Abstract: Disclosed is a method of manufacturing a microstructure that requires a first material and a second material attached together and a laser system for producing a laser beam. The first material should exhibit an ablation threshold that does not exceed a predetermined ablation fluence of the laser beam and the second material should exhibit a second ablation threshold that exceeds the predetermined ablation fluence. The removal process comprises removing a portion of the first material to leave a remnant thereof at an interface of the two materials and then, ablating the remnant material using the laser beam at the predetermined ablation fluence to remove the remnant material. The process of selecting the first of the two materials is based on the predetermined ablation fluence of the laser beam; and the selection a laser system is based on the respective ablation thresholds of the first and second materials.

Abstract: The present invention provides a method of forming a feature in a printhead component. Femtosecond laser beam pulses are scanned over a target zone of a printhead substrate to remove a layer of the printhead substrate. The scanning is repeated until a depth of printhead substrate has been removed from the target zone which corresponds to a desired feature depth. The removed portion of the printhead substrate forms at least part of the feature in the printhead component.

Abstract: Fiber optic modules having a pull-actuator to unlatch and withdraw (i.e. unplug) it from a cage assembly or a module receptacle. The pull-actuator includes a pull-tab, an arm or push rod, and a catch to couple to a pivot-arm actuator. The pivot-arm actuator pivotally latches to the pull-actuator and to the cage assembly or module receptacle. The pull-actuator makes it easy to de-latch and unplug a fiber optic module. A nose grip is further provided to pull the fiber optic module away from the cage or module receptacle. A belly-to-belly mounting configuration is introduced for the pull-release fiber optic modules.

Abstract: In a method for treating waste products and recycling products of solid organic or inorganic materials or composite materials or mixtures thereof, a breaking-up or separation of the components by means of an impulse is effected in the composite material or the mixture by a device which suddenly interrupts the flow of said composite material or mixture. Process air is fed in a counter-rotating, rising flow path (34) into the spiral-like downward transport path (32) generated in a rotor (26) having a vertical axis (A), and a shockwave is claimed to be generated between the layers of the composite material against a deflector wall of the rotor (26). In addition, two radially spaced, coaxially arranged wall faces rotate relatively to one another about their axis and the composite materials or mixtures moved by centrifugal forces are moved and broken up between deflector faces projecting radially from the deflector walls.

Abstract: Rotate-and-pull mechanisms for fiber optic modules. The rotate-and-pull mechanisms have a lever-actuator to unlatch and withdraw a fiber optic module from a cage assembly or a module receptacle. The lever-actuator pivotally couples to the fiber optic module so that when lever-actuator is rotated about its pivot point, the lever-actuator causes the second actuator to release the fiber optic module from the cage assembly. The lever-actuator includes an actuating-tab to cause the second actuator to move when the lever-actuator is rotated. By pulling the lever-actuator away from the cage assembly, the fiber optic module is withdrawn from the cage assembly. A belly-to-belly mounting configuration is introduced for the rotate-and-pull release fiber optic modules.