Abstract: A liquid dispenser includes a liquid supply channel, a liquid dispensing channel including an outlet opening, a liquid return channel, and a liquid cooling channel positioned relative to the liquid dispensing channel. A liquid supply provides liquid under pressure from the liquid supply channel through the liquid dispensing channel to the liquid return channel. A diverter member is selectively actuatable using heat energy to divert a portion of the liquid toward outlet opening of the liquid dispensing channel, the diverter member including a first side that faces the liquid dispensing channel and a second side that faces the liquid cooling channel.

Abstract: A liquid dispenser includes a liquid supply channel, a liquid dispensing channel including an outlet opening including an end, and a liquid return channel. A liquid supply provides liquid under pressure from the liquid supply channel through the liquid dispensing channel to the liquid return channel. A diverter member is selectively actuatable to divert a portion of the liquid toward outlet opening of the liquid dispensing channel. A structure extends from the end of the outlet opening and is shaped to direct the portion of the liquid diverted from the liquid dispensing channel through a steep angle relative to the direction of travel of the liquid provided by the liquid supply channel.

Abstract: A liquid dispenser includes a liquid supply channel, a liquid supply adapted to feed a stream of liquid through the supply channel, a liquid return channel adapted to receive liquid from the supply channel, a liquid dispensing outlet opening, and a diverter member forming at least a portion of a wall of the liquid supply channel, said diverter member being selectively movable to form a convex surface along which liquid remains attached, thereby to divert droplets from the supply channel through the dispensing outlet opening. The motion of the diverter member is substantially orthogonal to the direction of liquid flow, so that energy associated with moving the diverter member imparts no energy to the diverted droplets. The energy associated with moving the diverter member is less than 100 nJ per pL droplet volume.

Abstract: A liquid dispenser includes a liquid supply channel, a liquid supply adapted to feed a stream of liquid through the supply channel, a liquid return channel adapted to receive liquid from the supply channel, a liquid dispensing outlet opening, and a diverter member selectively movable into the supply channel to divert droplets to the dispensing outlet opening. The liquid flows from the liquid supply channel to the liquid return channel by Coanda effect when not diverted. The motion of the diverter member is substantially orthogonal to and opposes the direction of liquid flow, so that energy associated with moving the diverter member imparts no energy to the diverted droplets. The energy associated with moving the diverter member is less than 100 nJ per pL droplet volume. In some embodiments, the energy associated with moving the diverter member is less than 10 nJ per pL droplet volume.

Abstract: The invention provides an ink jet printhead comprising a monolithic printhead with an integral gutter system wherein said gutter system is provided with an end wall adjacent to the ink stream and wherein the side of the wall adjacent the ink direction is generally parallel to the ink direction through said print head.

Abstract: A method for producing optically planar surfaces for micro-electromechanical system devices (MEMS), comprising the steps of: depositing a first layer over a substrate; forming a channel in the first layer wherein the channel has a depth defined by a thickness of the first layer and a width greater than 10 microns; depositing a second layer over the first layer wherein the second layer has a thickness greater than the depth of the channel and is composed of a different material than the first layer; removing the second layer from outside the channel leaving an overlap at the edge of the channel; and polishing the second layer that fills the channel to obtain an optically planar surface for the MEMS device.

Abstract: A method for producing co-planar surface areas is disclosed. At first a first layer with at least one recess is provided. Onto the first layer a second layer is deposited over the entire area of the first layer wherein the second layer has a thickness greater than the depth of the recess. The second layer is composed of material different to the material of the first layer. The next step removes the second layer completely beyond the area of at least one recess. The remaining portion of the second layer is removed until the second layer is coplanar with the first layer.

Abstract: In an image sensor using photodiodes, the structure is arranged so that a lens for each photodiode focuses light onto a first portion of the photodiode. Light from the scene directly illuminates a second portion of the photodiode.

Abstract: A method for producing high resolution patterned resist images having excellent etch resistance and superior thermal and dimensional stability comprises the steps of:(a) forming a planarizing layer resistant to silicon uptake on a substrate;(b) providing a positive-working photoresist composition containing --OH or --NH-- groups over the planarizing layer,(c) imagewise exposing the resist to activating radiation,(d) developing the exposed resist,(e) contacting the developed resist with a vapor comprising a silicon-containing compound to effect silylation thereof and thereby impart etch resistance, the silicon-containing compound having the structural formula: ##STR1## wherein: X.sup.1 and X.sup.2 are individually chloro or ##STR2## wherein R.sup.3 and R.sup.4 are individually H or alkyl; andR.sup.1 and R.sup.2 are individually H or alkyl; and(f) contacting the planarizing layer with an oxygen-containing plasma so as to preferentially remove portions thereof.