Словарь: термины
(латиница)
P

P BODIES
  • Structure and Function


  • PAIN
  • NEUROPATHIC
      ◊Mechanisms
      ◊ Role gene CACNG2

  •   ◊ Role Glial Ties to Persistent Pain
  • PERCEPTION
      ◊hyperalgia
      ◊Genes Pain Sensitivity
  • RESOLVING
      ◊Resolvins


  • PAIN EMPATHY
  • "Pain matrix"


  • PALATOGENESIS
  • GENETIC CONTROL
      ◊genetic control
      ◊Pax9
      ◊Src family kinases and p38MAPK
      ◊Role Tbx22
      ◊asymmetry in palatal rugae is associated with genetic variants in WNT signaling pathway
  • MORPHOGENESIS
      ◊Palate elevation; re-orientation


  • PALMITOYLATION
  • Spitz


  • PANCREAS
  • CELL ADHESION
      ◊ and migration
  • СELL DETERMINATION
      ◊ Genetic control
      ◊ role of Pax4
  • DEVELOPMENT
      ◊ claudin proteins
      ◊Epigenetic modifications and long noncoding RNAs
      ◊ Develop through fusion of distinct β and α/δ islets
      ◊ Organogenesis
      ◊ Wnt-5/fz-2 signaling
      ◊ Human
      ◊ Xenopus


  • DIFFERENTIATION
      ◊ From ESC


  • GENETIC CONTROL
      ◊ Genetic control
      ◊ Roile of Nkx6.1


  • ENDOCRINE CELLS
      ◊β-Cells
       • Differentiation
       • Replication
       • β1 integrin is a crucial regulator

  •   ◊ Ghrelin-cells
  • Organogenesis
  • PROGENITORS
      ◊ FGF10 and Notch signalling
      ◊ EphB3 marks
  • PANCREAS REGENERATION
      ◊ Pancreas regeneration
  • Wnt signaling


  • PARAMUTATION
  • MECHNISMS
      ◊Role of RNA


  • PARATHYROID GLAND
  • Organogenesis
      ◊Genetic Control
       • Hoxa3


  • PARTURITION
  • FETAL MATURATION Role of fetal membranes


  • PATH NEURAL
  • AUDITORY
       ◊ description
       ◊ development and plasticity


  • PATH SIGNALING
  • Ca2+
  • Fkh1/2
  • JAK-STAT
  • Notch-Deltex<
  • PI-PLC
  • Reelin
  • SHH-Gli
  • SREBP
  • Wnt


  • PATTERN of BRAIN
  • hindBrain
  • forebrain
  • telencephalon


  • PATTERN FORMATION
  • ANTEROPOSTERIOR
      ◊Wnt/β-catenin signaling
  • DORSOVENTRAL
      ◊Gradient of BMP
  • APPENDAGE
      ◊Signals Shh
      ◊Evolution
      ◊Integument
  • EMBRYO PATTERNING
      ◊Morphogen rules
  • MECHANICS PATTERNING
      ◊Orchestration of tissue shape changes and gene expression patterns in development
  • Morphostatic and morphodynamic
  • EARLY EMBRYO
      ◊Mouse
  • FACE
      ◊Signals from Foregut Endoderm
  • & GROWTH
      ◊Control
  • HAIR
      ◊Frizzled6
  • HEAD STRUCTURES
      ◊IGF signalling
      ◊bicoid RNA localization
  • HEAD-TAIL AXIS
      ◊Hypothesis
  • Heart
  • HYOID CARTILAGE
      ◊Signals from Foregut Endoderm
  • NEUROECTODERM
      ◊Wnt-Nodal Signals
  • Gut
  • PHASES
      ◊Pattern Formation in Phases
  • REACTION-DIFFUSION MODEL
      ◊Two-dimensional spatial patterning
      ◊pattern formation in reaction-diffusion systems
      ◊Turing RD model
      ◊Pigment patterning in fish skin Turing mechanism


  • PATTERN FORMATION LIMBS
  • Formation
  • Models
  • SIGNALLING
      ◊ Diffusible signals and epigenetic timing
      ◊FGFs signaling
  • SKIN
      ◊Feather: pterylae
  • Self-Regulatory System


