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Chemotherapy doses are usually prescribed on the basis of body surface area but dose banding is emerging as an efficient alternative. Dose banding presents the possibility of in-advance preparation in a Centralized Intravenous Admixture Service. To evaluate the long-term stability of 5-fluorouracil at banded doses (700 mg and 800 mg) in polyolefin bags. Ten polyolefin bags were prepared under aseptic conditions and stored at 23 ± 2°C for 24 days. Five of them were composed of 14 mL 5-fluorocuracil (700 g) in 100 mL 0.9% sodium chloride solution and the five other of 16 mL 5-fluorouracil (800 mg) in 100 mL 0.9% sodium chloride solution. At defined times, physical stability parameters were assessed: optical densities, pH measurements, visual and microscopical inspections. Solutions concentrations were measured using high-performance liquid chromatography coupled with a photodiode array detector. No change was observed on pH and optical density measurements during the study period. Visual and microscopical inspections remained free of colour change, precipitate, microagregate or crystal. The concentrations of 5-Fluorouracil in 800 mg bags remained stable for 24 days while the concentration in 700 mg bags showed a stability of at least 17 days. Five-fluorouracil at banded doses of 700 and 800 mg in polyolefin bags is physicochemically stable for at least 17 days at 23 ± 2°C. These results support the possibility of in advance centralised preparation.

Gemcitabine is an analogue of cytidine arabinoside, used alone or in combination chemotherapy to treat various type of cancer. The dose-banding of gemcitabine provides the opportunity to anticipate the preparation of this anticancer drug on condition of carrying out stability studies. The aim of this study is to develop and validate a stability-indicating ultra-high-performance Liquid Chromatography (UHPLC) method for measuring the concentration of gemcitabine and to evaluate its stability at standardised rounded doses in polyolefin bags. The UHPLC with photodiode array (PDA) detector method was developed and validated (linearity, precision, accuracy, limits of detection and quantification, robustness and degradation test). Thirty polyolefin bags of gemcitabine (1600 mg/292 ml (n = 10), 1800 mg/297 ml (n = 10) and 2000 mg/303 ml (n = 10)) were prepared under aseptic conditions and stored at 5 ± 3 °C and 23 ± 2 °C for 49 days. Physical stability tests were periodically performed: visual and microscopic inspection and optical densities. The chemical stability was evaluated through pH monitoring and chromatographic assays. The results confirm the stability of Gemcitabine at selected standardised rounded doses of 1600 mg, 1800 mg and 2000 mg in NaCl 0.9% polyolefin bags for at least 49 days at 5 ± 3 °C and 23 ± 2 °C, allowing in-advance preparation.

BACKGROUND AND AIM Clonidine is frequently combined to opioids for the management of chronic pain. The aim of this study was to evaluate the physical stability of this combination at high and low concentrations in polypropylene syringes at 5±3°C and at 22±3°C. METHODS Five syringes with low concentration of clonidine (0.003 mg/mL) and morphine hydrochloride (0.417 mg/mL) and five syringes with high concentration of clonidine (0.032 mg/mL)and morphine hydrochloride (4.286 mg/mL) were evaluated. The turbidity, the pH and the crystal formation were controlled after the production and until 72h post-production. RESULTS No changes in color or appearance of opacity or turbidity were observed. Spectrophotometric measurements (at 350, 410 and 550 nm) and pH were not affected. The microscopic analysis did not detect any aggregate or crystal formation. DISCUSSION AND CONCLUSION The mixture of clonidine and morphine hydrochloride at low and high concentrations is physically stable for at least 72 hours post-production at 5±3°C and at 22±3°C. These results paved the way for a subsequent chemical stability study.

