dried beans). The tradeoff: harvested soybean removes the above-ground nitrogen from the field as seed rather than returning it via incorporation \u2014 only the root biomass (approximately 30\u201340% of total N fixed) remains in the soil after harvest. For farms where the legume year must generate income, soybean is the correct choice. For farms where the legume year’s primary goal is soil improvement (and income comes from the other three rotation years), hairy vetch or red clover are more effective.<\/p>\n<\/div>\n<\/div>\n

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Stone Management in the Legume Year \u2014 Why the Requirement Is Genuinely Lighter<\/h2>\n

\"PSW-3200<\/p>\n

The legume year is the only year in the 4-year rotation where the zero-tolerance stone clearance standard does not apply. Legume cover crops \u2014 hairy vetch, red clover, peas \u2014 do not have a taproot that forks around stones (unlike radish), a tuber that bruises from stone contact (unlike potato), or a bulb that is damaged at harvest by the undercutter bar encountering stones (unlike onion). The legume’s roots grow laterally around stones without damage, and the above-ground biomass is incorporated by the PSW-3200 without sensitivity to residual stone presence in the soil.<\/p>\n

The stone management decision for the legume year is therefore a pragmatic cost-benefit assessment rather than a crop-quality imperative:<\/p>\n

\n\n\n\n\n\n\n\n
Scenario<\/th>\nLegume year stone management<\/th>\n\ucd94\ub9ac<\/th>\n<\/tr>\n<\/thead>\n
Established cleared field \u2014 Year 4 in rotation<\/td>\nEP-EW-4000 surface pass only<\/td>\nAnnual frost-heave re-emergents collected. Legume crop is unaffected by sub-surface residual stones. Reserve the THOR 2.4 for the potato year block (Year 1) where zero-tolerance is required. EP-EW-4000 on legume year = one morning’s work vs THOR 2.4 full-day operation.<\/td>\n<\/tr>\n
High frost-heave year \u2014 significant stones on surface<\/td>\nTHOR 2.4 shallow pass (15 cm) + EP-EW-4000<\/td>\nLarge surface stones can impede PSW-3200 legume incorporation in autumn. If surface stone density is above 4 stones >20 Kg per 100 m\u00b2, a THOR 2.4 shallow pass reduces this burden before establishment. The THOR pass in the legume year also advances the stone clearance work for the following year’s potato preparation.<\/td>\n<\/tr>\n
New land entering rotation for the first time in Year 4<\/td>\nTHOR 2.4 full clearance (25 cm)<\/td>\nIf new land enters the rotation, the legume year provides an opportunity for THOR 2.4 clearance without the time pressure of a root crop planting window. Full clearance in the legume year means the potato year block is already cleared and only needs EP-EW-4000 maintenance \u2014 this is the most efficient way to sequence new land development into the rotation.<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n<\/div>\n

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PSW-3200 Legume Incorporation \u2014 Making the Nitrogen Available to the Following Potato Year<\/h2>\n

The timing and method of legume cover crop incorporation determines how much of the fixed nitrogen becomes available to the following potato crop. Incorporation timing interacts with Korean highland climate conditions and the mineralisation rate of legume tissue in Korean granite soils:<\/p>\n

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Optimal incorporation timing \u2014 October before first frost:<\/span><\/p>\n

Incorporate hairy vetch or red clover in October \u2014 after the biomass has reached maximum nitrogen concentration (just before or at early flowering for hairy vetch) but before the first hard frost kills the biomass standing. October soil temperature at 600 m is still above 8\u00b0C \u2014 adequate for the initial microbial decomposition phase to begin before winter freezing. The decomposition that begins in October\u2013November continues slowly through the winter and accelerates in March\u2013April as soil temperature rises \u2014 delivering mineralised nitrogen to the potato root zone precisely at the time of the April potato planting.<\/p>\n<\/div>\n

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PSW-3200 double pass for complete incorporation:<\/span><\/p>\n

A single PSW-3200 pass may leave partially incorporated biomass mats at the soil surface \u2014 particularly for hairy vetch, which has dense vine biomass that can pile up on the surface without being thoroughly mixed into the soil profile. Two PSW-3200 passes at 20 cm depth \u2014 the first incorporating the bulk of the biomass, the second mixing the partially incorporated material into finer contact with soil particles \u2014 ensures complete burial and uniform distribution of the organic material through the 0\u201320 cm tillage zone. Thoroughly incorporated biomass decomposes 2\u20133\u00d7 faster than surface-placed material because soil contact maximises microbial access.<\/p>\n<\/div>\n