  • PEPTIDS
  • Nucleic Acid Mimics
      ◊ HypNA-pPNA


  • PERICYTES
  • Role in angiogenesis


  • PERIDERM of ORAL EPITHELIUM
  • Jag2-Notch1 Signaling


  • PERILYMPHATIC SPACE
  • SEMICIRCULAR DUCTS
      ◊ Gata2


  • PERIODONTAL LIGAMENT
  • Function


  • PeroxiSome

    PEYER'S PATCH
  • ORGANOGENESIS
      ◊ Tyrosine kinase receptor RET


  • PHAGOCYTOSIS
  • Proteases
  • PtdIns(4,5)P 2


  • PHARYNGEAL ARCHES (POUCHES)
  • GENETIC CONTROL
      ◊Arches and otic placode
      ◊Shh
      ◊Ripply3 is required for the maintenance of epithelial sheets in the morphogenesis of pharyngeal pouches
      ◊Tbx1


  • Pharynx Organogenesis

    PHENOTYPIC DIVERSITY
  • p53 diversity


  • PHEROMONES
  • detection by VNO


  • PHOSPHOLIPID METABOLISM
  • Inositol
      ◊ Opi1 control
       •Phosphatidic acid


  • PHOTORECEPTORS
  • and Diseases
      ◊ Sinapt.Vesicles recycling
      ◊ Role of Sall3
  • MORPHOGENESIS
      ◊ Processes and Genes
  • ROD
      ◊ Calycal Processes
      • Myo3A
  • RHODOPSIN TRAFFICKING
      ◊ Crag and Rab11
  • SPECIFICATION RETINAL PROGENITORS
      ◊ Retinoic acid exposure


  • PHOTOSENSORY CELLS
  • Opsins


  • PHOTOTAXIS
  • Фототаксис


  • PIGMENTATION OF HAIR
  • progenitors that create a niche for hair pigmentation


  • PINEAL BODY
  • Habenula


  • PIWI RNA
  • STRUCTURAL BASIS TARGETING Structural basis for piRNA targeting


  • PITUITARY GLAND
  • ORGANOGENESIS
      ◊ Neural crest and mesencephalon
      ◊Pituitary


  • PIWI-INTERACTING RNAs
  • GERMLINE
      ◊21U-RNAs и PRG-1
      ◊In male germline development


  • PLACENTA
  • GENETIC CONTROL
      ◊ Mutation PDGF receptor-β
      ◊ SLK protein kinase
  • Vascular development and placental function


  • PLACODES
  • DEVELOPMENT
      ◊Regulatory events
      ◊ and Evolution*
      ◊ Functions of cranial placodes
      ◊ Mechanisms of assembly
  • Description
  • EVOLUTION
      ◊Role of genes Six and Eye
  • Foxi genes
  • Lens
  • NEUROGENIC
      ◊Specification of diverse neuroblast
      ◊Historical highlights
      ◊Ophthalmic trigeminal placode
  • OLFACTORY
      ◊Role of neural plate


  • OTIC
      ◊Description
      ◊Induction
       • Mechanisms
       • Role of FGFs
       • Cooperation of Sall4 and Sox8 transcription factors in otic placode development


  • PLANAR CELL POLARITY (PCP)
  • CELL REARRANGEMENTS
      ◊ Dachsous
      ◊ Cilia and Wnt signaling
  • CELL MIGRATION
      ◊ Migration FBM neurons
      ◊ PCP Signaling Migrating Neurons and Neuroepithelial Environment
  • FUNCTIONAL MODELLING
      ◊ Identifying molecular function
  • GENETIC CONTROL
      ◊ Fat-Dachsous signaling
      ◊ Gene pepsinogen-like
  • AUDITORY HAIR CELLS
       ◊ planar cell polarity and hair-bundle morphogenesis


  • PLANT
  • Embryogenesis
  • Photosyntesis
      ◊membrane proteins


  • PLASMA MEMBRANE
  • RECYCLING
      ◊ Proteins
  • REPAIR
      ◊ Direct wound removal


  • PLASTICITY
  • and EVOLUTIONARY PATTERNS
      ◊ Developmental plasticity associated with early structural integration and evolutionary patterns

