mSGLT2 ( IC50 = 2 nM ); rSGLT2 ( IC50 = 3.7 nM ); hSGLT2 ( IC50 = 4.4 nM )

在 CHO-hSGLT2 细胞中，canagliflozin 抑制 Na+ 依赖性 14C-AMG 摄取，IC50 为 4.4±1.2 nM。在 CHO-mSGLT2 和 CHO-rSGLT2 细胞中，大鼠和小鼠 SGLT2 的 IC50 值分别为 2.0 nM 和 3.7 nM。 Canagliflozin 抑制 CHO-hSGLT1 和 mSGLT1 细胞中 14C-AMG 的吸收，IC50 分别为 684±159 nM 和 >1,000 nM[1]。

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体外活性：卡格列净是一种新型的带有噻吩环的C-葡萄糖苷。 Canagliflozin 以浓度依赖性方式抑制 Na+ 依赖性 14C-AMG 摄取。 Canagliflozin 抑制 CHO-hSGLT1 和 mSGLT1 细胞中 14C-AMG 的摄取，IC50 分别为 0.7 μM 和 >1 μM。 Canagliflozin 抑制 L6 成肌细胞中促进性（非 Na+ 连接的）GLUT 介导的 2H-2-DG 摄取不到 50%。在假注射的卵母细胞中，在 50 μM DNJ 存在的情况下，单独使用卡格列净 (10 μM) 或根皮苷 (3 mM) 不会影响电流。在注射 SGLT3 的卵母细胞中，DMSO 和 Canagliflozin 10 μM 分别抑制 DNJ 诱导的电流 15.6% 和 23.4%。激酶测定：Canagliflozin 是 hSGLT2 的高效选择性 SGLT2 抑制剂，IC50 为 2.2 nM，选择性是 hSGLT1 的 413 倍。细胞测定：使用来自大鼠骨骼肌细胞系 L6 的细胞来测试卡格列净对葡萄糖转运蛋白 1 (GLUT1) 活性的影响。将细胞维持在含有 5.6 mM 葡萄糖并补充有 10% 胎牛血清的 Dulbeccos 改良 Eagles 培养基中，以 3 × 105 个细胞/孔的密度接种在 24 孔板中，并在 5% CO2 的气氛中培养 24 小时。 37°C。用克雷布斯林格磷酸 HEPES 缓冲液（pH 7.4、150 mM NaCl、5 mM KCl、1.25 mM MgSO4、1.25 mM CaCl2、2.9 mM Na2HPO4、10 mM HEPES）冲洗细胞两次，并与 Canagliflozin 溶液（250 µL，10 µM），室温下 5 分钟。通过添加 50 μL 4.5 mM 2-DG（GLUT 的底物）/3H-2-DG (0.625 μCi) 启动转运反应，然后在室温下孵育 15 分钟。通过吸出培养混合物来停止 2-DG 的吸收。立即用冰冷的 PBS 洗涤细胞 3 次。用 0.3 N NaOH 提取样品，并通过液体闪烁测定放射性。

在 DIO 小鼠中，卡格列净 (30 mg/kg) 治疗 4 周可降低体重增加、呼吸交换率和血糖 (BG) 水平[1]。给予卡格列净（3 mg/kg）三周后，与媒介物治疗的大鼠相比，用 ZF 治疗的大鼠由于尿葡萄糖排泄（UGE）增加而出现体重减轻，但总食物消耗量没有显着变化[1]。

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卡格列净在高脂饮食喂养的 KK (HF-KK) 小鼠中显示出明显的抗高血糖作用。雄性 SD 大鼠口服 30 mg/kg Canagliflozin，在 24 小时内诱导葡萄糖排泄，每 200 g 体重增加 3,696 mg。药代动力学研究表明，口服给药后卡格列净的暴露量要高得多。雄性SD大鼠静脉注射和口服剂量分别为3和10 mg/kg后，AUC0−inf、po、t1/2和口服生物利用度测定为35,980 ng·h/mL、5.2小时和85%，分别。因此，口服卡格列净后抑制肾小管中的 SGLT2 可能会持续抑制葡萄糖的重吸收。广泛的 UGE 将反映 Canagliflozin 优异的体内药代动力学特性以及高效的 SGLT2 抑制作用。由于大部分过滤后的葡萄糖被肾小管中的 SGLT2 重新吸收，因此该新型化合物可用作抗糖尿病药物。单次口服 3 mg/kg Canagliflozin 可显着降低高血糖高脂饮食喂养 KK (HF-KK) 小鼠的血糖水平，而不影响食物摄入量。 6 小时后，与媒介物相比，血糖水平降低了 48%。相比之下，卡格列净仅轻微影响血糖正常小鼠的血糖水平。因此，卡格列净在T2DM治疗中可以控制高血糖，且低血糖风险较低。[2]