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Carbon-to-nitrogen ratio consideration:<\/span><\/p>\n

The C:N ratio of the legume biomass at incorporation determines how quickly the fixed nitrogen becomes available. Young, soft legume tissue (hairy vetch at early flowering: C:N approximately 10\u201315:1) mineralises rapidly and delivers most of its nitrogen within 4\u20138 weeks of incorporation. Mature, stemmy red clover biomass at second-year cut (C:N approximately 20\u201325:1) mineralises more slowly \u2014 some nitrogen may not be available until 8\u201312 weeks after incorporation. For the best nitrogen timing alignment with the potato planting window, incorporate hairy vetch in October for April potato planting \u2014 the 5\u20136 month interval at Korean highland winter temperatures is sufficient for most of the nitrogen to mineralise and be available at planting. Do not rely on nitrogen from late-incorporated (March) legume biomass in the same spring \u2014 insufficient time for mineralisation before planting.<\/p>\n<\/div>\n<\/div>\n

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Calculating the Legume N-Credit \u2014 How Much to Reduce Potato Year Fertiliser<\/h2>\n

\"Korean<\/p>\n

The practical application of the legume year’s nitrogen benefit is a reduction in the mineral nitrogen application rate in the following potato year. This reduction must be calculated carefully \u2014 over-crediting the legume contribution and under-applying mineral N produces yield loss; under-crediting it and applying full mineral N wastes fertiliser cost and risks excess nitrogen in tubers:<\/p>\n

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N-credit calculation method for Korean highland legume year:<\/p>\n

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1\ub2e8\uacc4:<\/span>Estimate legume biomass at incorporation. Walk the field and estimate coverage density: full canopy (more than 80% ground cover) = high biomass category; partial canopy (50\u201380%) = medium; poor stand (below 50%) = low. Record the coverage assessment in the farm diary.<\/div>\n
2\ub2e8\uacc4:<\/span>Apply the N-credit table: hairy vetch full coverage = 60\u201390 Kg available N\/ha credit; hairy vetch medium coverage = 35\u201355 Kg; red clover full coverage (Year 2 stand) = 70\u2013100 Kg; soybean full harvest (roots only) = 25\u201340 Kg. Use the midpoint of the range in absence of more specific data.<\/div>\n
3\ub2e8\uacc4:<\/span>Subtract the N-credit from the potato year’s target mineral N application rate. If the potato year variety target is 120 Kg N\/ha (moderate rate for Sumi) and the hairy vetch full-coverage credit is 75 Kg N\/ha: apply 120 \u2013 75 = 45 Kg mineral N\/ha in the potato year. Split this reduced mineral N across the base application at furrowing (50%) and top-dress at hilling (50%) as described in the nutrient management guide.<\/div>\n
\uacb0\uacfc:<\/span>Compared to a potato year following a non-legume crop with no N credit: mineral N application reduced by 75 Kg\/ha \u00d7 Korean highland compound NPK cost = approximately 150,000\u2013200,000 KRW\/ha saving per rotation cycle from legume year BNF alone. On a 4 ha legume block: 600,000\u2013800,000 KRW fertiliser saving in the following potato year from one season of hairy vetch cover crop management.<\/div>\n<\/div>\n<\/div>\n


\n\"Korean<\/p>\n

The Disease Break Value \u2014 What the Legume Year Suppresses Beyond What Stone Clearing Addresses<\/h2>\n

Stone clearing addresses the physical and mechanical crop damage that stones cause. The legume year rotation addresses the soil-borne disease pressure that physical stone clearing cannot reduce. The diseases that accumulate under continuous Solanaceae (potato) or Brassica (radish, cabbage) production and that are suppressed by the legume year break:<\/p>\n

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Potato cyst nematode (Globodera species):<\/span><\/p>\n

Potato cyst nematode cysts can remain viable in Korean highland soil for 15\u201320 years without a host crop. Under continuous potato production (without the rotation break), cyst populations increase to commercially significant levels within 3\u20135 seasons, producing characteristic “sick soil” symptoms \u2014 patches of stunted yellow plants that appear healthy from above but show severely galled roots when dug. The legume year \u2014 particularly with hairy vetch, which does not host potato cyst nematode \u2014 allows the hatched juveniles that emerge in response to root exudates to die without completing their life cycle, progressively reducing the viable cyst population.<\/p>\n<\/div>\n

