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Protection of antiproliferative effect of cis-diamminedichloroplatinum (II) by sodium thiosulfate.

Utilizing the phytohemagglutinin (PHA) stimulation assay of human peripheral blood mononuclear cells (PBM), the protective effect of sodium thiosulfate (STS) on the antiproliferative action of cis-diamminedichloroplatinum (II) (DDP) against human cells was investigated. DDP alone significantly inhibited the proliferation of PBM over the concentration range of 10(-7) to 5 X 10(-5) M. The antiproliferative effect of DDP was significantly blocked when STS was added to the stimulation culture at the time of exposure to DDP at molar STS/DDP ratios of more than 500. However, STS at molar ratios of less than 100 induced minimal protection. Then, STS was added at various times after DDP exposure with a molar STS/DDP ratio of 1000. The protection was effective within 10 min after exposure to DDP at a concentration of 5 X 10(-5) M, whereas it was not effective beyond 30 min after the exposure. The results indicate that effective protection against DDP cytotoxicity in human cells can be achieved by the concurrent presence of STS with molar STS/DDP ratios of more than 500, but not when a molar STS/DDP ratio of less than 100 is used.

Cell Division↗

Inactivation of cis-diamminedichloroplatinum (II) in blood and protection of its toxicity by sodium thiosulfate in rabbits.

The mode of inactivation of cis-diamminedichloroplatinum(II) (DDP) in the bloodstream and protection from its toxicity by sodium thiosulfate (STS) were investigated in rabbits. Plasma ultrafiltrate in rabbits given 5 mg/kg DDP IV and various excess molar ratios of STS IV were assayed for the active platinum levels with a new microbiological assay system using an E. coli strain. The active platinum species in the plasma were inactivated completely by co-administration of a 400-fold excess of STS IV. The rabbits were almost completely protected against both BUN increase and body weight loss normally caused by DDP when 400-fold doses of STS were given. Diuretic effects were also observed. Our data provide evidence for the basis of optimum use of STS to protect against DDP toxicity.

Animals↗

"Two-route chemotherapy" using cis-diamminedichloroplatinum(II) and its antidote, sodium thiosulfate, combined with angiotensin II is effective against peritoneally disseminated cancer in rats.

"Two-route chemotherapy" (TRC) using cis-diamminedichloroplatinum(II) (DDP) and its antidote, sodium thiosulfate (STS), combined with the angiotensin II (AT-II)-induced hypertension method was evaluated for its efficacy against peritoneally disseminated tumors in rats. A bolus i.p. injection of DDP (15 mg/kg) was given 1 min after the initiation of an AT-II (16.5 micrograms/kg) i.v. infusion lasting 11 min. Immediately after the termination of the AT-II infusion, 1,580 mg/kg STS was injected i.v. over a further 5 min. This modified TRC significantly improved the antitumor effect, evaluated by survival (increase in life span, 273%), compared with that achieved with other treatments, as follows: 15 mg/kg DDP i.p. and the concomitant i.v. infusion of 1,580 mg/kg STS (conventional TRC), 153% increase in life span; 5 mg/kg DDP i.p. with or without AT-II i.v. (167% and 107% increases in life span, respectively). As an index of nephrotoxicity, blood urea nitrogen (BUN) levels seen after modified TRC (21.1 mg/dl) were as low as those observed after conventional TRC (19.1 mg/dl), despite the postadministration of STS, and were much lower than those seen after DDP alone or DDP plus AT-II (35.6 and 35.7 mg/dl, respectively). Further evaluation of the effectiveness of modified TRC using various doses of DDP gave similar results. The feasibility of the administration of STS 10 min after DDP treatment was explained by the significant inhibition of DDP delivery to the kidney during the AT-II-induced hypertension. Thus, TRC combined with AT-II has a superior therapeutic effect against peritonitis carcinomatosa induced in rats.

Angiotensin II↗

Effects of sodium thiosulfate in combination therapy of cis-dichlorodiammineplatinum and vindesine.