卡格列净是一种高效、选择性的SGLT2抑制剂，对hSGLT2的IC50为2.2 nM，比hSGLT1的选择性高413倍。
表达人SGLT1和SGLT2的CHO细胞中钠依赖性葡萄糖摄取。在这些实验中使用表达人SGLT1和SGLT21的亲本中国仓鼠卵巢-K（CHOK）细胞。对于摄取试验，将细胞接种到24孔板中，并在试验当天进行融合后处理。用400µL测定缓冲液（137 mM NaCl、5 mM KCl、1 mM CaCl2、1 mM MgCl2、50 mM HEPES、20 mM Tris-Base，pH 7.4）冲洗细胞一次，并在37°C下与化合物溶液（250µL）预孵育10分钟。通过加入50µLα-甲基-D-吡喃葡萄糖苷（AMG）/14C-AMG溶液（16.7µCi；终浓度，CHOK-SGLT1为0.3 mM，CHOK-SSGLT2为0.5 mM）引发转运反应，并在37°C下孵育120分钟。孵育后，通过抽吸孵育混合物停止AMG摄取，然后立即用PBS洗涤三次。将细胞溶解在300µL的0.3 N NaOH中，并用液体闪烁计数器监测与细胞相关的放射性。使用四参数逻辑斯谛模型通过非线性最小二乘分析计算50%的抑制浓度（IC50）。[2]

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表达人SGLT3的卵母细胞的双电极电压钳记录[1]
使用OpusXpress 6000A通过2电极电压钳电生理学研究了卡格列净对人SGLT3的功能影响。V-VI期卵母细胞注射50 nl人SGLT3 mRNA（1 ng/nl）或蒸馏水（对照），在18°C下在无钙溶液（92 mM NaCl、2 mM KCl、1 mM MgCl2、5 mM HEPES、0.05 mg/ml庆大霉素，pH 7.5）中孵育4-6天，然后记录。细胞外记录溶液含有pH 7.5的92 mM NaCl、2 mM KCl、1.8 mM CaCl2、1 mM MgCl2和5 mM HEPES。注射的卵母细胞被2个填充有3 M KCl（电阻约为0.5-3 MΩ）的微电极刺穿，电压钳位至-120 mV，在该电压下进行连续记录（以5 kHz过滤，以625 Hz采样）。为了在没有激动剂的情况下建立基线，首先用对照缓冲液（pH 7.5的92 mM NaCl、2 mM KCl、1.8 mM CaCl2、1 mM MgCl2、5 mM HEPES）灌注卵母细胞85秒。接下来，施加50µM的1-脱氧野尻霉素（DNJ）160秒，然后将亚氨基糖1-脱氧野蛭素（DNJ，50µM）与canagliflozin （10µM）或二甲亚砜（DMSO）（0.1%）共同施加160秒。最后，在50µM DNJ存在下施用根皮苷（3 mM）160秒。所有实验均在22°C下进行。从泄漏电流（仅控制缓冲液中的电流）中减去50µM DNJ存在时的电流，以获得DNJ感应电流（IDNJ）。化合物的影响计算如下：%抑制=100×（IDNJ−Icmpd）/IDNJ，其中Icmpd是化合物或DMSO存在下DNJ诱导的漏电流。由于在测试的最高剂量下没有效果，因此没有检查剂量反应关系。

在大鼠骨骼肌细胞系 L6 细胞中检查了卡格列净对葡萄糖转运蛋白 1 (GLUT1) 活性的影响。用于细胞的培养基是Dulbecco改良的Eagle培养基，其中含有5.6mM葡萄糖和10％胎牛血清。将细胞以 3 × 10⁵ 细胞/孔的密度接种在 24 孔板中，并在 37 °C、5% CO2 气氛下培养 24 小时。用克雷布氏磷酸盐 HEPES 缓冲液（pH 7.4、150 mM NaCl、5 mM KCl、1.25 mM MgSO< sub>4、1.25 mM CaCl2、2.9 mM Na²HPO₄、10 mM HEPES）。添加 50 μL 4.5 mM 2-DG（GLUTs 底物）/3H-2-DG (0.625 μCi) 以启动转运反应，然后在室温下孵育 15 分钟。吸出培养混合物会阻止 2-DG 的吸收。将细胞立即在冰冷的 PBS 中清洗 3 次。使用 0.3 N NaOH 提取样品后，使用液体闪烁测量放射性。