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Rhizoctonia solani (Black scurf):<\/span><\/p>\n

Rhizoctonia is ubiquitous in Korean highland granite soils and cannot be eliminated by any management practice \u2014 but its severity is reduced by the rotation break that prevents the continuous building of sclerotia under successive potato crops. The legume year’s organic matter addition also supports the microbial community diversity that suppresses Rhizoctonia through biological competition \u2014 soils above 2% organic matter consistently show lower Rhizoctonia-caused crop losses than equivalent low-organic soils.<\/p>\n<\/div>\n

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Verticillium wilt (Verticillium dahliae):<\/span><\/p>\n

Verticillium causes premature senescence of Korean highland potato crops \u2014 older lower leaves yellow and die from mid-season, reducing the tuber bulking period. The legume year rotation break, combined with the organic matter increase that supports beneficial microbial Verticillium suppression, is the primary management tool for Verticillium in Korean highland potato \u2014 no registered Korean fungicide provides effective Verticillium control once the crop is infected.<\/p>\n<\/div>\n<\/div>\n

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\uc790\uc8fc \ubb3b\ub294 \uc9c8\ubb38<\/h2>\n
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\nCan I skip the legume year and just apply more fertiliser to maintain potato yields?<\/summary>\n

Yes, in the short term \u2014 Korean highland potato yields can be maintained with high mineral fertiliser rates even without a legume rotation year. However, the non-nitrogen soil health benefits of the legume year (nematode suppression, disease break, organic matter accumulation, soil structure) cannot be replaced by mineral fertiliser alone. The progressive depletion of soil health under continuous vegetable production without a legume break produces a trajectory of increasing fertiliser requirement, increasing disease pressure, and decreasing yield response per fertiliser unit over successive seasons. After 6\u20138 years of continuous Solanaceae + Brassica production without a legume year, Korean highland farms consistently show elevated nematode pressure, reduced organic matter, and structural compaction that reduce the ROI of every machine and input investment. The legume year’s value is not just the nitrogen it provides \u2014 it is the only management practice available to Korean highland farms that can reverse the direction of soil health trajectory.<\/p>\n<\/details>\n

\nDoes hairy vetch affect the pH of Korean highland granite soils?<\/summary>\n

Legume cover crop incorporation has a small but positive effect on Korean highland soil pH \u2014 the organic acids produced during decomposition of legume biomass have a buffering effect that slightly stabilises pH in the 5.8\u20136.5 range that Korean highland crops require. The effect is minor compared to direct lime application (the primary pH management tool) but contributes to pH stability between lime applications. More significantly, the organic matter added by legume incorporation increases the cation exchange capacity (CEC) of Korean highland granite soils \u2014 improving the soil’s ability to hold and buffer pH against the acidifying effect of ammonium-form nitrogen fertilisers. Farms that consistently manage the legume year find that their lime application requirement to maintain target pH gradually decreases over successive rotation cycles as organic matter increases and CEC improves.<\/p>\n<\/details>\n

\nHow does the EP-DESTROYER compost barn system interact with the legume year?<\/summary>\n

The EP-DESTROYER compost barn system and the legume year are complementary but independent soil health inputs. Farms that have cattle operations alongside their highland vegetable production use the EP-DESTROYER composted manure as the primary organic matter input \u2014 applied at 10\u201315 t\/ha in the potato year or legume year block. Where compost is applied at 15 t\/ha consistently, the legume year’s organic matter contribution is supplementary rather than primary. However, even with consistent compost application, the legume year rotation break provides the disease suppression and nematode management benefits that compost alone cannot deliver \u2014 the rotation itself (not the organic matter from the rotation) is what interrupts the pest and disease life cycles. A farm with both EP-DESTROYER compost output AND a legume year cover crop achieves the fastest soil organic matter accumulation (compost + legume biomass in the same year) and the most complete soil health rebuilding programme available to Korean highland farms.<\/p>\n<\/details>\n

\nCan the legume year block be used for Korean highland ginseng instead?<\/summary>\n