The effects of sodium thiosulfate (STS) were studied in patients who received a combination therapy of cis-dichlorodiammineplatinum (CDDP) and vindesine. In this study, 61 patients with non-small-cell lung carcinoma were randomized to receive either CDDP and vindesine (both given i.v.) with i.v. STS [30 patients, STS(+) group] or CDDP and vindesine without STS [31 patients, STS(-) group]. In the STS(+) group, 16 patients who showed an improvement (reduction in tumor size or relief of symptoms) after the first course received the second STS(+) treatment, and 15 patients in the STS(-) group who showed an improvement after the first course received the second STS(-) treatment. Urinary levels of beta 2-microglobulin (BMG) and N-acetyl-beta-D-glucosaminidase (NAG) were measured as an index of proximal tubular function. Analysis of both levels indicated that STS suppressed CDDP nephrotoxicity to a minimal level. Serum BMG, blood urea nitrogen (BUN), and total as well as 24-h creatinine clearance levels were measured as an index of glomerular function. There were no significant differences in these levels between the STS(+) and STS(-) groups. The urinary recoveries of total platinum 24 h after CDDP administration were 29% and 21% in the STS(+) and STS(-) groups, respectively. The mean plasma concentrations of total platinum at 24 h after CDDP administration were 2.24 and 2.70 micrograms/ml in the STS(+) and STS(-) groups, respectively. There were no significant differences in the response rates of the STS(+) and STS(-) groups at a fixed dose of 100 mg/m2 CDDP. Therefore, the present study clearly demonstrates that systemic administration of STS reduces the side effects of CDDP to a minimal level without impairing its antitumor activity and that STS treatment is applicable in a repeated chemotherapy using CDDP alone or in combination with other antitumor agents.

Adenocarcinoma↗

Effects of sodium thiosulfate on the pharmacokinetics of unchanged cisplatin and on the distribution of platinum species in rat kidney: protective mechanism against cisplatin nephrotoxicity.

To investigate the mechanism underlying the protective effect against cisplatin (CDDP) nephrotoxicity of its antidote, sodium thiosulfate (STS), the effects of STS on the pharmacokinetics of unchanged CDDP and on the distribution of unchanged CDDP and high and low molecular mass metabolites (fixed and mobile metabolites) in the kidney 1 min after a bolus injection of CDDP (5 mg/kg) to rats were studied. A decrease in the plasma concentration of unchanged CDDP and an increase in the plasma concentration of mobile metabolites were observed in the rats after the bolus injection of CDDP in combination with STS infusion for 30 min (1200 mg/kg). Although STS accelerated platinum excretion during the first 10 min after CDDP injection, unchanged CDDP was not excreted in the urine in the STS-treated rats. Total kidney platinum 1 min after the bolus injection of CDDP was detected mainly as unchanged CDDP (86% of the total platinum) in the rats given CDDP alone. However, in the STS-treated rats, the total kidney platinum was decreased to 62% of the level in the rats given CDDP alone, and the platinum species detected in the kidney were mainly mobile metabolites. Only 24% of the total kidney platinum was detected as unchanged CDDP in the STS-treated rats. The loss of body weight and increases in BUN and serum creatinine levels usually observed after a bolus injection of CDDP were completely prevented by STS coadministration. The present study provides information about unchanged CDDP pharmacokinetics and the distribution of unchanged CDDP and some of its generic metabolites in the kidney when STS is coadministered as an antidote. These results show that the protective effect of STS against CDDP nephrotoxicity can be attributed to the formation of inactive mobile metabolites by a direct reaction between unchanged CDDP and STS in the systemic circulation, resulting in a reduction in the amount of unchanged CDDP in the kidney.

Analysis of Variance↗

[Effective treatment of peritoneal carcinosis by intraperitoneal cis-diamminedichloroplatinum (c-DDP) administration with systemic sodium thiosulfate protection. Clinical results and pharmacokinetics].

Thirteen patients with cytologically or histologically confirmed ascites from various malignancies have received 37 courses of intraperitoneal cis-platinum (cDDP). The tumor had to be confined to the peritoneal cavity or cause major symptoms by peritoneal carcinosis. cDDP (90-150 mg/m2 in 21 saline) was administered intraperitoneally with concurrent i.v. infusion of sodium thiosulfate. Courses were repeated in 4-week intervals. Total platinum was assayed by flameless atomic absorption spectrophotometry. With a dwell of 4 h 31.5 +/- 17.2% of platinum was recovered. Mean peak platinum concentration in the peritoneal cavity was 54.6 +/- 21 micrograms/ml and that in serum was 2.6 +/- 1.1 micrograms/ml. The ratio of peritoneal to serum platinum concentration dropped from 41 +/- 18.2 after 1 h to 6.9 +/- 4.7 after 5 h. The area under the curve for the peritoneum was approximately 11-fold greater than the area under the curve for serum. Within 12 h 31.7 +/- 10.7% of the administered dose was excreted in urine. Ten patients had disappearance of ascites lasting 6-135 + weeks. The treatment was generally well tolerated, no serious side effects were observed. This study demonstrates a pharmacokinetic advantage of intraperitoneal chemotherapy with cDDP and an effectiveness against peritoneal carcinosis from various malignancies with minimal systemic toxicity.