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基于细胞的检测[1]
本研究利用了表达SGLT1和SGLT2共转运蛋白的中国仓鼠卵巢（CHO）细胞中的钠依赖性葡萄糖摄取，表达人或小鼠SGLT1与SGLT2的亲代CHO-K（CHOK）细胞（基因过表达研究中常用的哺乳动物细胞）。将细胞接种到96孔板中。然后在37°C下用0.15 ml测定缓冲液（137 mM NaCl、5 mM KCl、1 mM CaCl2、1 mM MgCl2、50 mM HEPES，pH 7.4）洗涤细胞一次。移除测定缓冲液后，加入50µl新鲜测定缓冲液和5µlcanagliflozin （0.3-300 nM），然后孵育10分钟。然后，将5µl 6 mMα-甲基-d-吡喃葡萄糖苷（AMG，一种选择性SGLT1/2底物）/14C-AMG（0.07µCi）加入细胞中，在37°C下孵育2小时。接下来，用0.15ml冰冷的磷酸盐缓冲盐水（PBS）洗涤细胞3次。在吸出最后一次洗涤液后，加入50µl microslist 20。TopCount对盘子进行了计数。

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L6成肌细胞对2-脱氧葡萄糖（2-DG）的摄取[1]
使用来自大鼠骨骼肌细胞系L6的细胞来测试卡格列净对葡萄糖转运蛋白1（GLUT1）活性的影响。细胞被保存在含有5.6 mM葡萄糖和10%胎牛血清的Dulbecco改良Eagle培养基中，以3.0×105个细胞/孔的密度接种在24孔板中，并在37°C、5%CO2的气氛中培养24小时。用Kreb's ringer磷酸盐HEPES缓冲液（pH 7.4，150 mM NaCl，5 mM KCl，1.25 mM MgSO4，1.25 mmol CaCl2，2.9 mM Na2HPO4，10 mM HEPES）冲洗细胞两次，并在室温下用卡格列净（250µl，10 uM）溶液预孵育5分钟。通过加入50µl 4.5 mM 2-DG（GLUTs的底物）/3H-2-DG（0.625µCi），然后在室温下孵育15分钟，启动转运反应。通过吸入培养混合物来停止2-DG的摄取。立即用冰冷的PBS洗涤细胞3次。用0.3N NaOH提取样品，通过液体闪烁测定放射性。

Animal/Disease Models: Diet-induced obese, insulin resistantmice (DIO) Mice[1]
Doses: 30 mg/kg
Route of Administration: po (oral gavage); daily; 4 weeks
Experimental Results: decreased BG levels, respiratory exchange ratio, and body weight gain.

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Animal/Disease Models: Male Zucker fatty (ZF) obese, insulin resistant rats[1]
Doses: 3 mg /kg
Route of Administration: po (oral gavage); daily; 3 weeks
Experimental Results: UGE was increased with no significant change in total food intake compared with that in vehicle-treated rats, leading to a decrease in body weight.

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Animals and canagliflozin Administration [1]
Four rodent models were used in these experiments: (1) male C57BL/6J mice fed with a high-fat diet (D-12492 with 60 kcal% fat) (diet-induced obese, insulin resistantmice [DIO]); (2) male C57BL/ksj-db/db hyperglycemic mice; (3) male Zucker fatty (ZF) obese, insulin resistant rats; and (4) male ZDF obese, hyperglycemic rats. Canagliflozin was formulated in 0.5% hydroxypropyl methylcellulose and administrated via oral gavage at 10 ml/kg.

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Reduction of Hyperglycemia in Diabetic Rodent Models [1]
To examine the effect of canagliflozin on hyperglycemia, single doses of canagliflozin (0.1, 1, and 10 mg/kg) were administered to overnight-fasted db/db mice. BG levels were monitored at 0, 0.5, 1, 3, 6, and 24 hours after dosing. Canagliflozin was also administered to ZDF rats at varying doses (3–30 mg/kg) for 4 weeks to evaluate its effect on BG control and pancreatic beta-cell function. BG levels were monitored weekly, and HbA1c, plasma glucose, and insulin levels were determined at the end of the 4-week treatment. An oral glucose tolerance test (OGTT) (2 mg/kg of body weight, given by gavage) was conducted in ZDF rats after 4 weeks of treatment. Blood was sampled at 0, 30, 60, and 120 minutes after glucose challenge from the tail vein for measurement of BG levels using a glucometer and plasma insulin using ELISA method.

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Body Weight Control Studies in Obese Mice and Rats [1]
The effects of canagliflozin on body weight gain were evaluated in DIO mice and ZF rats. DIO mice received a 4-week treatment of canagliflozin at 30 mg/kg. Body weight, food intake, and BG levels were monitored weekly. UGE and indirect calorimetry were conducted in the fourth week of treatment during the compound treatment. In another study, ZF rats were treated with canagliflozin at 3 mg/kg for 3 weeks. Body weight, food intake, and BG were measured weekly during the 19-day treatment period. UGE, body fat, and indirect calorimetric studies were conducted at the end of this study.

