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@wwfrank: Here’s how to take modeling pics/digitals at home for agency submissions #model #modeling #malemodel #influencer #photography #photoshoot

William
William
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Region: US
Wednesday 16 July 2025 14:28:46 GMT
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makerschoolhouse
ana josephson :
Camera settings on your phone?
2025-07-16 14:40:26
1
spenceralthouse
spencer.althouse :
Wait these are so good
2025-07-16 14:40:55
1
maddymdj
Maddy :
This eats
2025-07-17 00:50:38
1
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Inside our dressing room. 👀 #CFC #ChelseaFC #PremierLeague
Inside our dressing room. 👀 #CFC #ChelseaFC #PremierLeague
real cherry lmao
real cherry lmao
Electrical signals that form in neurons, that is, action potentials, spread along the axon towards the terminal bouton, where they are spread onto the neighbouring neurons via the synaptic clefts. Excitatory neurons increase the electrical activity of the neighbouring neurons and can generate an action potential in them. Inhibitory neurons, however, reduce the electrical activity of the neighbouring neurons and thereby prevent the formation of action potential in them. In most synapses, chemical substances known as neurotransmitters transmit signals between neurons. Therefore, these are called chemical synapses. In chemical synapses, when an action potential reaches the terminal bouton, synaptic vesicles release neurotransmitters into the synaptic cleft. The neurotransmitters diffuse through the synaptic cleft to the membrane of the receiving neuron, that is, to the postsynaptic membrane. Neurotransmitters attach to the ion channel receptors in the postsynaptic membrane. Their attachment opens up the ion channels in the membrane, allowing ions to flow through. The more neurotransmitters are released, the more ions flow through the ion channels. In excitatory chemical synapses, sodium ions flow through the postsynaptic membrane into the cell, while potassium ions flow out of the cell. The influx and effilux of ions increase the membrane potential compared to the resting potential; that is, they depolarise the membrane. If enough excitatory neurotransmitters are released to increase the membrane potential such that it reaches the threshold, an action potential is triggered. Inhibitory neurotransmitters cause an influx of chloride ions and an efflux of potassium ions in the postsynaptic membrane. The influx and efflux of ions cause the decrease of the membrane potential; that is, they prevent the membrane potential from reaching the threshold and thereby inhibit the formation of an action potential. This is called hyperpolarisation. In some cases, electrical synapses are found between neurons. In this case, the synaptic cleft is only 2-3 nanometres
Electrical signals that form in neurons, that is, action potentials, spread along the axon towards the terminal bouton, where they are spread onto the neighbouring neurons via the synaptic clefts. Excitatory neurons increase the electrical activity of the neighbouring neurons and can generate an action potential in them. Inhibitory neurons, however, reduce the electrical activity of the neighbouring neurons and thereby prevent the formation of action potential in them. In most synapses, chemical substances known as neurotransmitters transmit signals between neurons. Therefore, these are called chemical synapses. In chemical synapses, when an action potential reaches the terminal bouton, synaptic vesicles release neurotransmitters into the synaptic cleft. The neurotransmitters diffuse through the synaptic cleft to the membrane of the receiving neuron, that is, to the postsynaptic membrane. Neurotransmitters attach to the ion channel receptors in the postsynaptic membrane. Their attachment opens up the ion channels in the membrane, allowing ions to flow through. The more neurotransmitters are released, the more ions flow through the ion channels. In excitatory chemical synapses, sodium ions flow through the postsynaptic membrane into the cell, while potassium ions flow out of the cell. The influx and effilux of ions increase the membrane potential compared to the resting potential; that is, they depolarise the membrane. If enough excitatory neurotransmitters are released to increase the membrane potential such that it reaches the threshold, an action potential is triggered. Inhibitory neurotransmitters cause an influx of chloride ions and an efflux of potassium ions in the postsynaptic membrane. The influx and efflux of ions cause the decrease of the membrane potential; that is, they prevent the membrane potential from reaching the threshold and thereby inhibit the formation of an action potential. This is called hyperpolarisation. In some cases, electrical synapses are found between neurons. In this case, the synaptic cleft is only 2-3 nanometres


Let’s order now.Delive today!#MiniPerfumes #perfumes #miniperfumes
Let’s order now.Delive today!#MiniPerfumes #perfumes #miniperfumes
Air drying vs. Diffusing! This is why i LOVE my diffuser. Can’t live without it. 😩🩷 #wavy #wavyhair #wavyhairroutine #wavyhairtutorial #curly #curlyhair #curlyhairroutine #haircare
Air drying vs. Diffusing! This is why i LOVE my diffuser. Can’t live without it. 😩🩷 #wavy #wavyhair #wavyhairroutine #wavyhairtutorial #curly #curlyhair #curlyhairroutine #haircare

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