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stock image Chloride channels conduct chloride anions across cell membranes, regulating the electrical excitation of skeletal muscles and the flow of salt and water across epithelial barriers. They also play an importante role in  regulation of pH, volume homeos

Chloride Channels Conduct Chloride Anions Across Cell Membranes, Regulating The Electrical Excitation Of Skeletal Muscles And The Flow Of Salt And Water Across Epithelial Barriers. They Also Play An Importante Role In Regulation Of PH, Volume Homeos

Image, 5.62MB, 8000 × 6000 jpg
stock image Chloride channels conduct chloride anions across cell membranes, regulating the electrical excitation of skeletal muscles and the flow of salt and water across epithelial barriers. They also play an importante role in  regulation of pH, volume homeos

Chloride Channels Conduct Chloride Anions Across Cell Membranes, Regulating The Electrical Excitation Of Skeletal Muscles And The Flow Of Salt And Water Across Epithelial Barriers. They Also Play An Importante Role In Regulation Of PH, Volume Homeos

Image, 4.56MB, 8000 × 6000 jpg
stock image Key brain receptors: the NMDA, AMPA & GABA receptors

Key Brain Receptors: The NMDA, AMPA & GABA Receptors

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stock image The voltage-gated sodium channel in the open conformation,side view

The Voltage-gated Sodium Channel In The Open Conformation,side View

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stock image Antidepressive drug (amitriptilyne) binding to and blocking  a sodium channel

Antidepressive Drug (amitriptilyne) Binding To And Blocking A Sodium Channel

Image, 8.37MB, 8000 × 6000 jpg
stock image Chloride channels conduct chloride anions across cell membranes, regulating electrical the excitation skeletal muscle and the flow of salt and water across epithelial barriers. They also play an importante role in  regulation of pH, volume homeostasi

Chloride Channels Conduct Chloride Anions Across Cell Membranes, Regulating Electrical The Excitation Skeletal Muscle And The Flow Of Salt And Water Across Epithelial Barriers. They Also Play An Importante Role In Regulation Of PH, Volume Homeostasi

Image, 29.73MB, 8000 × 6000 jpg
stock vector Neuronal charged membranes. Voltage-gated ion channels are closed at the resting potential and open in response to changes in membrane voltage.

Neuronal Charged Membranes. Voltage-gated Ion Channels Are Closed At The Resting Potential And Open In Response To Changes In Membrane Voltage.

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stock image Membrane proteins (violett), glycolipids (yellow) and several ligands of the proteins

Membrane Proteins (violett), Glycolipids (yellow) And Several Ligands Of The Proteins

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stock image The opioid receptors display a role in modulating pain perception; opioid agonists are therefore potent analgesics. They appear mainly in the brain and spinal cord. The endogenous opioids are enkephalin, dynorphin, endorphin and nociceptin.

The Opioid Receptors Display A Role In Modulating Pain Perception; Opioid Agonists Are Therefore Potent Analgesics. They Appear Mainly In The Brain And Spinal Cord. The Endogenous Opioids Are Enkephalin, Dynorphin, Endorphin And Nociceptin.

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stock image During the onset of variant angina pectoris, ECG is divided into non fusion wave, partial fusion wave and complete fusion wave according to the fusion degree of QRS wave, ST segment and T wave.

During The Onset Of Variant Angina Pectoris, ECG Is Divided Into Non Fusion Wave, Partial Fusion Wave And Complete Fusion Wave According To The Fusion Degree Of QRS Wave, ST Segment And T Wave.

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stock image 5 membrane proteins with their ligands: (left to right) Potassium channel, delta-opioid receptor, LDL receptor, acetylcholine receptor, histamine receptor,

5 Membrane Proteins With Their Ligands: (left To Right) Potassium Channel, Delta-opioid Receptor, LDL Receptor, Acetylcholine Receptor, Histamine Receptor,

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stock image 5 membrane proteins with their ligands: (left to right) Potassium channel, delta-opioid receptor, LDL receptor, acetylcholine receptor, histamine receptor.

5 Membrane Proteins With Their Ligands: (left To Right) Potassium Channel, Delta-opioid Receptor, LDL Receptor, Acetylcholine Receptor, Histamine Receptor.

Image, 4.48MB, 8000 × 5000 jpg
stock vector Taste bud with receptor cells. Types of Taste receptors. Cell membrane and ion channels for sour, salty, sweet, umami. This diagram above depicts the signal transduction pathway of the different taste.

Taste Bud With Receptor Cells. Types Of Taste Receptors. Cell Membrane And Ion Channels For Sour, Salty, Sweet, Umami. This Diagram Above Depicts The Signal Transduction Pathway Of The Different Taste.

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stock image A cell membrane in fish eye perspective. Receptors: opioid receptor, LDL receptor and acetyl choline receptor. Channel proteins: chloride channel and acetat permease. The glycolipids are depicted in bluish green.

A Cell Membrane In Fish Eye Perspective. Receptors: Opioid Receptor, LDL Receptor And Acetyl Choline Receptor. Channel Proteins: Chloride Channel And Acetat Permease. The Glycolipids Are Depicted In Bluish Green.

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stock vector Synapse. Visualization of synapse structure while passing an electrical or chemical signal (nervous impulses) to another neuron, including mitochondria, synapse vesicle, and ion channels.