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Urinary Glucose Excretion (UGE) Study. [1]
Male Sprague-Dawley (SD) rats aged 4-5 weeks were used for experiments at 6 weeks of age after acclimation period. The animals were divided into experimental groups matched for body weight (n = 2-3). The compounds were prepared in vehicles as suspension or solution. UGE studies were performed after two-day acclimation period in metabolic cages. The compounds (canagliflozin) or vehicle were orally administered at a dose of 30 mg/kg in 0.2% CMC/0.2% Tween 80. Urine samples were collected for 24 hours using metabolic cages to measure urinary glucose excretion. Urine glucose contents were determined by an enzymatic assay kit (UGLU-L). All animals were allowed free access to a standard pellet diet (CRF1) and tap water.

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Single Oral Dosing Study. [1]
Male KK/Ta Jcl mice aged 9 weeks were kept on a standard diet (CRF-1; 5.7% (w/w) fat, 3.59 kcal/g), 20-week-old mice were fed with a high-fat diet (60 kcal%) for 4 weeks. The experiment was carried out at the age of 24 weeks. Male C57BL/6N mice aged 11 weeks were also used in this study. The animals were divided into experimental groups matched for body weight and blood glucose levels, which were measured in the fed state on the day of the experiment. The compounds (canagliflozin; 3 mg/kg) or vehicle (0.2% CMC/0.2% Tween 80) were orally administered at a volume of 10 mL/kg. The blood samples were collected from the tail vein before and at 1, 2, 4, 6 and 24 hr after the administration. The blood glucose level was determined using commercially available kits based on the glucose oxidase method. Data are expressed as means ± SEM. Area under the curve for blood glucose levels (AUCglucose 0-6 hr) was calculated by the trapezoidal rule.

Absorption, Distribution and Excretion
**Bioavailability and steady-state** The absolute oral bioavailability of canagliflozin, on average, is approximately 65%. Steady-state concentrations are achieved after 4 to 5 days of daily dose administration between the range of 100mg to 300mg. **Effect of food on absorption** Co-administration of a high-fat meal with canagliflozin exerted no appreciable effect on the pharmacokinetic parameters of canagliflozin. This drug may be administered without regard to food. Despite this, because of the potential of canagliflozin to decrease postprandial plasma glucose excretion due to prolonged intestinal glucose absorption, it is advisable to take this drug before the first meal of the day.
After a single oral radiolabeled dose canagliflozin dose to healthy subjects, the following ratios of canagliflozin or metabolites were measured in the feces and urine: **Feces** 41.5% as the unchanged radiolabeled drug 7.0% as a hydroxylated metabolite 3.2% as an O-glucuronide metabolite **Urine** About 33% of the ingested radiolabled dose was measured in the urine, generally in the form of O-glucuronide metabolites. Less than 1% of the dose was found excreted as unchanged drug in urine.
This drug is extensively distributed throughout the body. On average, the volume of distribution of canagliflozin at steady state following a single intravenous dose in healthy patients was measured to be 83.5 L.
In healthy subjects, canagliflozin clearance was approximately 192 mL/min after intravenous (IV) administration. The renal clearance of 100 mg and 300 mg doses of canagliflozin was measured to be in the range of 1.30 - 1.55 mL/min.
/MILK/ Canagliflozin is distributed into milk in rats; it is not known whether the drug is distributed into human milk.
Canagliflozin is an oral antihyperglycemic agent used for the treatment of type 2 diabetes mellitus. It blocks the reabsorption of glucose in the proximal renal tubule by inhibiting the sodium-glucose cotransporter 2. This article describes the in vivo biotransformation and disposition of canagliflozin after a single oral dose of [(14)C]canagliflozin to intact and bile duct-cannulated (BDC) mice and rats and to intact dogs and humans. Fecal excretion was the primary route of elimination of drug-derived radioactivity in both animals and humans. In BDC mice and rats, most radioactivity was excreted in bile. The extent of radioactivity excreted in urine as a percentage of the administered [(14)C]canagliflozin dose was 1.2%-7.6% in animals and approximately 33% in humans. The primary pathways contributing to the metabolic clearance of canagliflozin were oxidation in animals and direct glucuronidation of canagliflozin in humans. Unchanged canagliflozin was the major component in systemic circulation in all species. In human plasma, two pharmacologically inactive O-glucuronide conjugates of canagliflozin, M5 and M7, represented 19% and 14% of total drug-related exposure and were considered major human metabolites. Plasma concentrations of M5 and M7 in mice and rats from repeated dose safety studies were lower than those in humans given canagliflozin at the maximum recommended dose of 300 mg. However, biliary metabolite profiling in rodents indicated that mouse and rat livers had significant exposure to M5 and M7. Pharmacologic inactivity and high water solubility of M5 and M7 support glucuronidation of canagliflozin as a safe detoxification pathway.
The mean absolute oral bioavailability of canagliflozin is approximately 65%. Co-administration of a high-fat meal with canagliflozin had no effect on the pharmacokinetics of canagliflozin; therefore, INVOKANA may be taken with or without food. However, based on the potential to reduce postprandial plasma glucose excursions due to delayed intestinal glucose absorption, it is recommended that INVOKANA be taken before the first meal of the day. The mean steady-state volume of distribution of canagliflozin following a single intravenous infusion in healthy subjects was 119 L, suggesting extensive tissue distribution. Canagliflozin is extensively bound to proteins in plasma (99%), mainly to albumin. Protein binding is independent of canagliflozin plasma concentrations. Plasma protein binding is not meaningfully altered in patients with renal or hepatic impairment. Following administration of a single oral [14C] canagliflozin dose to healthy subjects, 41.5%, 7.0%, and 3.2% of the administered radioactive dose was recovered in feces as canagliflozin, a hydroxylated metabolite, and an O-glucuronide metabolite, respectively. Enterohepatic circulation of canagliflozin was negligible. Approximately 33% of the administered radioactive dose was excreted in urine, mainly as O-glucuronide metabolites (30.5%). Less than 1% of the dose was excreted as unchanged canagliflozin in urine. Renal clearance of canagliflozin 100 mg and 300 mg doses ranged from 1.30 to 1.55 mL/min. Mean systemic clearance of canagliflozin was approximately 192 mL/min in healthy subjects following intravenous administration.

