Mettler Toledo has introduced a pharmacy-specific range of precision balances, including a professional line (PHS) and portable line (PHL), for tasks such as cream, ointment and medication dispensing.
Additionally, they provide the critical precision required when compounding top-grade active ingredients such as those used in eye drops.
Whether utilised for basic tasks or complicated weighing processes, PHS balances provide reliability in situations where scales are stationary.
Their compact design lends itself to space saving and portability.
Smart design inherent in the entire portfolio ensures reliability and enhances productivity.
Durable metal housing of the PHS balances protects weighing results from environmental impact.
Proven, fast-settling Monobloc technology guarantees long service life in variable conditions.
And fully automatic calibration technology (FACT) assures consistency via automatic internal sensor adjustment, which compensates for variables such as temperature that can skew results.
Plus, models that include a draft shield have a 'Quicklock' feature.
This lets users quickly dismantle and reassemble the shield to streamline cleaning, meaning balances are easier to maintain and cross-contamination risks are reduced.
Mettler Toledo has optimised the portfolio's usability by making every balance easy to clean and easy to program.
Smartkeys enhance ease-of-use by allowing one-touch access to often-used functions such as formulation, piece-counting and totalling.
Easy-read screens help further ensure accurate dispensing and improve medication safety.
Using PHS balances, pharmacists can perform weighing operations in a wide variety of languages including English, German, French, Italian, Dutch and Portuguese.
Results from weighing operations in both PHS and PHL pharmacy balances can be printed or transferred to PC without additional software.
Not only does this streamline pharmacy workflows - it virtually eliminates human transcription errors.
Built-in date-and-time stamp functions further decrease human error potential.