Death rattle, which could often be associated with a pulmonary fluid overload, occurs in 25% to 90% of dying patients. The co-administration of scopolamine (anticholinergic drug)and bumetanide (loop diuretic) could be considered in order to avoid unnecessary fluid overload at end-stage of life. The objective of this study was to investigate the physical and chemical stabilities of the admixture bumetanide and scopolamine in order to prepare them in advance by a centralized intravenous additive service in-hospital pharmacy. The stability of the lowest (LOW)concentration was evaluated on five polypropylene syringes containing the admixture bumetanide (Burinex, 2 mg/4 mL) and scopolamine (0.25 mg/mL) at 41.67 µg/mL and 5.21 µg/mL. The highest (HIGH) concentration with 125 µg/mL of bumetanide and 31.25 µg/mL of sc opolamine was evaluated on five polypropylene syringes. Ali syringes were stored for 18 days at 5°C ± 3°C. Periodic samples were visually and microscopically examined to observe any particle appearance or color change.The pH and absorbance at 3 wavelengths (350 nm, 410 nm, and 550 nm) were monitored. The concentrations were measured by ultra-high-performance liquid chromatography-photodiode array detection, using a newly developed method.During the 18 days of test, there was no change in color or appearance of opacity, turbidity, or precipitation, and the pH remained stable. Mean concentrations of bumetanide and scopolamine at LOW and HIGH concentrations after 18 days remained statistically unchanged. The lower limits of the 95% confidence intervals of molecules at LOW and HIGH concentrations remained higher than a 90% threshold of concentration thus considering the mixture chemically stable. Degradation rates of bumetanide and scopolamine content at LOW and HIGH concentration should not exceed a maximum of 0.70% every 10 days. This study was the first one to show that the admixture of bumetanide and scopolamine is physically and chemically stable at two conce

The physico-chemical stability of an injectable preparation (IV) is conditioned by different parameters. A collaboration between the pharmacy, the chemistry laboratory and the statisticians of the scientific support unit was established in 1996, in order to carry out long-term chemical stability studies of commonly used IVs and to be able to take charge of their preparation in pharmacy. In 24 years of activity, the Drug Stability Research Group (DSRG) tested 39 IV at different concentration and temperature of storage. The DSRG has organized an annual symposium since 2015. The theme of the 2019 edition was devoted to the robotization of injectable reconstitution operations, focused on their impact on the workplace and the existing equipment.

Management of chemotherapies is a strategic issue for european healthcare. Dose-banding enables to reduce waiting time of patients in day care units and drug wastage. The aim of this study was to assess the stability of 5-Fluorouracile (5-FU) at standardised rounded doses of 4 and 5 g in MyFuser® portable infusion pump for in-advance preparation. Ten MyFuser® (4 and 5 gr 5-FU added to NaCl 0.9%) were prepared under aseptic conditions and stored at room temperature (23 ± 2 °C) for 28 days then at 30 °C for three days. Physical stability tests were periodically performed: visual and microscopic inspection, pH measurements and optical densities. The concentration of solutions was measured by High Performance Liquid Chromatography/UV detector. Results confirm the stability of 5-FU at selected SRD of 4 g and 5 g with NaCl 0.9% in MyFuser® for at least 28 days at room temperature and three days at 30 °C, allowing in-advance preparation.

Potentially toxic plasticizers are commonly added to polyvinyl chloride medical devices for transfusion in order to improve their flexibility and workability. As the plasticizers are not chemically bonded to the PVC, they can be released into labile blood products (LBPs) during storage. Ideally, LBPs would be used in laboratory studies of plasticizer migration from the medical device. However, short supply (i.e., limited stocks of human blood in collection centres) has prompted the development of specific simulants for each type of LBP in the evaluation of new transfusion devices. We performed a Delphi study with a multidisciplinary panel of 24 experts. In the first (qualitative) phase, the panel developed consensus definitions of the specification criteria to be met by each migration simulant. Next, we reviewed the literature on techniques for simulating the migration of plasticizers into LBPs. A questionnaire was elaborated and sent out to the experts, and the replies were synthesized in order to obtain a consensus. The qualitative study established specifications for each biological matrix (whole blood, red blood cell concentrate, plasma, and platelet concentrate) and defined the criteria required for a suitable LBP simulant. Ten criteria were suggested: physical and chemical characteristics, opacity, form, stability, composition, ability to mimic a particular clinical situation, ease and safety of use, a simulant-plastic interaction correlated with blood, and compatibility with analytical methods. The questionnaire data revealed a consensus on the use of natural products (such as pig's blood) to mimic the four LBPs. Opinions diverged with regard to synthetic products. However, an isotonic solution and a rheological property modifier were considered to be of value in the design of synthetic simulants. Consensus reached by the Delphi group could be used as a database for the development of simulants used to assess the migration of plasticizers from PVC bags into L

