Species
+

Hippophae rhamnoides L.

Himalayan berry, Nõglapai

Climate known 58 photographs
Add one to my plants Sow seed

Every figure on this page is derived from public data by a stated rule and says its source; nothing here is written by a person or a model, except the Wikipedia passage, which is quoted and marked as such. How it is made.

Summary

Sea-buckthorn, also known as sea buckthorn, sandthorn, sallowthorn or seaberry, is a species of flowering plant in the family Elaeagnaceae, native to cold-temperate regions of Eurasia. It is a spiny deciduous shrub. The fruit has culinary uses, while its extracts, including its oil, are used in the cosmetics industry and within traditional medicine. It is also used as animal fodder, in horticulture, and for ecological purposes.

Text from Wikipedia, “Sea buckthorn”, CC BY-SA 4.0, quoted as written. Kept separate from everything derived here.

About the genus · Hippophae

Hippophae is a genus of flowering plants in the family Elaeagnaceae. They are deciduous shrubs. They are exceptionally hardy plants, able to withstand winter temperatures as low as −43 °C (−45 °F). More on Wikipedia ›

The opening of Wikipedia, “Hippophae”, CC BY-SA 4.0, quoted as written.

Family
Elaeagnaceae
Described by
L.
Native to
Denmark, Finland, Great Britain +38
Wild records
403 in range· 104 open

At a glance

Warmest month
20°C
Jul, mean day; nights 15 °C (CHELSA)
Rain
854mm/yr
12 wet months · peak Oct 89 mm (CHELSA)
Light
4–36DLI
mol/m²/day, winter to summer, open sky (CHELSA shortwave)
In short condensed by rule from the cultivation cards · not written by a person
Rain rule: no season, 70% of the rain takes 8 months (June to January in the northern hemisphere). Habitat rain 854 mm a year, wettest October at 89 mm, driest April at 44 mm (habitat calendar, northern hemisphere). Open sky over the habitat: 4 to 36 mol/m²/day. Cold floor -6.0 °C (1st-percentile habitat night, NASA POWER).
Each sentence is one card's own one-line form, written by the same rule as the card (Its year, Rain, Light, Temperature); the note cannot say what a card does not. Months are given for the northern hemisphere (set your site in Settings to change this), and the habitat's own alongside. The cards · the figures.

Also known as Rhamnoides hippophii Moench.

Cultivation

Its year Rain rule: no season, 70% of the rain takes 8 months (June to January in the northern hemisphere).

This species’ habitat figures, and what two fixed rules read from them.

The rain rule reads no season: 70% of the year's rain (634 mm of 854 mm) takes 8 months, June to January. Mean temperature moves 13.9 °C between the warmest and coldest month. Months are the habitat's, northern hemisphere; shifted six months for a southern-hemisphere collection: December to July.

Read from the median year of CHELSA monthly rainfall and mean temperature across the envelope cells: the rain rule takes the smallest set of months carrying 70% of the rain and calls it winter when its mean is more than half a degree below the year's, summer when more than that above, and neither in between; the temperature rule, used only under 120 mm, names the cooler six months when they are at least a degree cooler than the other six. Months are shifted for the other hemisphere only where the temperature curve gives a season to reverse. A reading of the curves, not an observation of the plant.

Rain Habitat rain 854 mm a year, wettest October at 89 mm, driest April at 44 mm (habitat calendar, northern hemisphere).

This species’ habitat figures, with their source.

854 mm a year at the habitat, 634 mm of it June to January. Wettest month October at 89 mm, driest April at 44 mm. Across the envelope cells the year's total runs 607 mm to 1004 mm (10th to 90th percentile of each cell's own year) (median year across the envelope cells, CHELSA; habitat calendar, northern hemisphere).

CHELSA monthly precipitation, median year across the envelope cells. The rain that falls where the species is recorded; nothing about how the plant takes water.

