MediaWiki API result

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                "logid": 43691,
                "ns": 0,
                "title": "Hematopoiesis, periods, stem cells, growth factors, structure of the bone marrow",
                "pageid": 22686,
                "logpage": 22686,
                "params": {},
                "type": "create",
                "action": "create",
                "user": "Joya sverdloff",
                "timestamp": "2025-12-05T17:09:13Z",
                "comment": "Created page with \" == '''Introduction''' == Hematopoiesis is the process by which all blood cells are formed. It ensures a continuous supply of erythrocytes, leukocytes, and platelets to maintain oxygen transport, immunity, and hemostasis. This production occurs primarily in the bone marrow and is regulated by stem cells, growth factors, and microenvironmental signals. Any disruption in hematopoiesis can lead to anemia, leukopenia, thrombocytopenia, and hematologic disorders.  == '''Defin...\""
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            {
                "logid": 43690,
                "ns": 0,
                "title": "Regulation of glycemia, causes of hypoglycemia and hyperglycemia",
                "pageid": 22685,
                "logpage": 22685,
                "params": {},
                "type": "create",
                "action": "create",
                "user": "Joya sverdloff",
                "timestamp": "2025-12-05T17:07:15Z",
                "comment": "Created page with \" == '''Introduction''' == Blood glucose levels must be maintained within a narrow physiological range to supply energy to tissues\u2014especially the brain, which depends almost entirely on glucose. Glycemia is regulated by a complex interplay of hormones, metabolic pathways, and organ systems (primarily the pancreas, liver, muscles, and adipose tissue). Disturbances in these regulatory mechanisms lead to hypoglycemia or hyperglycemia, both of which can have significant pat...\""
            },
            {
                "logid": 43689,
                "ns": 0,
                "title": "Disorders of sodium and chloride balance",
                "pageid": 22684,
                "logpage": 22684,
                "params": {},
                "type": "create",
                "action": "create",
                "user": "Joya sverdloff",
                "timestamp": "2025-12-05T17:05:03Z",
                "comment": "Created page with \" == '''Introduction''' == Sodium (Na\u207a) and chloride (Cl\u207b) are the main extracellular electrolytes responsible for maintaining osmolarity, extracellular volume, nerve conduction, and acid\u2013base balance. Their concentrations are tightly regulated by renal, hormonal, and neural mechanisms. Disorders of sodium and chloride balance are common and can lead to significant neurological, cardiovascular, and metabolic complications.  == '''Definition''' == '''Sodium balance d...\""
            },
            {
                "logid": 43688,
                "ns": 0,
                "title": "Regulation of intravascular and extravascular volume and osmolarity - pathophysiological aspects",
                "pageid": 22683,
                "logpage": 22683,
                "params": {},
                "type": "create",
                "action": "create",
                "user": "Joya sverdloff",
                "timestamp": "2025-12-05T17:02:09Z",
                "comment": "Created page with \" == '''Introduction''' == The regulation of body fluid volume and osmolarity is essential for maintaining homeostasis. Body fluids are distributed between the '''intravascular (plasma)''' and '''extravascular (interstitial + intracellular)''' compartments. Their balance depends on coordinated actions of the kidneys, hormones, vascular forces, and the nervous system. Disturbances in this regulation can lead to serious pathophysiological conditions such as edema, dehydrati...\""
            },
            {
                "logid": 43687,
                "ns": 0,
                "title": "Hyperhydration of the organism, edema, ascites, hydrothorax",
                "pageid": 22682,
                "logpage": 22682,
                "params": {},
                "type": "create",
                "action": "create",
                "user": "Beatriz",
                "timestamp": "2025-12-05T16:33:35Z",
                "comment": "Created page with \"== Starling Forces & Capillary Exchange ==  Fluid movement across a capillary wall is driven by the '''Starling pressures''' across the wall and is described by the Starling equation:   J<sub>v</sub>= K<sub>f</sub>[(P<sub>c</sub>-P<sub>i</sub>)-(\ud835\udf0b<sub>c</sub>-\ud835\udf0b<sub>i</sub>)]  where:  * J<sub>v</sub>: Fluid movement (mL/min) * K<sub>f</sub>: Hydraulic conductance (mL/min per mm Hg) \u2192 water permeability across the wall - varies w/ tissue type, capillary wall, incre...\""
            },
            {
                "logid": 43686,
                "ns": 0,
                "title": "Thrombosis and thromboembolisms",
                "pageid": 22681,
                "logpage": 22681,
                "params": {},
                "type": "create",
                "action": "create",
                "user": "Beatriz",
                "timestamp": "2025-12-05T16:28:45Z",
                "comment": "Created page with \"== Thrombosis ==\""
            },
            {
                "logid": 43685,
                "ns": 6,
                "title": "File:Starling forces within a capillary.jpg",
                "pageid": 22680,
                "logpage": 22680,
                "params": {},
                "type": "create",
                "action": "create",
                "user": "Beatriz",
                "timestamp": "2025-12-05T14:52:23Z",
                "comment": ""
            },
            {
                "logid": 43684,
                "ns": 6,
                "title": "File:Starling forces within a capillary.jpg",
                "pageid": 22680,
                "logpage": 22680,
                "params": {
                    "img_sha1": "nlt6g2qkz32c02e66hhbt9w2za12spx",
                    "img_timestamp": "2025-12-05T14:52:23Z"
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                "type": "upload",
                "action": "upload",
                "user": "Beatriz",
                "timestamp": "2025-12-05T14:52:23Z",
                "comment": ""
            },
            {
                "logid": 43683,
                "ns": 0,
                "title": "Hyperhydratation",
                "pageid": 22679,
                "logpage": 22679,
                "params": {},
                "type": "create",
                "action": "create",
                "user": "Beatriz",
                "timestamp": "2025-12-05T14:51:28Z",
                "comment": "Created page with \"== Starling Forces & Capillary Exchange ==  Fluid movement across a capillary wall is driven by the '''Starling pressures''' across the wall and is described by the Starling equation:   J<sub>v</sub>= K<sub>f</sub>[(P<sub>c</sub>-P<sub>i</sub>)-(\ud835\udf0b<sub>c</sub>-\ud835\udf0b<sub>i</sub>)]  where:  * J<sub>v</sub>: Fluid movement (mL/min) * K<sub>f</sub>: Hydraulic conductance (mL/min per mm Hg) \u2192 water permeability across the wall - varies w/ tissue type, capillary wall, incre...\""
            },
            {
                "logid": 43681,
                "ns": 0,
                "title": "Disorders of iron balance and distribution, iron deficiency and iron excess in the human body",
                "pageid": 22678,
                "logpage": 22678,
                "params": {},
                "type": "create",
                "action": "create",
                "user": "Amit Ben Ami",
                "timestamp": "2025-12-05T11:58:11Z",
                "comment": "New article"
            }
        ]
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