Adult↗

"Two route infusion chemotherapy" using cis-Diamminedichloroplatinum (II) and its antidote, sodium thiosulfate, for metastatic liver tumors in rats.

We studied the effects of combination chemotherapy of an antitumor drug cis-diamminedichloroplatinum (II) (DDP) and its potent antidote, sodium thiosulfate (STS) in rat liver tumor systems. This therapy was given to female WKA rats with metastatic liver tumors 13 days after inoculation of syngeneic hepatoma cells through the mesenteric vein. DDP and STS were administered via two different routes, hepatic artery and femoral vein, respectively (we call this treatment "two route infusion chemotherapy"). The antitumor effects were evaluated 21 days after the treatment by calculating the tumor weight from the total weight of the liver. Tumor weights of rats treated with 20 mg/kg of intra-arterial DDP plus 1,054 mg/kg of systemic STS (group A), 5 mg/kg of intra-arterial DDP alone (group B), and 5 mg/kg of systemic DDP alone (group C) were, about one fifth, two fifths and three fifths of the tumor weights in the untreated controls, respectively. In group A, no rats died despite administration of a 4-fold higher DDP dose than in the latter two groups B and C in which 14-18 per cent of the rats died, due to DDP-induced toxicity. The patterns of body weight gain in the three groups after the chemotherapy were much the same. Our results clearly indicate that the antitumor effect of DDP on metastatic liver tumors in rats can remarkably be enhanced by the "two route infusion chemotherapy" of DDP and STS.

Animals↗

Increased therapeutic effect on metastatic liver tumors in rats of two-route chemotherapy using cis-diamminedichloroplatinum (II) and its antidote, sodium thiosulfate, with temporary clamping of the abdominal aorta.

To improve the therapeutic effects of conventional "two-route chemotherapy" (TRC) comprising cis-diamminedichloroplatinum(II) (CDDP) given via the hepatic artery plus simultaneous i.v. sodium thiosulfate (STS) on metastatic liver tumors in rats, we combined TRC with aortic clamping at the supraceliac level. Treatments were evaluated in Wistar-King-Aptekman (WKA) rats bearing metastatic liver tumors 7 days after the inoculation of 10(6) syngenic RBT-1 (transitional-cell carcinoma) cells via the mesenteric vein. When 15 mg/kg CDDP was injected i.a. over 5 min, immediately followed by STS 1,580 mg/kg (200-fold the molar equivalent of 15 mg/kg CDDP) given i.v. over a further 5 min, the antitumor activity, evaluated by the number of tumor nodules present 12 days after treatment, was superior to that of conventional TRC (15 mg/kg i.a. CDDP plus simultaneous administration of 1,580 mg/kg i.v. STS), but the blood urea nitrogen (BUN) level was highly elevated (63.6 mg/dl). With aortic clamping for 7.5 min during CDDP administration and the first half of STS treatment, the TRC consisting of CDDP plus delayed STS (modified TRC) exhibited a further improvement in antitumor activity, with no nephrotoxicity (BUN, 17.1 mg/dl). Although the antitumor activity of 3 or 5 mg/kg i.a. CDDP was also increased by aortic clamping, in animals with normal BUN levels the survival of those treated with modified TRC was greater than that of rodents given 3 mg/kg i.a. CDDP with aortic clamping; however, the former was the same as that of animals given 5 mg/kg i.a. CDDP with aortic clamping whose BUN levels were elevated (31.2 mg/dl). Loss of body weight, the decrease in WBC counts, and changes in the serum transaminase levels in rats given modified TRC were tolerable. The improved therapeutic effect of modified TRC can be explained as follows: during aortic clamping, (a) CDDP delivery to the kidney decreased by 96% and made feasible the delay in STS administration after CDDP without nephrotoxicity, and (b) CDDP retention in the liver was increased by 366%, as aortic clamping decreased the portal blood flow, thereby inhibiting the washout of CDDP from the liver.