Clonidine is an alpha-2 adrenoreceptor agonist and is frequently combined with opioids (ie, morphine hydrochloride (HCl)) for the management of chronic pain. In palliative care, the administration of clonidine and morphine HCl is recommended in case of tolerance effect. This study aimed to evaluate the physical and chemical stability of this admixture at high and low concentrations in 14 and 48 mL polypropylene syringes. The stability of a low concentration admixture of clonidine (Catapressan 0.15 mg/mL, Boehringer Ingelheim, Germany) and morphine (morphine HCl 40 mg/mL, Sterop, Belgium) at 0.003 and 0.417 mg/mL, respectively, was evaluated by using five polypropylene syringes of 48 mL. The high concentration admixture consisted of 0.032 mg/mL clonidine and 4.286 mg/mL morphine HCl and was evaluated by using five polypropylene syringes of 14 mL. All syringes were stored for 30 days at 5°C±3°C. Periodic samples were visually and microscopically examined to observe any particle appearance or colour change. pH and absorbance at three wavelengths (350, 410 and 550 nm) were monitored. The concentrations were measured by ultra-high performance liquid chromatography-photodiode array detection. During the 30 days, there was no change in colour or appearance of opacity, turbidity or precipitation, and pH remained stable. The low and high concentration admixtures were considered chemically stable since the lower limit of the 90% CI remained superior to 90% of the initial concentration. Concentration measurements showed that the degradation rate was less than 1% over 10 days for each component in both admixtures. The admixture of clonidine and morphine HCl at low and high concentrations in polypropylene syringes appeared to be physically and chemically stable throughout the study period of 30 days at 5°C±3°C. In conclusion, the admixture can be prepared in advance under aseptic conditions by a centralised intravenous additive service in the pharmacy department.

The objective of this review was to collect information and results about the method of the microwave freeze-thaw treatment of injectable drugs and whether the method can support the development of Centralized Intravenous Admixtures Services. A systematic review of the scientific literature about injectable drug stability studies was performed. The data are presented in a table, which describes the name of the drug, producer, final concentration, temperature and time of freezing storage, type of microwave oven, thawing power, method of dosage, and the results after treatment or final long-term storage at 5°C ± 3°C. From 1980 to 2021, 60 drugs were studied by the microwave freeze-thaw treatment, and the results were presented in 49 publications. Forty papers were presented by 8 teams (2 to 18 by team). The temperatures of freezing storage varied from -70°C to -10°C, the time storage from 4 hours to 12 months, and the thaw from low to full power. Drug concentrations were mainly determined by high-performance liquid chromatography. Most of the 59 drugs were stable during and after treatment. Only three teams tested the long-term stability after the microwave freeze-thaw treatment, the first for ganciclovir after 7 days, the second for ceftizoxime after 30 days, and the third for 20 drugs after 11 to 70 days. This review can help Centralized Intravenous Additive Services take charge of the productions of ready-to-use injectable drugs.

A literature review was conducted in 2019 on the reconstitution of intravenous drugs. The following methods were identified: manual, semi-automatic, and automatic. A classification was carried out in three categories: automatic syringes, peristaltic pumps, and compounding doses robots. Data concerning the robots described in the previous review and possible robots that have appeared in the meantime were collected. The robots have been classified into 2 categories: with or without arms. The objective of the present review focuses on an updated review of the availability of compounding robots for intravenous therapy that are currently on the market.

