Electrokinetic microchannel generator
Pressure gradientStreaming potentialIonic currentElectrical work
Pressure-driven electrolyte flow through charged channels produces a streaming current.
Epistemic state of the route
- known constituent relations
- 3 / 3 established or replicated · weakest constituent established
- constituent maturity floor
- K4 · experimentally observed
- search for this exact route
- A recorded pathway or a reviewed search records a demonstration of this composition.
- recorded pathway
- Electrokinetic microchannel generator · demonstrated
- composition maturity
- K4 · experimentally observed — Electrokinetic microchannel generator
- recorded-pathway overlap
- this route is the recorded pathway Electrokinetic microchannel generator
- route-level evidence
- 1 source for the complete composition · 3 cited by the constituent steps
- boundaries and interfaces
- BOUNDARY compatible · no region transition
Explorematrix context · physics checks · performance · steps · route evidence · constituent evidence · cite
Matrix context
D = disequilibrium row · C = coupling family column. A cell reads the state of the atlas for that pair.
D.02 × C.23 · Pressure gradient × Electrokineticfamily: Electrokinetic
Measured or reported performance
Summary figures only; no datum-level record yet. Each figure below is a reviewed summary, not a single measurement.
- notes
- streaming current from water forced through a glass microchannel array; efficiencies below 1%
Typed bounds on this route
Every limit the atlas holds for this route, as constraint records: reached through bounded_by claims on the route's own entities. Hard bounds (an upper bound or a formula) decide the thermodynamic-bound check above; benchmarks, constitutive relations and resource limits are listed and never decisive. No prose limit exists anywhere (pass 42).
- Onsager–Casimir reciprocity · constitutive-relation · listed, never decisiveL_ij(B) = ε_i ε_j L_ji(−B): the cross-coefficients of coupled linear transport are equal up to the time-reversal parities ε of the variables and reversal of the magnetic field; L_ij = L_ji is the zero-field, even-parity case
Steps
- 01mechanical → electrical · loss to thermal
- electrolyte forced through a channel with charged walls; efficiency peaks when the Debye length is comparable to the channel width
aqueous medium required · bulk flow requiredrefs [1] [2] - 02electrical → electricalrefs [1] [2]
- 03electrical → electrical · loss to thermal
- electrodes exchange the ionic current for an electronic current through the external load
refs [3]
Evidence for the complete composition · 1
- [1]J. Yang et al.. Electrokinetic microchannel battery by means of electrokinetic and microfluidic phenomena (2003)
Evidence for the constituent relations · 3
- [1]J. Yang et al.. Electrokinetic microchannel battery by means of electrokinetic and microfluidic phenomena (2003)
- [2]R. J. Hunter. Zeta Potential in Colloid Science: Principles and Applications (1981)
- [3]A. J. Bard, L. R. Faulkner. Electrochemical Methods: Fundamentals and Applications (2nd ed.) (2001)
Cite this route
Physical Transformation Atlas (2026). route p-8ee05f03b7: Electrokinetic microchannel generator. Dataset revision rbfbfcbb70e57 (hash of the canonical data). https://physical-transformation-atlas.wldud5192.workers.dev/path/8ee05f03b7
Ids and matrix addresses are stable across revisions; the revision hash identifies the exact canonical files the record was compiled from and is meta.data_hash in every /api export. Reuse terms: see the license field in any export.