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The 62 pages that link to Orbital hybridisation, each with the reason it gives.

• Selective breedingRelated: Crossing can introduce variation that breeders then select in later generations.

• Plant breedingRelated: Crossing parental plants creates offspring with new combinations of inherited traits.

• Carbonyl groupRelated: The carbonyl carbon is approximately sp2-hybridized and trigonal planar.

• Gene flowRelated: Hybrid offspring can carry alleles across population boundaries and back into either population through later reproduction.

• DNA barcodingRelated: Hybrid organisms may carry a barcode inherited from only one parental lineage.

• Conjugated systemRelated: The hybridization of atoms determines whether each can retain a p orbital for conjugation.

• SpeciesRelated: Hybridization can blur boundaries and sometimes transfer genes across species.

• CultivarRelated: A deliberate cross may produce the plant selected as the origin of a cultivar.

• Tetrahedral molecular geometryRelated: The sp³ model is commonly used to describe bonding directions in tetrahedral molecules.

• Cryptic speciesRelated: Hybridization complicates the interpretation of genetic differences used in species delimitation.

• Sexual reproductionRelated: It deliberately combines inherited material from distinct lineages.

• CarbonRelated: Carbon’s sp, sp², and sp³ bonding corresponds to different structures and shapes.

• Species DelimitationRelated: Hybridization can complicate boundaries by allowing gene exchange between otherwise distinct lineages.

• Darwin's finchesRelated: Finch hybrids can inherit trait combinations that selection may favor or remove.

• Species complexRelated: Hybridization can blur boundaries and complicate genetic evidence for separation.

• Species problemRelated: Hybridization shows that distinct species can exchange genes without losing their separate identities.

• Carbon–carbon bondRelated: Carbon’s hybridization helps explain the geometries of its different bond orders.

• Bond angleRelated: Hybrid orbital directions help account for familiar angles such as 109.5°.

• Bird taxonomyRelated: Hybridization complicates bird boundaries and can transfer genes across named species.

• ConformationRelated: Bond geometry constrains rotations and the shapes a molecule can adopt.

• BasicityRelated: The s-character of a basic atom’s orbital influences its electron-pair availability.

• CladeRelated: Hybrid ancestry can blur boundaries between otherwise distinct clades.

• Species conceptRelated: Hybridization tests how sharply species boundaries limit interbreeding and gene exchange.

• RoseRelated: Rose breeders used crosses among species and cultivars to create new flower forms and habits.

• AllopolyploidyRelated: It brings chromosome sets from different species together in one organism.

• Bactrian camelRelated: Interbreeding with domestic camels is a concern for the genetic integrity of wild populations.

• Ernst MayrRelated: Hybridization challenges any simple equation of species boundaries with complete reproductive separation.

• Water buffaloRelated: Domestic buffalo can interbreed with wild buffalo, complicating conservation of the wild form.

• Carbon–fluorine bondRelated: Carbon orbital character influences C–F bond length and strength in different molecular settings.

• CichlidRelated: Hybridization can create variation but may also blur boundaries among closely related cichlids.

• Human–chimpanzee last common ancestorRelated: Possible interbreeding after initial separation is considered when reconstructing hominin and ape histories.

• Double bondRelated: The orbital arrangement around a double-bonded atom helps account for its planar geometry.

• Trigonal pyramidal molecular geometryRelated: The central atom is often described with approximately sp³ hybrid orbitals in introductory models.

• Bent molecular geometryRelated: Hybridization offers a complementary orbital account of the central atom’s bonding arrangement.

• Plant reproductionRelated: Crosses between plant lineages can introduce new trait combinations.

• Japanese giant salamanderRelated: Crossbreeding with introduced Chinese giant salamanders can erode the native species’ genetic distinctiveness.

• PupfishRelated: Pupfish hybridization has produced rapid evolutionary change in some isolated desert lakes.

• TaraxacumRelated: Hybridization contributes to genetic diversity and complicates dandelion classification.

• Wild water buffaloRelated: Interbreeding with domestic buffalo can threaten the genetic integrity of wild populations.

• William FarrerRelated: Crossing wheat lines offered a way to assemble useful traits in new varieties.

• BantengRelated: Interbreeding with domestic cattle can threaten the genetic distinctiveness of wild banteng.

• BrantaRelated: Branta geese can hybridize, complicating species boundaries and ancestry.

• CirsiumRelated: Hybridization occurs in some Cirsium groups and can complicate species identification.

• DiacetyleneRelated: The triple-bonded carbons in diacetylene are described as sp hybridized.

• Double bond ruleRelated: Hybridization helps describe the orbital arrangements involved in multiple bonding.

• Grey junglefowlRelated: Hybridization with domestic chickens can affect the genetic integrity of wild junglefowl.

• Phylogenetics of flowering plantsRelated: Reticulate ancestry can make flowering-plant evolution depart from a simple branching tree.

• Sika deerRelated: Sika deer can hybridize with red deer, raising concerns about genetic integrity.

• TimemaRelated: Hybridization has contributed to the origins of some parthenogenetic Timema lineages.