BACKGROUND AND OBJECTIVE: Infusion containing paracetamol, alizapride, ketorolac and tramadol is used after a general anaesthesia in order to limit pain, fever and nausea. Currently, these infusions are prepared according to demand in the anaesthesia unit, but the preparation in advance could improve quality of preparation and time management. The aim of this study was to investigate the long-term stability of this infusion in glass bottles at 5°C ± 3 °C. METHOD: Five bottles of infusion were stored at 5°C ± 3 °C for 60 days. A visual and microscope inspection were performed periodically to observe any particle appearance or colour change. pH and absorbance at three wavelengths were measured. The concentrations were measured by ultra-high performance liquid chromatography - diode array detection. RESULTS: Multiple verifications were performed during the first 35 days and no crystal, impurity or colour change were observed. At the next time point (42nd day), crystals were visible to the naked eye. pH and absorbance at 350 nm and 550 nm were stable. A slight increase in the absorbance at 410 nm was observed during the study, suggesting that a degradation product could be formed and absorb at this wavelength. The infusion was considered chemically stable while the lower one-sided prediction limit at 95% remains superior to 90% of the initial concentration. Concentration measurements demonstrated that ketorolac and alizapride remained stable in the infusion for 35 days. The stability of tramadol was 28 days. However, degradation of paracetamol was much faster given that concentration has fallen below 90% of the initial concentration after 7 days. CONCLUSION: Infusion of paracetamol, alizapride, ketorolac and tramadol remains stable for 7 days in glass bottles at 5°C ± 3 °C and could be prepared in advance with these storage conditions.

Le mot "hôpital vient du latin hospitare (recevoir des hôtes) et est régi par la règle bénédictine qui veut que tous les hôtes doivent être reçus comme le Christ.

La stabilité physico-chimique d'une préparation injectable (IV) est conditionnée par différents paramètres. Une collaboration entre pharmacie, laboratoire de chimie et statisticiens de l'unité de support scientifique s'est installée en 1996, afin de réaliser des études de stabilité chimique à long terme d'IV couramment utilisés et de pouvoir prendre en charge leur préparation en pharmacie.

Automated compounding systems appeared on the market during these last 15 years as an alternative for manual compounding of intravenous (IVD) drugs. A literature review was conducted on reconstitution of IVD. The following methods were identified: manual, semi- automatic and automatic. A classification was carried out in three categories: automatic syringes, peristaltic pumps, and compounding doses robots. The number of compounding robots is increasing. A table describes the different features of each device. The ampuls cannot be supported by these robots. Large doses vials improve the time of reconstitution compared to current dosage vials. Advantages of automated preparation are: higher consistency of process and products, higher accuracy of products, Integrated digitized processing, precise, complete documentation, reduced effort and wrist injuries, reduced personnel requirement, increased worker satisfaction. Disadvantages of automated preparation are: risk of failure/down time, dependency on power supply, software (updates), high investment costs/high maintenance costs, specialized personnel with additional training, decreased worker satisfaction (early adopter), complexity when products are switched or added, potential for new errors. This review allows the potential user to know the current availability on the market.

To the Editor, We investigate the physical stability of an infusion containing ropivacaine, clonidine and adrenaline tartrate, three pharmaceutical compounds usually used in operating room for loco-regional anaesthesia. The awareness of the stability of a ready-to-use mixture containing the three components could allow staff anaesthetists to inject patient only once. Moreover, the preparation in advance by a Centralised IntraVenous Admixtures Service (CIVAS) could be considered in terms of preparation quality and time management. [...]

In some situations, drug solutions in higher concentrations are used in intensive care units. The objective of this study was to evaluate the physicochemical stability of concentrated solutions of valproate sodium in polypropylene syringes during 30 days at 5°C ± 3°C. Five syringes of 40 mL containing 20 mg/mL of sodium valproate in 0.9% sodium chloride were prepared and stored at 5°C ± 3°C during 30 days. Immediately after preparation and periodically during the storage, valproate concentrations were measured by high-performance liquid chromatography. Spectrophotometric absorbance at different wavelengths, pH measurement, and microscopic observations were also performed. All solutions were physically stable during the study period storage at 5°C ± 3°C. No color change, turbidity, precipitation, or opacity at visual observation was noticed. No significant pH variations or optic densities were observed. No crystals were seen by microscopic analysis. Concentrations of valproate remained stable during the period of storage. Solutions of sodium valproate 20 mg/mL in syringes of 0.9% sodium chloride were physically and chemically stable for at least 30 days when stored in syringes at 5°C ± 3°C. These solutions may be prepared in advance by a centralized intravenous additive service.

