Abstract: A flow-sensing arrangement within a spirometer. The arrangement includes a tubular-member for allowing an air-passage along a longitudinal-axis thereof. At-least two disc-shaped air-resistive elements are removably-arranged within the tubular member to resist the air-flow. Each of the resistive-elements include perforations for allowing the air-passage through the resistive-element. At-least two ports extend radially outward through a wall of the tubular member, such that each of the two ports are located within the tubular-member near the resistive-elements to cause determination of at least a pressure-difference there-between.

Abstract: An apparatus (100), a system (200), and a method (500) for simulating deposition of an inhaled drug on lungs of an individual are disclosed. The apparatus (100) includes a mouth-throat model (102), an inhalation device (104), and a breath simulator (106) connected to the mouth-throat model (102) for dispersing drug and respiration flow respectively in the mouth-throat model (102). The apparatus (100) also includes a controlling unit (108) in communication with the breath simulator (106) and the inhalation device (104) to detect the dispersion of the respiration flow and actuate the inhalation device (104) to disperse the drug. The respiration flow and the drug are uniformly mixed while passing through a mixing unit (110) formed downstream to the mouth-throat model (102) and the breath simulator (106). The mixture is then received by a lung cast model (112) formed downstream to the mixing unit (110) to accommodate deposition of the drug.

Abstract: The present subject matter refers a blister-strip based dispenser (100) comprising a lever arm rotatable on receiving a user-actuation. A chassis (106, 108) is provided for supporting placement of at least one blister-strip (104) in the form of the coil. The blister-strip (104) comprises medicament-pockets at at-least one side of the blister-strip (104). A plurality of interconnected-rollers (110, 114, 116) comprises at-least one roller linked to the lever-arm and rotatable by the lever arm. The plurality of interconnected rollers (110, 114, 116) are configured for anchoring the blister-strip (104) from one end for enabling the placement in a coil-form and unwinding of the blister strip (104) from the coil-form, guiding at least two split-portions of the blister-strip (104), anchoring an end of each of said at-least two portions of the blister-strip (104) for winding the at-least two portions separately, and anchoring an end of a lid-foil peeled off the at least two portions for winding the lid-foil.

Abstract: An adherence-monitoring and tracking device captures usage of a metered dose inhaler (MDI). The device includes an enclosure for enclosing a metered dose inhaler (MDI), and an electro-mechanical system forming a part of enclosure to sense and log the operation of the MDI. The electro-mechanical system includes at-least one transducer to capture one or more parameters pertaining to an operation of the MDI by the user. A microcontroller processes the captured parameters, and an output-unit renders data pertaining to operation of the MDI.

Abstract: A flow-sensing arrangement within a spirometer. The arrangement includes a tubular-member for allowing an air-passage along a longitudinal-axis thereof. At-least two disc-shaped air-resistive elements are removably-arranged within the tubular member to resist the air-flow. Each of the resistive-elements include perforations for allowing the air-passage through the resistive-element. At-least two ports extend radially outward through a wall of the tubular member, such that each of the two ports are located within the tubular-member near the resistive-elements to cause determination of at least a pressure-difference there-between.

Abstract: A breath-actuated inhaler includes a motion-generator configured to render motion upon actuation by a user. An arrangement transforms the generated motion to enable a canister at undergoing translation-motion. A metering-valve is operably connected to the canister to cause a metered-release of the canister's contents as a spray, based upon the translation-motion.

Abstract: A persistent cacheable high volume manufacturing (HVM) initialization code is generally presented. In this regard, an apparatus is introduced comprising a processing unit, a unified cache, a unified cache controller, and a control register to selectively mask off access by the unified cache controller to portions of the unified cache. Other embodiments are also described and claimed.

Abstract: A persistent cacheable high volume manufacturing (HVM) initialization code is generally presented. In this regard, an apparatus is introduced comprising a processing unit, a unified cache, a unified cache controller, and a control register to selectively mask off access by the unified cache controller to portions of the unified cache. Other embodiments are also described and claimed.

Abstract: A persistent cacheable high volume manufacturing (HVM) initialization code is generally presented. In this regard, an apparatus is introduced comprising a processing unit, a unified cache, a unified cache controller, and a control register to selectively mask off access by the unified cache controller to portions of the unified cache. Other embodiments are also described and claimed.

Abstract: A persistent cacheable high volume manufacturing (HVM) initialization code is generally presented. In this regard, an apparatus is introduced comprising a processing unit, a unified cache, a unified cache controller, and a control register to selectively mask off access by the unified cache controller to portions of the unified cache. Other embodiments are also described and claimed.