Ginseng in the standard 4-year highland rotation creates a significant compliance complication \u2014 ginseng is a 6-year crop that requires fields that have not grown ginseng for a minimum 10\u201315 years before replanting. If ginseng is planted in the Year 4 block, that block becomes unavailable for ginseng again for a decade. More critically, ginseng’s intensive soil preparation requirements (deep tilling, precise shade structure, strict disease management) are fundamentally incompatible with the 4-year rotation’s machinery-optimised preparation sequence. Most Korean highland farms treat ginseng as a separate long-term land commitment outside the vegetable rotation rather than integrating it into the annual rotation cycle. For farms with both vegetable rotation land and dedicated ginseng fields, the two land uses are managed as parallel but separate systems with the THOR 2.4 deployed on both systems at different times of year as described in the ginseng stone clearing guide.<\/p>\n<\/details>\n

\nIs hairy vetch seed available through Korean agricultural cooperatives?<\/summary>\n

Yes \u2014 hairy vetch and red clover seed are both available through the Korean agricultural cooperative (nong-hyup) seed supply channel in most Gangwon-do counties. The National Institute of Crop Science (NICS) has released certified Korean highland-adapted hairy vetch and red clover varieties that are distributed through the cooperative channel at subsidised seed prices for cover crop establishment. Soybeans are available through the same channel as food-grade varieties certified for Korean highland altitude. For autumn-planted cover crops (September establishment for hairy vetch), order seed in July\u2013August through the county cooperative to ensure availability before the September seeding window. Korea Watanabe can provide guidance on which county cooperative offices stock highland-adapted legume cover crop seed and the correct ordering procedure for the current season’s availability.<\/p>\n<\/details>\n<\/div>\n

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Legume Year Integration \u2014 Rotation Planning and Soil Health System<\/p>\n

Current rotation + field block map + organic matter level (from October soil test) \u2192 legume species recommendation with N-credit calculation and PSW-3200 incorporation schedule for the following potato year. Korea Watanabe, Ansan-si, Gyeonggi-do.<\/p>\n

\uc9c0\uae08 \ubc14\ub85c \uc5f0\ub77d\uc8fc\uc138\uc694<\/a><\/p>\n<\/div>\n

\ud3b8\uc9d1\uc790: Cxm<\/p>\n<\/div>","protected":false},"excerpt":{"rendered":"

Korean Highland Legume Year \u2014 Green Manure, Cover Crops, and Rebuilding Soil Health in the 4-Year Rotation Three years of potato, radish, and cabbage production extract from Korean highland soil. The legume year is the one year in four when the farm puts organic nitrogen back rather than taking it out \u2014 and a managed […]<\/p>","protected":false},"author":1,"featured_media":0,"comment_status":"open","ping_status":"open","sticky":false,"template":"","format":"standard","meta":{"_et_pb_use_builder":"","_et_pb_old_content":"","_et_gb_content_width":"","footnotes":""},"categories":[31],"tags":[],"class_list":["post-815","post","type-post","status-publish","format-standard","hentry","category-application-and-technical-guid"],"_links":{"self":[{"href":"https:\/\/rock-crusher-tractor.com\/ko\/wp-json\/wp\/v2\/posts\/815","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/rock-crusher-tractor.com\/ko\/wp-json\/wp\/v2\/posts"}],"about":[{"href":"https:\/\/rock-crusher-tractor.com\/ko\/wp-json\/wp\/v2\/types\/post"}],"author":[{"embeddable":true,"href":"https:\/\/rock-crusher-tractor.com\/ko\/wp-json\/wp\/v2\/users\/1"}],"replies":[{"embeddable":true,"href":"https:\/\/rock-crusher-tractor.com\/ko\/wp-json\/wp\/v2\/comments?post=815"}],"version-history":[{"count":3,"href":"https:\/\/rock-crusher-tractor.com\/ko\/wp-json\/wp\/v2\/posts\/815\/revisions"}],"predecessor-version":[{"id":824,"href":"https:\/\/rock-crusher-tractor.com\/ko\/wp-json\/wp\/v2\/posts\/815\/revisions\/824"}],"wp:attachment":[{"href":"https:\/\/rock-crusher-tractor.com\/ko\/wp-json\/wp\/v2\/media?parent=815"}],"wp:term":[{"taxonomy":"category","embeddable":true,"href":"https:\/\/rock-crusher-tractor.com\/ko\/wp-json\/wp\/v2\/categories?post=815"},{"taxonomy":"post_tag","embeddable":true,"href":"https:\/\/rock-crusher-tractor.com\/ko\/wp-json\/wp\/v2\/tags?post=815"}],"curies":[{"name":"wp","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}