Abstract: The present disclosure generally relates to oral care systems and devices. An oral care system includes a container defining an interior portion and a moveable funnel configured to slide in the interior portion of the container. The moveable funnel includes a funnel portion having a base connected to a tube, where a distal end of the tube includes a cutting edge angled relative to a central axis of the tube. The system further includes a toothbrush supported by the tube, the toothbrush having a handle extending out from the container.

Abstract: The present invention relates to a method for monitoring operational status in a column capture chromatography system configured for cyclical repetitive purification performed on a volume of sample feed comprising at least one product configured to be captured in the column during loading. The method comprises: performing (51) a purification cycle; measuring (52) at least one parameter during the purification cycle indicative of breakthrough of the at least one captured product after the column during loading of sample feed; when breakthrough is detected, reducing (56a) the amount of sample feed loaded during loading in the next purification cycle; and repeating the steps to perform another purification cycle. Each purification cycle comprising: loading an amount of sample feed onto the column, washing the column and eluting the at least one product.

Abstract: The present invention relates generally to a method of therapeutically or prophylactically treating ischaemia-induced myocardial tissue damage, in particular ischaemia-reperfusion-induced myocardial tissue damage. More particularly, the present invention relates to a method of reducing the extent of ischaemia-induced myocardial tissue damage in a mammal by selectively upregulating FPR1-mediated ERK signalling. The method of the present invention is useful, inter alia, in reducing the extent and/or severity of myocardial tissue damage associated with conditions characterized by myocardial ischaemia or myocardial ischaemia and reperfusion, such as acute myocardial infarction caused by atherosclerotic artery occlusion or blood clot-induced artery occlusion.

Abstract: A storage container for food and other items and a method of venting a storage container. The storage container may include a container body and a removable lid. The removable lid may include a flexible sealing lip that traverses the perimeter of a rigid central cover portion. At least one venting aperture may extend through the rigid central cover portion. Additionally, the storage container may include a latch moveable between a latched position and an unlatched position. The latch may include a gripping portion configured to grip a peripheral rim of the container body and a sealing portion configured to cover the venting aperture when the latch occupies the latched position. When the latch occupies the unlatched position, the sealing portion may uncover the venting aperture to permit venting of steam and other gases from within the storage container.

Abstract: The present invention relates generally to a method of therapeutically or prophylactically treating ischaemia-induced myocardial tissue damage, in particular ischaemia-reperfusion-induced myocardial tissue damage. More particularly, the present invention relates to a method of reducing the extent of ischaemia-induced myocardial tissue damage in a mammal by selectively upregulating FPR1-mediated ERK signalling. The method of the present invention is useful, inter alia, in reducing the extent and/or severity of myocardial tissue damage associated with conditions characterised by myocardial ischaemia or myocardial ischaemia and reperfusion, such as acute myocardial infarction caused by atherosclerotic artery occlusion or blood clot-induced artery occlusion.

Abstract: Disclosed herein are a storage container for food and other items and a method of venting a storage container. The storage container may include a container body and a removable lid. The removable lid may include a flexible sealing lip that traverses the perimeter of a rigid central cover portion. At least one venting aperture may extend through the rigid central cover portion. Additionally, the storage container may include a latch moveable between a latched position and an unlatched position. The latch may include a gripping portion configured to grip a peripheral rim of the container body and a sealing portion configured to cover the venting aperture when the latch occupies the latched position. When the latch occupies the unlatched position, the sealing portion may uncover the venting aperture to permit venting of steam and other gases from within the storage container.

Abstract: The invention embeds an emulation module in removable media, for use in replicating an operating environment on a laptop or other remote machines. The emulation module prompts the user to capture environmental settings on an originating machine, such as display settings, network settings, input/output, applications, working data files and other parameters on a removable media. The user may then insert the removable media in a compatible reader attached to the laptop or other secondary or host machine, and upon activation of the emulation module reproduce the screen display, applications, data files and other resources on the host machine. When the user is finished working on the host machine, the emulation module may restore the settings of the operating environment on that machine to their preexisting state. Working data may be synchronized between the originating and host machines.

Abstract: The invention embeds an emulation module in removable media, for use in replicating an operating environment on a laptop or other remote machines. The emulation module prompts the user to capture environmental settings on an originating machine, such as display settings, network settings, input/output, applications, working data files and other parameters on a removable media. The user may then insert the removable media in a compatible reader attached to the laptop or other secondary or host machine, and upon activation of the emulation module reproduce the screen display, applications, data files and other resources on the host machine. When the user is finished working on the host machine, the emulation module may restore the settings of the operating environment on that machine to their preexisting state. Working data may be synchronized between the originating and host machines.

Abstract: An absorbent article includes an absorbent pad and an outer cover. An extensible layer replaces at least one of the tissue layers of the absorbent pad. The extensible layer can be secured to an extensible bodyside liner or an extensible outer cover. The extensible layer is adhesively secured to the inner surface of the outer cover or the bodyside liner. In embodiments where the outer cover is extensible in a cross-direction and/or a longitudinal direction, the extensible layer is extensible in the same directions and moves with the outer cover. Absorbent core is not physically secured to the extensible layer. Thus the extensible layer has free mobility with respect to the absorbent core when the outer cover is extended, without deleterious effect on the absorbent core, or the absorbent pad as a whole. Therefore, tearing of the absorbent pad and damage to, or release, of superabsorbent material from the absorbent pad is prevented.

Abstract: A bundle of fiber-optic sensors that resist breakage, for use in measuring pH, CO.sub.2, and O.sub.2 concentration, and a method of making the same. Three otpical fibers are enclosed in a common polyimide sheath and extend parallel to one another toward a distal end of the sensor, where they are bonded together in a mutually supportive array. At the distal end of one of these optical fibers is disposed a pellet comprising a CO.sub.2 analyte indicator molecule codissolved within a polymer matrix. A thin reflective surface of gold foil is provided on the pellet such that incident light transmitted through the optical fiber and polymer matrix is reflected back into the optical fiber. The CO.sub.2 polymer matrix absorbs light of a given wavelength to an extent dependent upon the level of CO.sub.2 present.