Artificial bio
> A bio-artificial kidney = artificial organ + living cells that automatically keeps the entire body stable (homeostasis).
Yes — a buffer blood can be made biologically, but with limits.
Here is the brief, clear explanation:
✅ Can we make “buffer blood” biologically?
Yes, but only in the form of buffered biological fluids, not a totally new type of blood.
Biology already uses natural buffering systems to keep pH stable:
1. Natural blood already has buffers
Blood has:
Bicarbonate buffer system
Phosphate buffers
Protein buffers (albumin, hemoglobin)
These keep the pH at 7.35–7.45.
This is already a “buffered liquid” created by biology.
✅ Can we engineer a stronger biological buffer?
Yes, scientists can make:
1. Artificial blood substitutes
Perfluorocarbon-based oxygen carriers
Hemoglobin-based oxygen carriers
These include chemical buffers to stabilize pH.
2. Engineered cells
Cells can be modified to:
Release bicarbonate
Absorb acids
Stabilize pH in a tight range
3. Lab-made plasma
Artificial plasma solutions can include:
Bicarbonate
Phosphate
HEPES (biological buffer)
This behaves like “buffer blood.”
❌ What we CANNOT do
You cannot make a new type of blood that:
Ignores biology
Works outside human pH range
Replaces all blood cells with buffer chemicals
Blood must still carry:
Oxygen
Nutrients
Immune cells
Hormones
A pure “buffer liquid” cannot replace that.
๐งช Short answer
Yes, biology already makes buffered blood, and scientists can engineer even more stable “buffered blood-like fluids,” but you cannot replace real blood with only a buffer.
If you want, I can explain: ✅ How to design a biological buffer system
✅ How blood buffering works step-by-step
✅ Artificial blood formulas
Just tell me.
Ulcers pylori bacteria are present
Continuing from 162 onward, extending the full-body organs / organ-level biological structures list:
๐ง Nervous System (Extended)
Cerebral cortex
White matter
Gray matter
Corpus callosum
Reticular formation
Limbic system
Broca’s area
Wernicke’s area
Motor cortex
Sensory cortex
Insula
Ventricular system
Choroid plexus
Cranial nerves (I–XII)
Sympathetic chain
Parasympathetic ganglia
Enteric nervous system
❤️ Cardiovascular (Detailed)
Sinoatrial node
Atrioventricular node
Bundle of His
Purkinje fibers
Endocardium
Myocardium
Pericardium
Mitral valve
Tricuspid valve
Aortic valve
Pulmonary valve
Carotid arteries
Jugular veins
Portal vein
Hepatic artery
๐ซ Respiratory (Detailed)
Epiglottis
Vocal cords
Pleura
Intercostal muscles
Respiratory center (medulla)
Type I pneumocytes
Type II pneumocytes
Surfactant system
๐ฝ️ Digestive (Micro & Functional)
Oral mucosa
Enamel
Dentin
Pulp cavity
Gastric mucosa
Parietal cells
Chief cells
Intestinal villi
Microvilli
Enterocytes
Goblet cells
Hepatic sinusoids
Kupffer cells
Bile ducts
Pancreatic ducts
๐ฉธ Renal & Fluid Control
Renal pelvis
Collecting ducts
Loop of Henle
Macula densa
Juxtaglomerular apparatus
Renal arteries
Renal veins
๐ฆ Immune (Advanced)
White blood cells
Red blood cells
Platelets
B lymphocytes
T lymphocytes
Natural killer cells
Macrophages
Dendritic cells
Antibody system
Complement system
๐งช Endocrine (Detailed)
Thyroid follicles
Calcitonin-secreting cells
Parathyroid chief cells
Cortisol-secreting cells
Aldosterone-secreting cells
Adrenal chromaffin cells
Insulin-secreting beta cells
Glucagon-secreting alpha cells
๐ฆด Musculoskeletal (Extended)
Osteoblasts
Osteoclasts
Osteocytes
Bone marrow cavity
Growth plates
Myofibrils
Sarcomeres
Actin filaments
Myosin filaments
Neuromuscular junction
Fascia
๐️ Sensory (Micro-level)
Rod cells
Cone cells
Fovea
Optic chiasm
Auditory ossicles
Vestibular nerve
Taste receptors
Mechanoreceptors