Light Open sky over the habitat: 4 to 36 mol/m²/day.

This species’ habitat figures, with their source.

Open sky over the habitat: 4 to 36 mol/m²/day across the year (daily light integral, median year across the envelope cells, CHELSA; the lowest 10th-percentile month across the cells is 2, the highest 90th-percentile month 38).

CHELSA shortwave radiation at each envelope cell, a daily-mean flux taken to a daily total and converted at 2.07 mol of PAR per MJ. The sky over the habitat, measured; what reaches a plant under a rock, a shrub or a shade cloth is not.

Warmth and air Cold floor -6.0 °C (1st-percentile habitat night, NASA POWER).

This species’ habitat figures, with their source.

Temperature

Coldest: the 1st-percentile night over 44 years at the typical cell is -6.0 °C, the absolute minimum -13.7 °C, about 30 frost nights a year (NASA POWER daily minima). Warmest: the 99th-percentile day is 25.6 °C. Monthly means: coldest night 1.4 °C in February (across the envelope cells -6.4 °C to 3.1 °C), warmest day 20.1 °C in July (median year across the envelope cells, CHELSA). Cold floor: -6.0 °C, which is the 1st-percentile night over 44 years at the typical cell (NASA POWER).

NASA POWER daily minima and maxima 1981–2024 at the typical cell, without lapse correction; CHELSA monthly means, median year across the envelope cells, CHELSA. The cold floor is the figure named in its sentence. Not a measured survival limit for any plant in a pot.

Humidity

Relative humidity at the habitat: 61 to 67% across the year (monthly means, median year across the envelope cells, CHELSA). A figure about the air, saying nothing about how the plant takes water.

CHELSA relative humidity, median year across the envelope cells.

The figures the cards read from are in Climate below, and where they came from in Natural habitat.

Climate across the habitat

Habitat climate through the yearMean day from 5 °C in Jan to 20 °C in Jul; mean night from 1 °C in Feb to 15 °C in Aug. The cold quarter, Jan to Mar, is the three months around the coldest night. 854 mm of rain a year, most in Oct. The bands show the 10th to 90th percentile across 310 habitat cells. Over 44 years at the typical cell the absolute minimum was -13.7 °C and the 99th-percentile day 25.6 °C; neither is dated to a month. Beneath: daily light integral and relative humidity through the year, each on its own scale.-20°-10°10°20°30°frost25.6° 99th-percentile day (undated)-13.7° lowest night in 44 yrs (undated)°C · day and nightcold quarter0255075100125mm rainDLI 4–36RH 61–67 %JanFebMarAprMayJunJulAugSepOctNovDec
day night rain 10th–90th percentile across 310 habitat cells cold quarter: the three months around the coldest night extremes over 44 years at the typical cell, marked at the edge: undated DLI, mol/m²/dayRH %each on its own scale
Figures by month
JanFebMarAprMayJunJulAugSepOctNovDec
Day °C5 / -1–76 / -1–78 / 3–1011 / 8–1315 / 12–1818 / 15–2120 / 17–2320 / 18–2317 / 15–1914 / 9–159 / 4–106 / 0–7
Night °C2 / -6–41 / -6–33 / -3–55 / 1–69 / 6–1012 / 10–1315 / 13–1515 / 12–1612 / 9–149 / 4–116 / -1–73 / -5–5
Rain mm70 / 39–8256 / 34–6261 / 38–7544 / 34–6759 / 47–8769 / 55–9176 / 60–9879 / 61–9883 / 55–9789 / 48–11187 / 51–10281 / 47–95
DLI5 / 3–810 / 8–1317 / 16–2128 / 26–3034 / 32–3636 / 33–3835 / 32–3729 / 27–3119 / 18–2212 / 9–146 / 4–84 / 2–6
RH %67 / 64–6965 / 62–6764 / 60–6561 / 58–6361 / 58–6362 / 58–6462 / 58–6462 / 59–6463 / 61–6364 / 63–6566 / 64–6867 / 65–69