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Metabolism / Metabolites
Canagliflozin is primarily metabolized by O-glucuronidation. It is mainly glucuronidated by UGT1A9 and UGT2B4 enzymes to two inactive O-glucuronide metabolites. The oxidative metabolism of canagliflozin by hepatic cytochrome enzyme CYP3A4 is negligible (about 7%) in humans.
O-glucuronidation is the major metabolic elimination pathway for canagliflozin, which is mainly glucuronidated by UGT1A9 and UGT2B4 to two inactive O-glucuronide metabolites. CYP3A4-mediated (oxidative) metabolism of canagliflozin is minimal (approximately 7%) in humans.

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Biological Half-Life
In a clinical study, the terminal half-life of canagliflozin was 10.6 hours for the 100mg dose and 13.1 hours for the 300 mg dose.

Toxicity Summary
IDENTIFICATION AND USE: Canagliflozin, an oral inhibitor of sodium/glucose cotransporter 2 (SGLT2) in the kidneys, leads to glucosuria and provides a unique mechanism to lower blood glucose levels in diabetes. HUMAN EXPOSURE AND TOXICITY: Canagliflozin is used for the treatment of type 2 diabetes. This agent lowers blood glucose mainly by increasing urinary glucose excretion through inhibition of sodium glucose co-transporter 2 (SGLT2) in the kidneys. Data derived from randomized clinical trials lasting up to 52 weeks suggest that canagliflozin is generally well tolerated. The most common adverse effects are genital mycotic infections occurring in 11-15% of women exposed to canagliflozin versus 2-4% of those randomized to glimepiride or sitagliptin. In men, corresponding proportions are 8-9% versus 0.5-1%. Urinary tract infections (UTI) are slightly increased (5-7%) with the use of canagliflozin compared with placebo (4%). The risk of hypoglycemia associated with canagliflozin is marginally higher than placebo, but markedly increases when the drug is used in conjunction of insulin or sulfonylureas (SU), in patients with chronic kidney disease (CKD), and in the elderly. Worsening renal function and hyperkalemia may occur in patients using canagliflozin, particularly in patients with underlying CKD. Mild weight loss (mean 2-4 kg) and lowering of blood pressure represent 2 advantages of canagliflozin owing to its osmotic diuretic effect. However, the latter action may lead to postural hypotension and dizziness in susceptible subjects. Another concerning adverse effect of canagliflozin is an average 8% increase in plasma levels of low-density lipoprotein cholesterol (LDL-C) compared with placebo. Adverse effects such as increased urinary frequency, genital mycotic infections, and urinary tract infections may discourage the use of the drug in the elderly patient. ANIMAL STUDIES: The carcinogenicity potential of canagliflozin was evaluated in a 2-year rat study (10, 30, and 100 mg/kg). Rats showed an increase in pheochromocytomas, renal tubular tumors, and testicular Leydig cell tumors. Leydig cell tumors were associated with increased luteinizing hormone levels and pheochromocytomas were most likely related to glucose malabsorption and altered calcium homeostasis. Renal tubular tumors may also have been linked to glucose malabsorption. Canagliflozin did not increase the incidence of tumors in mice dosed at 10, 30, or 100 mg/kg. In a juvenile toxicity study in which canagliflozin was dosed directly to young rats from postnatal day (PND) 21 until PND 90 at doses of 4, 20, 65, or 100 mg/kg, increased kidney weights and a dose-related increase in the incidence and severity of renal pelvic and renal tubular dilatation were reported at all dose levels. Exposure at the lowest dose tested was greater than or equal to 0.5 times the maximum clinical dose of 300 mg. The renal pelvic dilatations observed in juvenile animals did not fully reverse within the 1-month recovery period. Similar effects on the developing kidney were not seen when canagliflozin was administered to pregnant rats or rabbits during the period of organogenesis or during a study in which maternal rats were dosed from gestation day (GD) 6 through PND 21 and pups were indirectly exposed in utero and throughout lactation. Canagliflozin had no effects on the ability of rats to mate and sire or maintain a litter up to the high dose of 100 mg/kg (approximately 14 times and 18 times the 300 mg clinical dose in males and females, respectively), although there were minor alterations in a number of reproductive parameters (decreased sperm velocity, increased number of abnormal sperm, slightly fewer corpora lutea, fewer implantation sites, and smaller litter sizes) at the highest dosage administered. Canagliflozin was not mutagenic with or without metabolic activation in the Ames assay. Canagliflozin was mutagenic in the in vitro mouse lymphoma assay with but not without metabolic activation. Canagliflozin was not mutagenic or clastogenic in an in vivo oral micronucleus assay in rats and an in vivo oral Comet assay in rats.

