Schematic of the volume-independent sampling algorithm.

Schematic of the volume-independent sampling algorithm.

<p>Schematic of the volume-independent sampling algorithm.</p>

محفوظ في:

التفاصيل البيبلوغرافية
المؤلف الرئيسي:	Alexander G. Ginsberg (19510759) (author)
مؤلفون آخرون:	Scott F. Lempka (11858477) (author), Bo Duan (250083) (author), Victoria Booth (351174) (author), Jennifer Crodelle (6944600) (author)
منشور في:	2025
الموضوعات:	Biophysics Neuroscience Science Policy Infectious Diseases Biological Sciences not elsewhere classified yield typical behavior thus offering predictions sensitivity analysis approach released &# 8221 escape &# 8221 represent common motifs subcircuit components involved motivated subcircuit structures processing neural circuitry subcircuit &# 8217 inhibitory interneurons within excitatory neuron responses &# 8220 observed responses common symptom subcircuit structure neural pathways vary depending spread condition spinal cord normal conditions inhibitory control identifying targets healthy conditions experimental studies excitatory neurons dorsal horn analyze biophysically 600 billion
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مواد مشابهة

The allodynia surface for the simple, dynamic and static subcircuits, respectively.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Conditions for a subcircuit to produce allodynia.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Allodynia conditions on each subcircuit.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Hierarchical order formed by the inequalities on coupling strength parameters for each subcircuit.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Inequalities expressed as upper and lower bounds on coupling strength values define the allowable parameter space for the dynamic subcircuit.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Explicit solutions of <i>f</i><sub><i>Aβ</i></sub> for optimization problems in Table 7.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Inequalities expressed as upper and lower bounds on coupling strengths define the allowable parameter space for the static subcircuit.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Inequalities on coupling strengths that define the allowable parameter space for the simple subcircuit.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Model parameter values for inhibitory and excitatory populations.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Equations for each subcircuit model.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Conditions that the proposed subcircuit mediating dynamic allodynia must satisfy and the resulting inequalities on steady-state voltages in response to <i>Aβ</i> input.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Conditions that the proposed subcircuit mediating static allodynia must satisfy and the resulting inequalities on steady-state voltages.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Conditions and resulting inequalities used to constrain the simple subcircuit and define its allowable parameter space (APS).
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Frequency vs. voltage functions.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Mechanisms for dynamic allodynia represented as shortest paths to the allodynia surface for the dynamic allodynia subcircuit.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Allowable parameter space (APS) for the proposed subcircuit mediating dynamic allodynia.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Mechanisms for static allodynia represented as shortest paths to the allodynia surface for the static allodynia subcircuit.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Allowable parameter space (APS) for the proposed subcircuit mediating static allodynia.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Allodynia mechanisms represented as shortest paths from the APS to the allodynia surface in the simple “gate control” subcircuit.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Allowable parameter space (APS) for the simple “gate control” subcircuit.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Proposed subcircuits in laminae I-II of the dorsal horn mediating static and dynamic allodynia.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Ratios of components of the shortest path vectors across clusters in the APS for the simple subcircuit.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Paths to the allodynia surface corresponding to nearby local minima in distances.
حسب: Alexander G. Ginsberg (19510759)
منشور في: (2025)

Data Sheet 1_Excitatory neuron-prone prion propagation and excitatory neuronal loss in prion-infected mice.pdf
حسب: Temuulen Erdenebat (20418806)
منشور في: (2024)

Schematic showing neural circuits in spinal dorsal horn mediating sensory modalities.
حسب: Huifeng Jiao (11537806)
منشور في: (2025)

Synaptic plasticity in spinal Calcrl<sup>+</sup> neurons under chronic itch condition.
حسب: Huifeng Jiao (11537806)
منشور في: (2025)

Enhanced intrinsic excitability of spinal Calcrl<sup>+</sup> neurons in chronic itch.
حسب: Huifeng Jiao (11537806)
منشور في: (2025)

Chemogenetic inhibition of Calcrl<sup>+</sup> neurons attenuates chronic itch in multiple chronic itch models.
حسب: Huifeng Jiao (11537806)
منشور في: (2025)

Chemogenetic modulation of spinal Calcrl<sup>+</sup> neurons alters mechanical itch responses.
حسب: Huifeng Jiao (11537806)
منشور في: (2025)

Population-specific magnitude of synaptic plasticity.
حسب: Michael Satchell (21560808)
منشور في: (2025)

Synaptic group multipliers. Intra-backbone connections are stronger than those between the SF neurons; the SF population receives stronger inhibitory input than backbone neurons.
حسب: Michael Satchell (21560808)
منشور في: (2025)

Relative synaptic efficacies between the neuron types.
حسب: Michael Satchell (21560808)
منشور في: (2025)

Cellular parameters of modeled excitatory and inhibitory neurons.
حسب: Michael Satchell (21560808)
منشور في: (2025)

Benefits for consolidation of multiple ACh<sup>–</sup>→ACh<sup>+</sup> cycles.
حسب: Michael Satchell (21560808)
منشور في: (2025)

Differential roles of ACh<sup>–</sup> and ACh<sup>+</sup>, and benefits of the ACh<sup>–</sup>→ACh<sup>+</sup> sequence during consolidation of multiple memories.
حسب: Michael Satchell (21560808)
منشور في: (2025)

ACh<sup>–</sup> and ACh
حسب: Michael Satchell (21560808)
منشور في: (2025)

Changes in functional connectivity between NREM and REM – comparison of in vivo experimental and in silico modeling data.
حسب: Michael Satchell (21560808)
منشور في: (2025)

ACh-regulated current modulates activation of neuron populations during ACh<sup>–</sup> and ACh
حسب: Michael Satchell (21560808)
منشور في: (2025)

Bias in one of the engrams leads to its preferential consolidation.
حسب: Michael Satchell (21560808)
منشور في: (2025)

Activation and segregation of SF neurons belonging to EB 1/EB 2 as a function of activation of neurons shared by both memories (i.e., SF sub-population that has largest number of connections with backbones of both memories; group denoted as violet on Figs 4, 5, S2, S4, and S5).
حسب: Michael Satchell (21560808)
منشور في: (2025)

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