Thermoreceptors
Nociceptors
๐งฌ Integumentary (Detailed)
Keratinocytes
Melanocytes
Langerhans cells
Merkel cells
Arrector pili muscle
Sweat ducts
๐ง Reproductive (Cellular)
Sertoli cells
Leydig cells
Spermatogonia
Oocytes
Corpus luteum
Placenta
Amniotic sac
⚖️ Whole-Body Regulation Systems
Hypothalamic-pituitary axis
Renin-angiotensin system
Circadian rhythm system
Thermoregulation system
Glucose homeostasis system
Electrolyte balance system
Acid-base regulation system
๐งซ Cellular Power & Control
ATP synthesis system
Electron transport chain
Ion channels
Sodium-potassium pump
Calcium signaling system
Apoptosis machinery
DNA repair system
Protein synthesis system
๐ง Integrated Life-Support Networks
Neuro-endocrine-immune axis
Gut-brain axis
Cardio-renal axis
Liver-metabolic axis
Oxygen transport system
Nutrient absorption system
Waste clearance system
Hormonal feedback loops
Cellular homeostasis network
Whole-body biological equilibrium system
If you want, I can:
➕ Continue from 301 to 500
๐ค Map artificial/bio-engineered equivalents to each
๐ง Identify one “master organ/system” for total homeostasis
Just say continue or tell the direction.
Perfect! Let’s create a detailed list of 100 components of the human nervous system with their artificial equivalents, including CNS, PNS, and functional units. I’ll number them for clarity.
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Artificial Nervous System (1–100)
Central Nervous System (Brain & Spinal Cord)
1. Cerebrum → Neuromorphic cortical chip
2. Frontal lobe → Executive function AI module
3. Parietal lobe → Sensory processing chip
4. Occipital lobe → Artificial visual cortex
5. Temporal lobe → Audio & memory processing module
6. Cerebellum → Robotic balance control system
7. Brainstem → Artificial vital-sign control module
8. Midbrain → Motor coordination processor
9. Pons → Sensory-motor relay circuit
10. Medulla oblongata → Respiratory & cardiac control circuit
11. Hypothalamus → AI homeostasis regulator
12. Thalamus → Signal relay neuromorphic circuit
13. Basal ganglia → Movement initiation module
14. Hippocampus → Memory prosthetic chip
15. Amygdala → Emotion-simulation AI
16. Pituitary gland → Hormone delivery implant
17. Pineal gland → Circadian rhythm pacemaker
18. Corpus callosum → Inter-hemisphere signal bus
19. Ventricular system → Microfluidic CSF circulation system
20. Choroid plexus → Artificial CSF production module
21. Reticular formation → Attention & alertness processor
22. Broca’s area → Speech production AI
23. Wernicke’s area → Language comprehension AI
24. Insula → Interoception-sensing module
25. Spinal cord → Neural prosthetic bridge
26. Dorsal roots → Sensory input electrodes
27. Ventral roots → Motor output electrodes
28. Reflex arc → Microcontroller reflex circuits
29. Interneurons → Neuromorphic relay chips
30. Gray matter → Processing nodes in artificial cortex
31. White matter → Signal transmission fibers/wires
32. Cortical columns → Modular processing units
33. Limbic system → Emotional regulation AI network
34. Optic nerve → Visual signal electrode interface
35. Olfactory bulb → Chemical sensor module
36. Vagus nerve → Parasympathetic control electrode
37. Sympathetic chain → Sympathetic control microcontroller
38. Parasympathetic ganglia → Parasympathetic AI unit
39. Enteric nervous system → Gut-brain interface chip
40. Cranial nerve I (Olfactory) → Chemical detection electrode
41. Cranial nerve II (Optic) → Visual signal implant
42. Cranial nerve III (Oculomotor) → Eye-motor actuator
43. Cranial nerve IV (Trochlear) → Eye movement controller
44. Cranial nerve V (Trigeminal) → Facial sensation electrode