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Effects During Pregnancy and Lactation
◉ Summary of Use during Lactation
No information is available on the clinical use of canagliflozin during breastfeeding. Canagliflozin is an uncharged molecule that is 99% protein bound in plasma, so it is unlikely to pass into breastmilk in clinically important amounts. The manufacturer does not recommend canagliflozin during breastfeeding because of a theoretical risk to the infant's developing kidney. An alternate drug may be preferred, especially while nursing a newborn or preterm infant.
◉ Effects in Breastfed Infants
Relevant published information was not found as of the revision date.
◉ Effects on Lactation and Breastmilk
Relevant published information was not found as of the revision date.

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Protein Binding
Canagliflozin is mainly bound to albumin. The plasma protein binding of this drug is 99%.

[1]. Effect of canagliflozin on renal threshold for glucose, glycemia, and body weight in normal and diabetic animal models. PLoS One. 2012;7(2):e30555.

[2]. Discovery of canagliflozin, a novel C-glucoside with thiophene ring, as sodium-dependent glucose cotransporter 2 inhibitor for the treatment of type 2 diabetes mellitus. J Med Chem. 2010 Sep 9;53(17):6355-60.

Canagliflozin hydrate is a hydrate that is the hemihydrate form of canagliflozin. Used for treatment of type II diabetes via inhibition of sodium-glucose transport protein subtype 2. It has a role as a hypoglycemic agent and a sodium-glucose transport protein subtype 2 inhibitor. It contains a canagliflozin.
Canagliflozin is a C-glucoside with a thiophene ring that is an orally available inhibitor of sodium-glucose transporter 2 (SGLT2) with antihyperglycemic activity. Canagliflozin is also able to reduce body weight and has a low risk for hypoglycemia.
A glucoside-derived SODIUM-GLUCOSE TRANSPORTER 2 inhibitor that stimulates urinary excretion of glucose by suppressing renal glucose reabsorption. It is used to manage BLOOD GLUCOSE levels in patients with TYPE 2 DIABETES.

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Drug Indication
Invokana is indicated for the treatment of adults with insufficiently controlled type 2 diabetes mellitus as an adjunct to diet and exercise: as monotherapy when metformin is considered inappropriate due to intolerance or contraindicationsin addition to other medicinal products for the treatment of diabetes. For study results with respect to combination of therapies, effects on glycaemic control, cardiovascular and renal events, and the populations studied, see sections 4. 4, 4. 5 and 5. 1.

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Canagliflozin is a C-glycosyl compound that is used (in its hemihydrate form) for treatment of type II diabetes via inhibition of sodium-glucose transport protein subtype 2. It has a role as a hypoglycemic agent and a sodium-glucose transport protein subtype 2 inhibitor. It is a C-glycosyl compound, a member of thiophenes and an organofluorine compound.
Canagliflozin, also known as Invokana, is a sodium-glucose cotransporter 2 (SGLT2) inhibitor used in the management of type 2 diabetes mellitus along with lifestyle changes including diet and exercise. It was initially approved by the FDA in 2013 for the management of diabetes and later approved in 2018 for a second indication of reducing the risk of cardiovascular events in patients diagnosed with type 2 diabetes mellitus,. Canagliflozin is the first oral antidiabetic drug approved for the prevention of cardiovascular events in patients with type 2 diabetes. Cardiovascular disease is the most common cause of death in these patients.
Canagliflozin anhydrous is a Sodium-Glucose Cotransporter 2 Inhibitor. The mechanism of action of canagliflozin anhydrous is as a Sodium-Glucose Transporter 2 Inhibitor, and P-Glycoprotein Inhibitor.
Canagliflozin is a C-glucoside with a thiophene ring that is an orally available inhibitor of sodium-glucose transporter 2 (SGLT2) with antihyperglycemic activity. Canagliflozin is also able to reduce body weight and has a low risk for hypoglycemia.
Canagliflozin Anhydrous is the anhydrous form of canagliflozin, a C-glucoside with a thiophene ring that is an orally available inhibitor of sodium-glucose transporter 2 (SGLT2) with antihyperglycemic activity. Canagliflozin is also able to reduce body weight and has a low risk for hypoglycemia.
A glucoside-derived SODIUM-GLUCOSE TRANSPORTER 2 inhibitor that stimulates urinary excretion of glucose by suppressing renal glucose reabsorption. It is used to manage BLOOD GLUCOSE levels in patients with TYPE 2 DIABETES.