Animals↗

Rapid detection of sulfide-producing bacteria from sulfate and thiosulfate.

An original liquid medium and a field broth bottle method for the rapid detection of the most probable number of sulfide-producing bacteria (SPB) from sulfate and thiosulfate are described. The broth bottle method enables after inoculation with a sample (water, sediment) the growth of ubiquitous aerobic bacteria, causing oxygen depletion, required for the growth of the present various anaerobic and facultative anaerobic SPB. The medium regularly gives higher numbers of the SPB than the used control medium (Postgate's E) for detection of sulfate-reducing bacteria and the final results are obtained just 36 h after the medium inoculation. The method is simple and suitable for the estimation of the physiological group of SPB in fresh waters, saline waters, sediments and industrial waters.

Bacteria↗

The chemical reactivity of BNP7787 and its metabolite mesna with the cytostatic agent cisplatin: comparison with the nucleophiles thiosulfate, DDTC, glutathione and its disulfide GSSG.

PURPOSE: BNP7787 is a new chemoprotective agent presently under clinical investigation to protect against cisplatin-induced toxicities, especially nephrotoxicity and neurotoxicity. In the kidneys BNP7787 is postulated to undergo selective conversion into mesna, which can locally detoxify cisplatin. The reactivity of cisplatin with this new chemoprotective agent and with its metabolite mesna was investigated at clinically observed plasma concentrations and compared with the nucleophiles thiosulfate (TS) and DDTC, and with the endogenous compounds glutathione (GSH) and oxidized glutathione (GSSG). METHODS: Reaction kinetics experiments were performed at 37 degrees C and pH 7.4 in the presence of a high chloride concentration (0.15 M). The degradation of cisplatin was measured over time using HPLC with off-line flameless atomic absorption spectrophotometry. RESULTS: The degradation half-lives of cisplatin (13.5 microM) with 17.2 m M BNP7787, 340 microM mesna and 17.2 m M mesna were 124 min, about 790 min and 73 min, respectively. Cisplatin reacted at least 9.5 times more slowly with 17.2 mM BNP7787 and 5.5 times more slowly with 17.2 mM mesna than with 17.2 mM of the modulating agents DDTC or TS (i.e. half-lives 11 and 13 min, respectively). The half-lives of cisplatin with 17.2 m M GSH and GSSG (i.e. 122 and 115 min, respectively) were comparable with the half-life obtained with BNP7787. The thiol mesna was shown to be a stronger nucleophile than its corresponding disulfide BNP7787. CONCLUSIONS: The much slower relative reactivity of BNP7787, the short residence of BNP7787 (approximately 2 h) and the much lower concentration of mesna in the circulation following BNP7787 administration precludes chemical inactivation of cisplatin in the circulation, and thus the antitumor activity of cisplatin is maintained.

Algorithms↗

Effect of sodium thiosulfate on cisplatin removal with complete hepatic venous isolation and extracorporeal charcoal hemoperfusion: a pharmacokinetic evaluation.

BACKGROUND: Complete hepatic venous isolation and extracorporeal charcoal hemoperfusion (HVI.CHP) can limit systemic exposure to high-dose chemotherapeutic agents when given by hepatic arterial infusion (HAI). The purpose of this study was to determine if the concomitant use of sodium thiosulfate (STS) could further expand the advantages of pharmacologic delivery of HVI.CHP for cisplatin (CDDP) during HAI chemotherapy. METHODS: CDDP (4mg/kg) was administered over 20 minutes via HAI under conditions of HVI.CHP in 14 mongrel dogs. HVI.CHP was performed for 30 minutes after initiation of HAI. During CDDP infusion, 7 dogs each received 400 mg/kg STS (a 100-fold molar ratio to CDDP) over 20 minutes via the prefilter (STS group) circuit line, while the remaining 7 dogs (controls) received no STS. Blood samples were taken serially from the prefilter circuit line (hepatic venous blood), postfilter line, and the left carotid artery (systemic blood). The free and total CDDP concentrations in these samples were determined by flameless atomic absorption spectrophotometry. RESULTS: During 20 minutes HAI of CDDP, the mean CDDP extraction ratios (ER) by CHP filter were always higher in the STS group than in the control group, regardless of the form (free or total) of CDDP. The differences between the STS and control groups in the extraction ratios of free and total CDDP were significant at all time points measured (P < .05). Consequently, systemic exposure to CDDP, as assessed by area under the time-concentration curve of total CDDP, was significantly lower in the STS group than in the control group (P < .05). CONCLUSIONS: These results indicated that concomitant STS infusion could further increase the effect of HVI.CHP on CDDP removal after HAI.