Objectives The goal is to develop clinical pharmacy in the Belgian hospitals to improve drug efficacy and to reduce drug-related problems. Methods From 2007 to 2014, financial support was provided by the Belgian federal government for the development of clinical pharmacy in Belgian hospitals. This project was guided by a national Advisory Working Group. Each funded hospital was obliged to describe yearly its clinical pharmacy activities. Results In 2007, 20 pharmacists were funded in 28 pilot hospitals; this number was doubled in 2009 to 40 pharmacists over 54 institutions, representing more than half of all acute Belgian hospitals. Most projects (72%) considered patient-related activities, whereas some projects (28%) had a hospital-wide approach. The projects targeted patients at admission (30%), during hospital stay (52%) or at discharge (18%). During hospital stay, actions were mainly focused on geriatric patients (20%), surgical patients (15%), and oncology patients (9%). Experiences, methods, and tools were shared during meetings and workshops. Structure, process, and outcome indicators were reported and strengths, weaknesses, opportunities, and threats were described. The yearly reports revealed that the hospital board was engaged in the project in 87% of the cases, and developed a vision on clinical pharmacy in 75% of the hospitals. In 2014, the pilot phase was replaced by structural financing for clinical pharmacy in all acute Belgian hospitals. Conclusion The pilot projects in clinical pharmacy funded by the federal government provided a unique opportunity to launch clinical pharmacy activities on a broad scale in Belgium. The results of the pilot projects showed clear implementation through case reports, time registrations, and indicators. Tools for clinical pharmacy activities were developed to overcome identified barriers. The engagement of hospital boards and the results of clinical pharmacy activities persuaded the government to start structural financ

Intensive care units use drug solutions within higher concentrations to avoid fluid overload. The purpose of this study was to evaluate the physicochemical stability of concentrated solutions of noradrenaline bitartrate in polypropylene syringes during 30 days of storage at 5°C ± 3°C. Five 50-mL syringes containing 0.240 mg/mL of noradrenaline bitartrate in 0.9% sodium chloride were prepared and stored at 5°C ± 3°C during 30 days. Immediately after preparation and periodically during the storage, noradrenaline concentrations were measured by high-performance liquid chromatography. Spectrophotometric absorbance at different wavelengths, pH measurement, and microscopic observations were also performed. The results showed that all solutions were physicochemically stable during the entire storage period at 5°C ± 3°C, and no color change, turbidity, precipitation, opacity, significant pH variations, nor optic densities were observed. Microscopic analysis was used to determine if there was any formation of crystals. The concentration of noradrenaline was not found to decrease during the 30 days of storage. Solutions of noradrenaline bitartrate 0.240 mg/mL in syringes of 0.9% sodium chloride were physically and chemically stable for at least 30 days when stored in syringes at 5°C ± 3°C and may be prepared in advanced by a centralized intravenous additive service.

Background: Piperacillin-Tazobactam is frequently infused in hospitals. The use of a generic version was considered after the out of stock of the brand name Tazocin®. The stability of 4 g of Tazocin® in 120mL of dextrose 5% (D5)was demonstrated during 35 days at 5 °C ± 3 °C after freezing (−20 °C) and microwave thawing (FMT). The aim of the study was to investigate and compare the long-term stability of Tazocin® and a generic product in the same conditions. Methods: Five polyolefin bags of 4 g of Piperacillin/Tazobactam® Sandoz and 5 bags of 4 g of Tazocin® were prepared under aseptic conditions in 120mL of D5 and stored 3 months at 20 °C then thawed and stored 58 days at 5 ± 3 °C. Spectrophotometric absorbance at different wavelengths, pH measurement, visual and microscopic observations were also performed. The concentrations were measured by HPLC, at 211nm for tazobactam and 230nm for piperacilline. Results: No significant change in pH values or optic densities, no crystals were detected. The lower confidence limit at 95% of the concentration for the solutions remains superior to 90% of the initial concentration until 58 days of storage at 5 ± 3 °C.