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Drug Indication
This drug is used in conjunction with diet and exercise to increase glycemic control in adults diagnosed with type 2 diabetes mellitus. Another indication for canagliflozin is the prevention of major cardiovascular events (myocardial infarction, stroke, or death due to a cardiovascular cause) in patients with type 2 diabetes, as well as hospitalization for heart failure in patients with type 2 diabetes[L5897,. In addition to the above, canagliflozin can be used to lower the risk of end-stage kidney disease and major increases in serum creatinine and cardiovascular death for patients with a combination of type 2 diabetes mellitus, diabetic nephropathy, and albuminuria. It is important to note that this drug is **not** indicated for the treatment of type 1 diabetes mellitus or diabetic ketoacidosis.
FDA Label
Invokana is indicated for the treatment of adults with insufficiently controlled type 2 diabetes mellitus as an adjunct to diet and exercise: as monotherapy when metformin is considered inappropriate due to intolerance or contraindicationsin addition to other medicinal products for the treatment of diabetes. For study results with respect to combination of therapies, effects on glycaemic control, cardiovascular and renal events, and the populations studied, see sections 4. 4, 4. 5 and 5. 1.
Treatment of type II diabetes mellitus

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Mechanism of Action
The sodium-glucose co-transporter2 (SGLT2), is found in the proximal tubules of the kidney, and reabsorbs filtered glucose from the renal tubular lumen. Canagliflozin inhibits the SGLT2 co-transporter. This inhibition leads to lower reabsorption of filtered glucose into the body and decreases the renal threshold for glucose (RTG), leading to increased glucose excretion in the urine.
Sodium-glucose co-transporter 2 (SGLT2), expressed in the proximal renal tubules, is responsible for the majority of the reabsorption of filtered glucose from the tubular lumen. Canagliflozin is an inhibitor of SGLT2. By inhibiting SGLT2, canagliflozin reduces reabsorption of filtered glucose and lowers the renal threshold for glucose (RTG), and thereby increases urinary glucose excretion (UGE).

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Background: Canagliflozin is a sodium glucose co-transporter (SGLT) 2 inhibitor in clinical development for the treatment of type 2 diabetes mellitus (T2DM). Methods: (14)C-alpha-methylglucoside uptake in Chinese hamster ovary-K cells expressing human, rat, or mouse SGLT2 or SGLT1; (3)H-2-deoxy-d-glucose uptake in L6 myoblasts; and 2-electrode voltage clamp recording of oocytes expressing human SGLT3 were analyzed. Graded glucose infusions were performed to determine rate of urinary glucose excretion (UGE) at different blood glucose (BG) concentrations and the renal threshold for glucose excretion (RT(G)) in vehicle or canagliflozin-treated Zucker diabetic fatty (ZDF) rats. This study aimed to characterize the pharmacodynamic effects of canagliflozin in vitro and in preclinical models of T2DM and obesity. Results: Treatment with canagliflozin 1 mg/kg lowered RT(G) from 415±12 mg/dl to 94±10 mg/dl in ZDF rats while maintaining a threshold relationship between BG and UGE with virtually no UGE observed when BG was below RT(G). Canagliflozin dose-dependently decreased BG concentrations in db/db mice treated acutely. In ZDF rats treated for 4 weeks, canagliflozin decreased glycated hemoglobin (HbA1c) and improved measures of insulin secretion. In obese animal models, canagliflozin increased UGE and decreased BG, body weight gain, epididymal fat, liver weight, and the respiratory exchange ratio. Conclusions: Canagliflozin lowered RT(G) and increased UGE, improved glycemic control and beta-cell function in rodent models of T2DM, and reduced body weight gain in rodent models of obesity.[1]

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We discovered that C-glucosides 4 bearing a heteroaromatic ring formed metabolically more stable inhibitors for sodium-dependent glucose cotransporter 2 (SGLT2) than the O-glucoside, 2 (T-1095). A novel thiophene derivative 4b-3 (canagliflozin) was a highly potent and selective SGLT2 inhibitor and showed pronounced anti-hyperglycemic effects in high-fat diet fed KK (HF-KK) mice.[2]