Animals↗

Neutralizing effect of sodium thiosulfate on antitumor efficacy of cisplatin for human carcinoma xenografts in nude mice.

The present study was designed to examine the antitumor efficacy of combination chemotherapy with sodium thiosulfate (STS) and cis-diamminedichloroplatinum (CDDP) using a murine model. Xenograft tumors of the endometrial adenocarcinoma cell line responded well to intraperitoneal chemotherapy with CDDP in nude mice. However, addition of STS to CDDP treatment canceled the antitumor effect of CDDP. Such a finding was obtained in mice injected subcutaneously with STS even 72 hr after treatment with CDDP. On the other hand, alleviation of CDDP-induced side effects by administration of STS was not observed in mice treated by several modalities of combination chemotherapy with STS and CDDP. Thus, addition of STS to CDDP treatment reduced CDDP's antitumor efficacy with only minimal alleviation of side effects, suggesting that it would provide no benefit in patients treated with CDDP.

Adenocarcinoma↗

Regeneration experiments of the platinated enzyme fumarase, using sodium diethyldithiocarbamate, thiourea, and sodium thiosulfate.

The enzyme fumarase is inhibited by [cis-Pt(NH3)2(H2O)2] (NO3)2. The Pt compound most likely binds at a S-methionine site. Sodium diethyldithiocarbamate (Naddtc) appears to be a powerful regenerator of enzymatic activity. Thiourea is less active, while sodium thiosulfate (STS) is almost inactive in restoring the activity of the enzyme. The regeneration phenomena are based on the dissociation of the Pt-S bonds of the methionine type, and formation of species like [Pt(ddtc)2]. In the model adduct [Pt(dien)GS-Me]2+ Naddtc, thiourea and STS easily break the Pt-S bond of the methionine type. It is concluded that the model system for Naddtc and thiourea does resemble fumarase quite well. S-donor ligands, which may be used as rescue agents in Pt antitumor therapy, are known to suppress nephrotoxicity caused by [cis-PtCl2(NH3)2]. A parallel is drawn between the enzyme reactivation, modeled by fumarase, and the [cis-PtCl2(NH3)2] nephrotoxicity suppression by rescue agents. It is proposed that a Pt-methionine type binding is broken by the rescue agents Naddtc and thiourea, but that the rescue agent STS only inhibits the nephrotoxicity by inactivating unbound Pt species in the cell.

Animals↗

cis-diamminedichloroplatinum(II)-induced sister-chromatid exchanges and chromosome aberration formation in cultured human lymphocytes and their inhibition by sodium thiosulfate.

cis-Diamminedichloroplatinum(II) (cis-DDP)-induced sister-chromatid exchanges (SCEs) and chromosome aberration formation were studied in human lymphocytes. The mitotic index decreased abruptly at 2 X 10(-6) M cis-DDP and the frequency of SCEs was dose-related; a marked increase was recorded at 10(-6) M cis-DDP. A dose-dependent effect was also found for chromosome aberration formation at concentrations between 10(-11) and 4 X 10(-6) M. The aberrations observed were primarily chromatid breaks and gaps. We also examined the inhibition of these genotoxicities by treating the cells with sodium thiosulfate (STS). Simultaneous treatment with 10(-4)-10(-3) M STS (100-1000-fold molar ratio to cis-DDP) significantly reduced the frequency of SCEs induced by 10(-6) M cis-DDP. Furthermore, a 3-h delay in treating with STS significantly reduced cis-DDP-induced SCEs, but not chromosome aberration formation.

Antioxidants↗

'Two-route chemotherapy' using intra-arterial cisplatin and intravenous sodium thiosulfate, its neutralizing agent, for hepatic malignancies.