Each figure is the median across the 310 grid cells holding the 399 in-range records, with the 10th–90th percentile span across those cells after the slash where it differs. Extremes and elevation were read at the typical cell 739:3713 (53.025, 5.675). Over 44 years there: absolute minimum -13.7 °C, 1st-percentile night -6.0 °C, 99th-percentile day 25.6 °C. Normals: CHELSA V2.1 1981–2010 climatology, 0.05° cells (each the mean of ~36 1 km pixels). Envelope: median and 10th–90th percentile of each month across the 310 distinct grid cells holding the 399 in-range records; extremes and elevation at the typical cell 739:3713 (its coldest month's mean night nearest the median across cells); its position is the cell centre. Extremes: NASA POWER (MERRA-2) daily 1981–2024, cell 53.00_5.625, no lapse correction (POWER gave no cell elevation). Elevation: ETOPO 2022, 0 m (cell mean).

Natural habitat

Native range as published by WCVP; the marker is where the records are densest and decides nothing: the climate was read across every in-range record's cell, not at the marker.
Openly licensed records inside the range, framed on where they fall.
NativeDenmark, Finland, Great Britain, Norway, Sweden, Austria, Belgium, Czechoslovakia, Germany, Hungary, Netherlands, Poland, Switzerland, France, Spain, Bulgaria, Italy, Romania, Yugoslavia, Baltic States, Northwest European Russia, Ukraine, Altay, Buryatiya, Irkutsk, Tuva, Kazakhstan, Kirgizistan, Turkmenistan, Tadzhikistan, Uzbekistan, North Caucasus, Afghanistan, Iran, Turkey, China South-Central, Tibet, Xinjiang, Mongolia, Pakistan, West Himalaya· introduced: Ireland, Albania, Belarus, Central European Russia, East European Russia, North European Russia, South European Russia, Krasnoyarsk, West Siberia, Amur, Kamchatka, Khabarovsk, Primorye, Sakhalin, Yukon, Alberta, Saskatchewan, Ontario, Québec, Ohio, Chile South
Kew's description“shrub” · “temperate”· quoted from WCVP, RBG Kew (CC BY 4.0); not derived here
Map marker51.845, 3.989 · in the densest population, 166 records (41% of those in range)
Evidence usedThe map marker and the climate envelope rest on all 403 georeferenced records inside the native range; the map shows only the 104 openly licensed ones, which alone would put the marker 548 km away. 24 records outside the range (gardens, roadsides, misidentifications) ignored. 4 in-range records are placed to worse than 10 km and stay on the map but off the climate.
The map markerthe map marker: the openly licensed record nearest the middle of the densest 1° population of the 403 in-range records; it decides nothing.

Photographs

Hippophae rhamnoidesHippophae rhamnoidesHippophae rhamnoidesHippophae rhamnoidesHippophae rhamnoidesHippophae rhamnoidesHippophae rhamnoidesHippophae rhamnoides

Photographs: (c) Нурхайдарова Татьяна, some rights reserved (CC BY); (c) Conrad Altmann, some rights reserved (CC BY); no rights reserved · CC0 (6).

Photographs: iNaturalist and GBIF media did not answer when this page was built; what is shown came from the sources that did.

Papers naming this species

Works whose title or abstract names Hippophae rhamnoides, most cited first, from OpenAlex (CC0). A mention, not a cultivation source: nothing on this page is drawn from them.