    PLURIPOTENCY
  • CONTROL
      ◊ A New Way to Control Stem Cell Fate Using Gene Circuits
  • DNA DEMETHYLATION
      ◊ A New Way to Control Stem Cell Fate Using Gene Circuits
  • OPEN CHROMATIN
      ◊ and Reprogramming
  • REPROGRAMMING
      ◊ LincRNAs



  •   ◊ Chemical Reprogramming

    PML Bodys

  • ROLE OF rDNA
      ◊ rDNA Transcription in Developmental Diseases and Stem Cells
  • PODOSOME
  • Extracellular matrix rigidity


  • POLARISOME
  • Components


  • POLARITY
  • CELL. APICOBASAL
      ◊Aquaporins
      ◊Function
      ◊Role of Phosphoinositides
  • CELL. FRONT–REAR
      ◊ Par–Tiam1 complex
  • CELL. CONTROL
      ◊aPKC and PAR1
      ◊Description
      ◊small GTPases and polarity proteins
      ◊ Role of clatrin
      ◊ Role of LKB1
      ◊ Role of Sec6/8 complex
  • CYTOSKELETON
      ◊Actin and microtubules
  • DESCRIPTION
      ◊ Description
  • ORGANELLE POSITIONING
      ◊Description
  • PLANAR CELL POLARITY
      ◊ Dachsous/Fat and Starry night/Frizzled
      ◊organ Corti
      ◊ Signalling
      ◊ Signalling Frizzled/PCP
  • PROTEIN SORTING, TARGETING AND DISTRIBUTION
      ◊ Coordinated
      ◊ Endocytosis in the axon initial segment maintains neuronal polarity
  • ТIGHT JUNCTIONS
      ◊ Crumbs3-Pals1 complex
      ◊IP3Rs
  • Spindle
  • Uncoupling with migration


  • POLARITY of CELLS and TISSUE
  • MECHANICS
      ◊ Mechanics behind cell polarity
  • POLARITY PROTEIN
      ◊Alterations in carcinom


  • POLARITY of CILIA
  • MECHANISMS
      ◊ Description
      ◊ Positive feedback mechanism


  • POLARITY of EMBRYONS
  • Fatty acid pathways
  • mesd


  • POLYADENILATION
  • description
  • cytoplasmic


  • POLYCISTRONIC TRANSCRIPTS
  • GAP GENES
      ◊ mille-pattes


  • POLYSOME
  • PSEUDO-POLYSOME
      ◊ Role miR2


  • POLYGLUTAMINE (polyQ) REPEAT
  • TOXICITY
      ◊ Mechanisms


  • POLYGLUTAMYLATION
  • TUBULIN
      ◊ Polyglutamylase complex


  • POST-INFARCTION
  • CTGF


  • Postsynaptic

    PRECHONDROGENIC SPECIFYING
  • NEURAL CREST-DERIVED MESENCHYME FGF and BMP signaling


  • PREGNANCY
  • Encyclopedia
      ◊Pregnancy-specific glycoproteins


  • PREPATTERN
  • NERVOUS SYSTEM
      ◊proneural genes


  • PREPLACVODAL REGION
  • DETERMINATION
      ◊Genetic Mechanisms


  • PRESINAPTIC COMPARTMENTS
  • Formation Bouton
      ◊Transport presyn. molecules
  • Formation presyn. structures


  • PRIMARY AUDITORY CORTEX
  • LONG-TERM MEMORY
      ◊and Learning


  • PRIMITIVE STREAK
  • GENETIC CONTROL
      ◊The mevalonate pathway
  • EPITHELIAL CELL INTERCALATION
      ◊Wnt-PCP
  • EPITHELIAL CELL TRANSITION
      ◊EMT
  • PRECARDIAL CELLS
      ◊ Commitment


  • PRIMODIAL GERM CELLS
  • DEVELOPMENT
      ◊ Specification
      ◊ C.elegans
      ◊ Epigenetic mechanisms
  • GENETIC CONTROL
      ◊ Genetic control
      ◊Rhox6
      ◊ Signaling pathways
  • MIGRATION
      ◊Genes
      ◊ Lhx


  • PRION PROTEINS
  • Conformations
  • Description
  • Misfolding
  • Targeted by drugs