Synapse. Visualization Of Synapse Structure While Passing An Electrical Or Chemical Signal (nervous Impulses) To Another Neuron, Including Mitochondria, Synapse Vesicle, And Ion Channels.

Vector, 6.7MB, 6250 × 6250 eps
stock vector Gram-negative bacterial membrane diagram vector illustration

Gram-negative Bacterial Membrane Diagram Vector Illustration

Vector, 0.42MB, 8333 × 8333 ai
stock vector Gram-negative bacterial membrane diagram vector illustration

Gram-negative Bacterial Membrane Diagram Vector Illustration

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stock vector Ligand-gated Ion Channel diagram

Ligand-gated Ion Channel Diagram

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stock image Structure of plasma membrane of cell

Structure Of Plasma Membrane Of Cell

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stock vector Electrical synapse.Vector illustration

Electrical Synapse.Vector Illustration

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stock vector Ionic crystals The structure of sodium chloride NaCl

Ionic Crystals The Structure Of Sodium Chloride NaCl

Vector, 6.56MB, 5000 × 5000 eps
stock image Phototransduction: operation of a photoreceptor in night vision.

Phototransduction: Operation Of A Photoreceptor In Night Vision.

Image, 1.48MB, 3020 × 4647 jpg
stock vector Synapse detailed anatomy, beautiful colorful illustration

Synapse Detailed Anatomy, Beautiful Colorful Illustration

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stock image Steroid Hormones Mechanism

Steroid Hormones Mechanism

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stock vector Synapse detailed anatomy

Synapse Detailed Anatomy

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stock image Ligand-dependent ion channel: attachment of a particular molecule causes the channel to open.

Ligand-dependent Ion Channel: Attachment Of A Particular Molecule Causes The Channel To Open.

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stock image Depolarization: phospholipid membrane with NA + and K + ion channels.

Depolarization: Phospholipid Membrane With NA + And K + Ion Channels.

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stock vector Passive vs Active cell transport. Vector illustration. Didatic illustration.

Passive Vs Active Cell Transport. Vector Illustration. Didatic Illustration.

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stock image  3D image of Cyclic guanosine monophosphate skeletal formula - molecular chemical structure of second messenger cGMP isolated on white background

3D Image Of Cyclic Guanosine Monophosphate Skeletal Formula - Molecular Chemical Structure Of Second Messenger CGMP Isolated On White Background

Image, 3.96MB, 8514 × 4080 jpg
stock image The calcium channel is composed of a hexameric assembly or Orai subunits around a central ion pore. The channel shows selective permeability to calcium ions.

The Calcium Channel Is Composed Of A Hexameric Assembly Or Orai Subunits Around A Central Ion Pore. The Channel Shows Selective Permeability To Calcium Ions.

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stock image Cell membrane

Cell Membrane

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stock image Cell membrane

Cell Membrane

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stock image Depolarization: phospholipid membrane with NA + and K + ion channels.

Depolarization: Phospholipid Membrane With NA + And K + Ion Channels.

Image, 2.35MB, 6600 × 5452 jpg
stock image Cell membrane, phospholipid bilayer, scientific 3D illustration

Cell Membrane, Phospholipid Bilayer, Scientific 3D Illustration

Image, 8.75MB, 7200 × 4050 jpg
stock image Transmission of nerve impulses in a synapse between two neurons.

Transmission Of Nerve Impulses In A Synapse Between Two Neurons.

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stock image Cell membrane

Cell Membrane

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stock vector Synapse detailed anatomy

Synapse Detailed Anatomy

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stock vector Vector illustration of an example of active transport in animal cells - sodium potassium pump.

Vector Illustration Of An Example Of Active Transport In Animal Cells - Sodium Potassium Pump.

Vector, 24.69MB, 3000 × 2254 eps
stock image Cell membrane

Cell Membrane

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stock image Cell membrane

Cell Membrane

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stock vector Typical metal lattice

Typical Metal Lattice

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stock image Steroid Hormones Mechanism

Steroid Hormones Mechanism

Image, 4.09MB, 3840 × 2160 jpg
stock image Cell membrane

Cell Membrane

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stock image Cell membrane

Cell Membrane

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stock image Cell membrane

Cell Membrane

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stock image The neurotransmitter glutamate is transported by  synaptic vesibles to the presynaptic membrane. Calcium channels trigger the neurotransmitter reslease into the inter synaptic cleft. Glutamate binds to the NMDA (left) and AMPA receptors.

The Neurotransmitter Glutamate Is Transported By Synaptic Vesibles To The Presynaptic Membrane. Calcium Channels Trigger The Neurotransmitter Reslease Into The Inter Synaptic Cleft. Glutamate Binds To The NMDA (left) And AMPA Receptors.

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stock image Cell membrane

Cell Membrane

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stock image Bangkok, Thailand - 26 Mar 2022, The Battery Model for Phantom 4 Pro in Thailand on White Background, it is ready for resale on the internet channel.

Bangkok, Thailand - 26 Mar 2022, The Battery Model For Phantom 4 Pro In Thailand On White Background, It Is Ready For Resale On The Internet Channel.

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stock image Cell membrane

Cell Membrane

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stock vector Types crystal lattices

Types Crystal Lattices

Vector, 0.34MB, 5000 × 5000 eps
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