Changes in Antioxidant Effects and Their Relationship to Phytonutrients in Fruits of Sea Buckthorn (Hippophae rhamnoides L.) during Maturation
Xiangqun Gao, Maria Ohlander, N. Jeppsson, Lars Björk (2000) · Journal of Agricultural and Food Chemistry
Isorhamnetin: A review of pharmacological effects
Gang Gong, Ying‐Yun Guan, Zhonglin Zhang, Khalid Rahman (2020) · Biomedicine & Pharmacotherapy
Medicinal and therapeutic potential of Sea buckthorn (Hippophae rhamnoides L.)
Geetha Suryakumar, Asheesh Gupta (2011) · Journal of Ethnopharmacology
Sea Buckthorn Products: Manufacture and Composition
Tom Beveridge, Thomas S. C. Li, B. Dave Oomah, Allen J. Smith (1999) · Journal of Agricultural and Food Chemistry
Radioprotective Potential of Plants and Herbs against the Effects of Ionizing Radiation
Ganesh Chandra Jagetia (2007) · Journal of Clinical Biochemistry and Nutrition
Green synthesis of palladium nanoparticles using Hippophae rhamnoides Linn leaf extract and their catalytic activity for the Suzuki–Miyaura coupling in water
Mahmoud Nasrollahzadeh, S. Mohammad Sajadi, Mehdi Maham (2014) · Journal of Molecular Catalysis A Chemical
Why is sea buckthorn (Hippophae rhamnoides L.) so exceptional? A review
Zuzana Ciesarová, Michael Murkovic, Karel Cejpek, František Kreps (2020) · Food Research International
Structure−Antioxidant Efficiency Relationships of Phenolic Compounds and Their Contribution to the Antioxidant Activity of Sea Buckthorn Juice
Daniel Rösch, Meike Bergmann, Dietrich Knorr, Lothar W. Kroh (2003) · Journal of Agricultural and Food Chemistry
Antioxidant, cytoprotective and antibacterial effects of Sea buckthorn (Hippophae rhamnoides L.) leaves
Nitin K. Upadhyay, M.S. Yogendra Kumar, Asheesh Gupta (2010) · Food and Chemical Toxicology
Anti-oxidant and immunomodulatory properties of seabuckthorn (Hippophae rhamnoides)—an in vitro study
S Geetha, M. Sai Ram, Virendra Singh, G. Ilavazhagan (2002) · Journal of Ethnopharmacology

Similar habitat climate the 6 species whose habitat climate is nearest this one's: mean day and night, month by month, and rain on a log scale, in calendar order, so a habitat with the same seasons six months out is far, not near. Nothing else counts: not range, not family.

History & registers

Where this page came from built 2026-09-20 · dossier v2 · node
gbif.species answeredcarried from build of 2026-09-20 (offline re-derivation; the backbone was not asked)
gbif.synonyms answeredcarried from build of 2026-09-20 (offline re-derivation; the backbone was not asked)
gbif.vernacular answeredcarried from build of 2026-09-20 (offline re-derivation; the backbone was not asked)
wcvp.distribution answered
gbif.occurrences answeredGBIF occurrence search API
climate answered
wikidata answeredcarried from build of 2026-09-20 (rederive); that build: carried from build of 2026-09-19 (rederive); that build: carried from build of 2026-09-19 (rederive)
wikipedia answeredcarried from build of 2026-09-20; this build: skipped
inat.taxon not askedcarried from build of 2026-09-20 (rederive)
inat.photos.wild answeredcarried from build of 2026-09-20; this build: skipped
inat.photos.cultivated nothing to reportcarried from build of 2026-09-20 (rederive); that build: carried from build of 2026-09-19 (rederive); that build: carried from build of 2026-09-19 (rederive)
commons nothing to reportcarried from build of 2026-09-20 (rederive); that build: carried from build of 2026-09-19 (rederive); that build: carried from build of 2026-09-19 (rederive)
gbif.media did not answercarried from build of 2026-09-20 (rederive); that build: api.gbif.org not asked: offline re-derivation
openalex answeredcarried from build of 2026-09-20; this build: skipped

Every upstream is recorded as having answered, reported nothing, or refused. Only “nothing to report” is ever shown as an absence. Records came from 10 datasets via GBIF.org; each carries its own licence.