# Cultivation of Inonotus hispidus on Jujube Wood Waste: Effects on Fruiting Body Biological Characteristics, Nutrients, Active Constituents and Metabolic Profiles

**Authors:** Guangjie Zhang, Shuaichun Huang, Ying Zhang, Dongmei Wu, Yuan Cheng, Hong Li, Changtian Li, Yu Li

PMC · DOI: 10.3390/jof12020143 · 2026-02-15

## TL;DR

Researchers found that jujube wood can be used to grow Inonotus hispidus, a medicinal and edible fungus, offering a sustainable alternative to traditional substrates.

## Contribution

This study demonstrates jujube wood as a viable cultivation substrate for Inonotus hispidus, promoting sustainability and resource reuse.

## Key findings

- Strain ZL showed the highest biological efficiency and fastest growth on 48% jujube wood substrate.
- Jujube wood-based substrates increased triterpenoids and flavonoids content in fruiting bodies.
- Metabolomic analysis revealed strain-specific and substrate-dependent changes in key metabolic pathways.

## Abstract

Inonotus hispidus is an important medicinal and edible fungus within the “Sanghuang” category, featuring a broad host range and rapid fruiting body growth. However, its wild resources are currently threatened by overharvesting. Simultaneously, large-scale jujube (Ziziphus jujuba) cultivation generates substantial pruning waste, often burned. This study explored the feasibility of using jujube wood as a cultivation substrate for I. hispidus. Three I. hispidus strains, Z1, Z2, and ZL, were cultivated on substrates with varying proportions of jujube wood replacing cottonseed hulls. The biological efficiency, nutritional components, active compounds, and free amino acid profiles of the resulting fruiting bodies were analyzed. Non-targeted metabolomics was used to investigate global metabolic changes. Results indicated that all strains successfully colonized the jujube-based substrates and produced fruiting bodies. Strain ZL exhibited the highest biological efficiency and the shortest growth period on the 48% jujube wood substrate, while others showed significantly increased triterpenoids and flavonoids content. Metabolomic analysis revealed substrate-dependent and strain-specific alterations in metabolic pathways, particularly in amino acid biosynthesis, the TCA cycle, and secondary metabolism. This study confirms jujube wood as a viable alternative substrate for the edible (ZL) and medicinal (Z1, Z2) cultivation of I. hispidus, providing a sustainable production method while establishing a valuable utilization pathway for jujube wood waste.

## Linked entities

- **Chemicals:** triterpenoids (PubChem CID 71597391)
- **Species:** Inonotus hispidus (taxon 40469), Ziziphus jujuba (taxon 326968)

## Full-text entities

- **Diseases:** nitrogen (MESH:D007222), injury to (MESH:D014947), toxicity (MESH:D064420), cancer (MESH:D009369)
- **Chemicals:** purine (MESH:C030985), terpenoid (MESH:D013729), peptides (MESH:D010455), nicotinamide (MESH:D009536), citrate (MESH:D019343), steroids (MESH:D013256), valine (MESH:D014633), beta-alanine (MESH:D015091), Leu (MESH:D007930), tyrosine (MESH:D014443), lignin (MESH:D008031), Polyphenol (MESH:D059808), water (MESH:D014867), phenol (MESH:D019800), marimastat (MESH:C100342), threonine (MESH:D013912), lime (MESH:C016538), glycine (MESH:D005998), ice (MESH:D007053), sulfuric acid (MESH:C033158), xanthohumol (MESH:C104536), glucose (MESH:D005947), glyoxylate (MESH:C031150), Flavonoids (MESH:D005419), isopropyl alcohol (MESH:D019840), Alkaloids (MESH:D000470), T3 (MESH:D014284), tryptophan (MESH:D014364), acetic acid (MESH:D019342), Glu (MESH:D018698), cellulose (MESH:D002482), Lys (MESH:D008239), EAA (MESH:D000601), hydroxyproline (MESH:D006909), trigonelline (MESH:C009560), 6,7,4'-trihydroxyisoflavone (MESH:C502164), fiber (MESH:D004043), OPA (MESH:D009764), proline (MESH:D011392), rotundine_A (MESH:C411206), methanol (MESH:D000432), 3-pyridylacetic acid (MESH:C550086), FAAs (-), sulfuretin (MESH:C054989), C (MESH:D002244), fatty acid (MESH:D005227), carbohydrates (MESH:D002241), Ala (MESH:D000409), acetonitrile (MESH:C032159), TCA (MESH:D014238), propanoate (MESH:D011422), Triterpenoids (MESH:D014315), phenylalanine (MESH:D010649), serine (MESH:D012694), vitamin B1 (MESH:D013831), 9-fluorenylmethyl chloroformate (MESH:C054007), N (MESH:D009584), MSG (MESH:D012970), isoleucine (MESH:D007532), MgSO4 (MESH:D008278)
- **Species:** Solanum tuberosum (potatoes, species) [taxon 4113], Fungi (kingdom) [taxon 4751], Stropharia rugosoannulata (wine cap, species) [taxon 68746], Inonotus hispidus (species) [taxon 40469], Ulmus macrocarpa (species) [taxon 1043716], Fraxinus mandshurica (Manchurian ash, species) [taxon 56029], Agaricus bisporus (common mushroom, species) [taxon 5341], Lentinula edodes (shiitake mushroom, species) [taxon 5353], Ziziphus jujuba (Chinese jujube, species) [taxon 326968], Pleurotus eryngii (species) [taxon 5323], Homo sapiens (human, species) [taxon 9606], Morus alba (white mulberry, species) [taxon 3498]

## Figures

6 figures with captions in the complete paper: https://tomesphere.com/paper/PMC12942167/full.md

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Source: https://tomesphere.com/paper/PMC12942167