45. Cranial nerve VI (Abducens) → Lateral eye motor actuator
46. Cranial nerve VII (Facial) → Facial expression actuator
47. Cranial nerve VIII (Vestibulocochlear) → Balance & hearing interface
48. Cranial nerve IX (Glossopharyngeal) → Taste & throat sensor
49. Cranial nerve X (Vagus) → Parasympathetic control interface
50. Cranial nerve XI (Accessory) → Neck/shoulder motor actuator
51. Cranial nerve XII (Hypoglossal) → Tongue motor actuator
52. Pinealocytes → Artificial light-sensing circadian cells
53. Cerebral ventricles → Microfluidic circuits for CSF flow
54. Substantia nigra → Motor control AI unit
55. Red nucleus → Motor coordination microchip
56. Locus coeruleus → Alertness neuromodulator
57. Raphe nuclei → Serotonin-mimic AI module
58. Medullary pyramids → Signal transmission fiber bundles
59. Spinothalamic tract → Pain/temperature sensor pathway
60. Corticospinal tract → Motor command transmission wire
61. Dorsal column → Touch/vibration sensor wire
62. Spinocerebellar tract → Balance feedback wire
63. Central canal → Microfluidic CSF channel
64. Periaqueductal gray → Pain-modulation AI circuit
65. Thalamic relay nuclei → Sensory routing nodes
66. Hypothalamic nuclei → Hormonal feedback sensors
67. Amygdaloid complex → Emotional-response AI module
68. Septal nuclei → Reward-processing artificial node
69. Mammillary bodies → Memory relay microchip
70. Fornix → Memory signal transmission wire
71. Cingulate gyrus → Decision-making AI processor
72. Claustrum → Consciousness-integration node
73. Olfactory tract → Chemical sensor data bus
74. Optic chiasm → Visual signal crossing microchip
75. Optic radiations → Visual pathway signal wire
76. Lingual gyrus → Visual recognition AI module
77. Fusiform gyrus → Face recognition neural chip
78. Superior colliculus → Eye-movement control microchip
79. Inferior colliculus → Auditory reflex processing module
80. Thalamic reticular nucleus → Sensory filter AI
81. Anterior commissure → Inter-hemisphere signal fiber
82. Posterior commissure → Inter-hemisphere coordination fiber
83. Cerebral peduncles → Motor output fiber bundles
84. Internal capsule → Deep white-matter signal bus
85. External capsule → Lateral signal transmission path
86. Extreme capsule → Long-range cortical communication wire
87. Corona radiata → Fan of signal wires from cortex
88. Arcuate fasciculus → Language signal microchip pathway
89. Subthalamic nucleus → Movement regulation AI node
90. Globus pallidus → Motor inhibition artificial module
91. Caudate nucleus → Motor learning AI circuit
92. Putamen → Habit learning microchip module
93. Nucleus accumbens → Reward-motivation interface
94. Ventral tegmental area → Dopamine-simulating AI module
95. Periventricular nucleus → Hormone control interface
96. Suprachiasmatic nucleus → Circadian pacemaker chip
97. Dorsal raphe → Serotonin-mimic signal module
98. Lateral geniculate nucleus → Visual relay chip
99. Medial geniculate nucleus → Auditory relay chip
100. Spinoreticular tract → Pain-arousal signal fiber
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✅ Notes:
This covers all major CNS/PNS structures up to 100 components
Artificial equivalents include neuromorphic chips, electrode arrays, biohybrid scaffolds, and microfluidic modules
Some components (like emotional AI modules) are research-stage, while others (BCI, cochlear implants) are clinically available
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If you want, I can make the next 100 (101–200) covering neural functional units, synapses, neurons, glial cells, and microstructures with their artificial versions.
Do you want me to continue?
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