C48H52F2O11S2

907.05

906.291

C, 63.56; H, 5.78; F, 4.19; O, 19.40; S, 7.07

928672-86-0

Canagliflozin;842133-18-0

24997615

Off-white to yellow solid powder

5.872

246.01

9

15

10

63

574

10

CC1=C(C=C(C=C1)[C@H]2[C@@H]([C@H]([C@@H]([C@H](O2)CO)O)O)O)CC3=CC=C(S3)C4=CC=C(C=C4)F.CC1=C(C=C(C=C1)[C@H]2[C@@H]([C@H]([C@@H]([C@H](O2)CO)O)O)O)CC3=CC=C(S3)C4=CC=C(C=C4)F.O

VHOFTEAWFCUTOS-TUGBYPPCSA-N

InChI=1S/2C24H25FO5S.H2O/c2*1-13-2-3-15(24-23(29)22(28)21(27)19(12-26)30-24)10-16(13)11-18-8-9-20(31-18)14-4-6-17(25)7-5-14;/h2*2-10,19,21-24,26-29H,11-12H2,1H3;1H2/t2*19-,21-,22+,23-,24+;/m11./s1

(2S,3R,4R,5S,6R)-2-[3-[[5-(4-fluorophenyl)thiophen-2-yl]methyl]-4-methylphenyl]-6-(hydroxymethyl)oxane-3,4,5-triol;hydrate

2934.99.9001

Powder      -20°C    3 years

                     4°C     2 years

In solvent   -80°C    6 months

                  -20°C    1 month

Room temperature (This product is stable at ambient temperature for a few days during ordinary shipping and time spent in Customs)

配方 1 中的溶解度: ≥ 2.5 mg/mL (5.51 mM) (饱和度未知) in 10% DMSO + 40% PEG300 + 5% Tween80 + 45% Saline (这些助溶剂从左到右依次添加，逐一添加), 澄清溶液。
例如，若需制备1 mL的工作液，可将100 μL 25.0 mg/mL澄清DMSO储备液加入到400 μL PEG300中，混匀；然后向上述溶液中加入50 μL Tween-80，混匀；加入450 μL生理盐水定容至1 mL。
*生理盐水的制备：将 0.9 g 氯化钠溶解在 100 mL ddH₂O中，得到澄清溶液。

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配方 2 中的溶解度: ≥ 2.5 mg/mL (5.51 mM) (饱和度未知) in 10% DMSO + 90% (20% SBE-β-CD in Saline) (这些助溶剂从左到右依次添加，逐一添加), 澄清溶液。
例如，若需制备1 mL的工作液，可将 100 μL 25.0 mg/mL澄清DMSO储备液加入900 μL 20% SBE-β-CD生理盐水溶液中，混匀。
*20% SBE-β-CD 生理盐水溶液的制备（4°C，1 周）：将 2 g SBE-β-CD 溶解于 10 mL 生理盐水中，得到澄清溶液。

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配方 3 中的溶解度: ≥ 2.5 mg/mL (5.51 mM) (饱和度未知) in 10% DMSO + 90% Corn Oil (这些助溶剂从左到右依次添加，逐一添加), 澄清溶液。
例如，若需制备1 mL的工作液，可将 100 μL 25.0 mg/mL 澄清 DMSO 储备液添加到 900 μL 玉米油中并混合均匀。

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配方 4 中的溶解度: 0.5% CMC+0.25% Tween 80 :18 mg/mL

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请根据您的实验动物和给药方式选择适当的溶解配方/方案：
1、请先配制澄清的储备液(如：用DMSO配置50 或 100 mg/mL母液(储备液));
2、取适量母液，按从左到右的顺序依次添加助溶剂，澄清后再加入下一助溶剂。以 下列配方为例说明 (注意此配方只用于说明，并不一定代表此产品 的实际溶解配方):
10% DMSO → 40% PEG300 → 5% Tween-80 → 45% ddH2O (或 saline);
假设最终工作液的体积为 1 mL, 浓度为5 mg/mL: 取 100 μL 50 mg/mL 的澄清 DMSO 储备液加到 400 μL PEG300 中，混合均匀/澄清；向上述体系中加入50 μL Tween-80，混合均匀/澄清；然后继续加入450 μL ddH2O (或 saline)定容至 1 mL；
3、溶剂前显示的百分比是指该溶剂在最终溶液/工作液中的体积所占比例;
4、 如产品在配制过程中出现沉淀/析出，可通过加热(≤50℃)或超声的方式助溶;
5、为保证最佳实验结果，工作液请现配现用！
6、如不确定怎么将母液配置成体内动物实验的工作液，请查看说明书或联系我们;
7、 以上所有助溶剂都可在 Invivochem.cn网站购买。