Seventeen patients with primary or metastatic malignancy in the liver were treated with 'two-route chemotherapy' (TRC). One course of this TRC consisted of hepatic artery infusion of cisplatin, 120 mg/m2, in combination with concurrent intravenous administration of sodium thiosulfate, its neutralizing agent, at a dose of 9.0 g/m2 by a rapid push, followed by 1.2 g/m2/h by continuous infusion for 6 h. Five of 11 (45%) hepatocellular carcinoma and two of six (33%) metastatic tumors achieved partial response. Although almost all patients experienced nausea or vomiting, severe side-effects, including nephrotoxicity, peripheral neuropathy or ototoxicity, were not encountered. Myelosuppression was observed in one patient after seven courses of this TRC. The results indicate that TRC may be relatively effective against hepatic malignancies in patients without severe toxicity.

Aged↗

The effect of sodium thiosulfate on subcellular localization of platinum in rat kidney after treatment with cisplatin.

Female Sprague-Dawley rats were given 10 mg/kg of i.v. cis-diammine-dichloroplatinum(II) (cisplatin) simultaneously with i.v. sodium thiosulfate (STS) at a 200-fold molar excess to cisplatin, then subcellular (nuclei, mitochondria, microsomes, cytosol) distribution of platinum within rat kidney cells was determined 15 min, 1 h, 8 h and 24 h after cisplatin injection. Blood urea nitrogen levels were measured in rats treated in the same manner described above. STS was found to block cisplatin-induced nephrotoxicity. However, differences in platinum concentrations in total homogenate or each subcellular fraction between STS-treated rats and controls were not significant enough to fully account for the drastic protective effect of STS against cisplatin nephrotoxicity.

Animals↗

The comparative effects of sodium thiosulfate, diethyldithiocarbamate, fosfomycin and WR-2721 on ameliorating cisplatin-induced ototoxicity.

The efficacies of four agents in ameliorating cisplatin-induced ototoxicity were investigated. Hamsters were given a series of 5 cisplatin injections (3 mg/kg/injection once every other day, i.p.) either alone or in combination with 1600 mg/kg/injection sodium thiosulfate (STS), 300 mg/kg/injection diethyldithiocarbamate (DDTC), 18 mg/kg/injection WR-2721, or 300 mg/kg/injection fosfomycin (n = 10/group). Ototoxicity was assessed electrophysiologically by auditory brainstem responses (ABRs) and anatomically by cochlear histology. The greatest auditory protection was given by STS, followed by DDTC. WR-2721 and fosfomycin did not provide any protection. All of the animals in the STS and DDTC groups survived, while some fatalities occurred in the fosfomycin, WR-2721, and cisplatin-only groups. Thus, the agents that were protective against ototoxicity were also protective against mortality. The ABRs also provided evidence of cisplatin-induced neuropathy. In summary, STS and DDTC hold promise for ameliorating the ototoxic effects of cisplatin chemotherapy and the hamster proved to be an excellent model of cisplatin ototoxicity.

Amifostine↗

Cisplatin rescue therapy: experience with sodium thiosulfate, WR2721, and diethyldithiocarbamate.

Cisplatin has a steep dose response curve for both antitumor and adverse effects. Therapeutic strategies aimed at reducing toxicity and allowing dose escalation of intravenous cisplatin, such as administration in hypertonic saline and pharmacokinetically based dosing schedules, have been partially successful in reducing nephrotoxicity and bone marrow suppression. However, new dose-limiting toxicities consisting of peripheral neuropathy and ototoxicity have emerged, which continue to restrict potential use of high dose cisplatin therapy. Intraperitoneal administration of high dose cisplatin also offers the potential of markedly increased local drug exposure if systemic toxicity can be avoided. Proposed chemoprotective agents, including sodium thiosulfate, WR2721, and diethyldithiocarbamate (DDTC) are being extensively examined as "rescue agents" for either regional or systemic administration of cisplatin. Although each agent offers unique advantages to be considered in developing successful rescue therapy, many questions remain regarding molecular and pharmacokinetic interactions with cisplatin, appropriate dosing schedules, and effects on antineoplastic activity. We present a review of current investigations of chemoprotectors for prevention of cisplatin-related toxicities.

Amifostine↗