  • procsAnt
    ProtrusionAtrial
    PrenatalTesting
    PresynapticStruct

    PROCESSING
  • antigens
  • P-BODIES
      ◊ mRNA
  • Proteins


  • PROGENITORS
  • β-CELLS
      ◊ Adult pancreas
      ◊ EphB3 marks
  • BLOOD PROGENITOR
      ◊ Olfactory Control
  • ENDOTHELIAL
      ◊ Endoglin
  • CARDIAL
      ◊ Clonality of cardiomyogenesis
      ◊ Description
      ◊ Transit-amplifying
       •Back Again to Stem Cell
  • LYMPHOID
      ◊ Lymphoid
  • MESODERMAL
      ◊ Brachyury establishes niche
  • NEURAL
      ◊Asymmetric cell division
       • Mechanisms
      ◊Differentiation
       • Sirt1 and redox-dependent fate
      ◊ Maintenance
      ◊ Biomarker of neural precursor cells
  • OLIGODENDROCYTES
  • RETINA AND SPINAL CORD
      ◊ Dll4-expressing


  • PROGRAMMED CELL DEATH
  • INTERDIGITAL
      ◊ Role of HOXA13
  • Progress zone

    PROMOTERS
  • ACTIVITY
      ◊Regulation by lncRNA promoters
  • LANDSCAPE
      ◊Long-range interaction


  • PROSTATE
  • ORGANOGENESIS
      ◊Morphoregulatory pathways
      ◊Canonical Wnt signaling regulates Nkx3.1
  • cells
      ◊structure


  • PROJECTS
  • Signalling Nets
      ◊ B lymphocytes
      ◊cardyomyocytes
      ◊ Molecule Page database
  • GENSAT
  • GeneWays


  • PROLIFERATION
  • Genetic Control
      ◊ Pin1


  • PROTEINS
  • FOLDING
      ◊ Chaperone and Chaperonins
      ◊ Activation of the Unfolded Protein Response by Lipid Bilayer Stress
      ◊ Extreme disorder in an ultrahigh-affinity protein complex
  • HUMAN
      ◊ Database
  • Folding
  • MODIFICATIONS
      ◊ Lipid adducts on Wingless
  • QUALITY CONTROL
      ◊ HTRA proteases
  • STRUCTURE and FUNCTIONS
      ◊Architectural proteins and 3D genome
      ◊ Bioinformatics
      ◊protein structure prediction for the human proteome
  • TRANSLOCATIONS
      ◊by Sec61/SecY Channel
  • SYNTHESIS
      ◊without DNA
  • with RBMprt


  • PROTEIN-QUALITY-CONTROL
  • ENDOPLASMIC RETICULUM
      ◊ Ubiquitylation machinery


  • PROTEIN-PROTEIN INTERACTIONS
  • Antagonistes
  • Description


  • PROTEIN-DNA INTERACTION
  • Major Groove Recognition


  • PROTEOMICS
  • cellular Organells Functional
  • SPATIAL
      ◊Spatial proteomics tool Functional Genomic atlas of the human plasma proteome


  • PROTEOLYSIS
  • Hystory
  • Ubiquitin
  • Within transmembrane domains
      ◊ Rhomboids


  • PROTEOSOMES
  • 20S
      ◊ Structure, Function
  • 26S
      ◊Structure, Function
  • ASSEMBLY
      ◊ Chaperone
      ◊ Regulation of proteasome assembly and activity in health and disease
  • SUBUNITS
      ◊ Rpn13


  • PROTON-SELECTIVE ION CHANNELS
  • GENETIC CONTROL
      ◊ Conserved gene family encodes proton-selective ion channels PSEUDOGENES
  • chromosome 21, 22 of human
  • FUNCTION
      ◊Production endo-siRNAs
  • olfactory receptors
  • role


  • PSEUDOPODIA
  • Chemotaxis
      ◊ Signalling
  • Localization RNAs
      ◊ Role APC


  • PSYCHOANALYSIS
  • and Neurobiology


  • PTG Silencing

    PUMPS
  • biomolecular mechanism; Calcium pumps


  • PURKINJE CELLS
  • Cells Cerebellum
  • Heterokaryons with...


  • PURKINJE FIBERS of HEART
  • Nkx2-5


  • PYRAMIDAL NEURONS
  • STRUCTURE and FUNCTUINS
      ◊ Synaptic integration