Biological / Snatcher
- Name
- Snatcher
- Taxonomic Class
- Symbiotic Levitation Scavenger Bioform
- Homeworld
- Unknown
- Known Range
- Korba feeding zones, vertical predation chambers, clustered swarm routes, and territories where Korba digestion supports secondary feeders
- Diet / Power Source
- Korba-expelled remains, scavenged tissue, small weakened organisms, and nutrients gained through symbiotic feeding cycles
- Threat Response
- Swarm attachment, levitation of captured targets, prey delivery to Korba, and group harassment despite low individual strength
- Reproduction / Development
- Unconfirmed brood cycle, swarm maturation near Korba feeding sites, juvenile scavenging, and probable communal development around shared nutrient waste
- Physiological Summary
- Snatcher is a weak but cunning bioform whose danger comes from swarm coordination and its feeding partnership with Korba. Archive teams should record lifting behavior, carcass transfer, and expelled nutrient remains with the same care as individual bodies, because the relationship defines the hazard.

Overview
The Snatcher is a small symbiotic bioform that compensates for limited killing power through swarm behavior and partnership with Korba. Legacy notes describe the species overwhelming targets, levitating captured prey, and lifting victims into Korba feeding range. The Snatcher benefits from remains the larger organism cannot digest. This detail remains important for containment planning, survey routing, and comparative ecology review.
This relationship is the center of the dossier. Snatchers do not need to finish prey on their own if they can move it into another organism's feeding structure. The result is a cooperative predation system in which the smaller bioform acts as collector, carrier, and scavenger while the Korba performs the destructive feeding.
Homeworld remains unverified in the current archive, so the record is organized around confirmed behavior rather than an asserted origin. Any survey that finds Snatchers without Korba should still search for compatible feeding structures nearby, because the relationship may persist through hidden chambers or seasonal movement. This detail remains important for containment planning, survey routing, and comparative ecology review.
Anatomy And Physiology
Snatcher anatomy supports attachment, clustering, and levitation rather than direct tearing strength. The body must grip or bind to a target long enough for the group to lift it, while internal field organs provide the upward force. Individual weakness is offset by many bodies applying the same behavior at once.
The levitation mechanism is the species' most important physiological feature. It allows Snatchers to move prey through vertical space and deliver it to Korba feeding zones that ground-bound scavengers could not reach. This makes height, chamber geometry, and group number more important than raw bite force. This detail remains important for containment planning, survey routing, and comparative ecology review.
Digestive anatomy is probably tuned to processed remains. Korba expels material it cannot use, and Snatchers feed on that secondary resource. Their bodies may therefore be adapted for softened, partially digested, or chemically altered tissue rather than fresh prey taken independently. This detail remains important for containment planning, survey routing, and comparative ecology review.
Habitat And Range
Snatcher habitat follows Korba access. Chambers with vertical feeding structures, overhead mouths, ledges, or suspended prey routes are more important than ordinary ground cover. A suitable site lets Snatchers swarm a target at one level and lift it into another organism's effective feeding zone. This detail remains important for containment planning, survey routing, and comparative ecology review.
The species likely persists near remains, waste, and nutrient fall from Korba feeding. These residues can sustain Snatchers between successful captures and may attract juveniles or weaker adults. Survey teams should treat accumulations of expelled organic matter as signs of an active symbiotic system, not just refuse. This detail remains important for containment planning, survey routing, and comparative ecology review.
Because homeworld is not confirmed, range notes should remain conservative. The strongest evidence is behavioral association rather than planetary origin. Reports should document the chamber, Korba presence, residue chemistry, and swarm size before assigning broader ecological distribution to the species. This detail remains important for containment planning, survey routing, and comparative ecology review.
Behavior And Ecology
Snatchers behave as cooperative opportunists. One individual may harass or attach, but the feeding strategy becomes significant only when multiple bodies swarm together. Group pressure overwhelms a target, while levitation converts capture into transport toward a partner that can perform the final feeding act. This detail remains important for containment planning, survey routing, and comparative ecology review.
The Korba relationship appears mutually beneficial. Korba receives prey delivered into feeding range, while Snatchers consume what the larger organism expels. This arrangement reduces waste and allows the smaller species to survive despite weak direct predatory capacity. It is symbiosis built around capture, digestion, and residue recovery. This detail remains important for containment planning, survey routing, and comparative ecology review.
The species should not be dismissed because of low individual strength. In a vertical chamber, a swarm can change the battlefield by moving targets into dangerous positions. Their ecological power comes from coordination with site architecture and a stronger partner, not from isolated confrontation. This detail remains important for containment planning, survey routing, and comparative ecology review.
Reproduction And Development
Snatcher reproduction is not documented in the old record, but development likely occurs near stable feeding sites. Young would benefit from Korba residue, protected chamber structure, and the presence of adult swarms that establish the local feeding route. These conditions could sustain juveniles before they can lift prey effectively. This detail remains important for containment planning, survey routing, and comparative ecology review.
A communal nursery model fits the species' behavior better than solitary dispersal. Juveniles could feed on soft waste, practice attachment within the swarm, and gradually join lifting events as field organs mature. The group would function as both feeding unit and developmental environment. This detail remains important for containment planning, survey routing, and comparative ecology review.
If reproduction depends on Korba-associated nutrient flow, removing the larger partner could collapse local Snatcher recruitment over time. However, residue caches and hidden juveniles may keep a population active after the most visible feeding structure is cleared. Follow-up surveys should continue until swarm activity and waste signatures both disappear.