Abstract: A nebulizer for a fluid, particularly for medical aerosol treatment is proposed. To allow easier operation and confer improved operational reliability a sealed container holding the fluid is already arranged in the nebulizer when it is supplied and the nebulizer is constructed so that the container is opened inside the nebulizer before or during the first use of the nebulizer. For this purpose, a transportation lock is provided for the sealed container which, in the delivery state, is in engagement with the sealed container in a manner preventing the sealed container from moving axially in the nebulizer.

Abstract: The present disclosure pertains to a transmitter for waking up electronic systems with a first signal generator which is designed to generate a carrier signal with a first frequency, a second signal generator which is designed to generate an informational signal with a second frequency, a single-sideband modulator which is designed to modulate the information signal by the carrier signal, and a transmission device which is designed to emit the generated carrier signal and the modulated information signal. The present disclosure also pertains to a receiver, an aircraft and spacecraft and a method.

Abstract: A nebulizer for a fluid, particularly for medical aerosol treatment is proposed. To allow easier operation and confer improved operational reliability a sealed container holding the fluid is already arranged in the nebulizer when it is supplied and the nebulizer is constructed so that the container is opened inside the nebulizer before or during the first use of the nebulizer. For this purpose, a transportation lock is provided for the sealed container which, in the delivery state, is in engagement with the sealed container in a manner preventing the sealed container from moving axially in the nebulizer.

Abstract: To permit use of a yielding surface covering (16) on an ink application cylinder (7, 12, 32) offset printing machine, without slippage or rubbing between the ink application cylinder and an adjacent plate cylinder (5, 31), a drive is arranged between the plate cylinder and the ink application cylinder which provides for corresponding linear circumferential speed by changing the profile of engaged drive gears (6, 13) driving the ink application cylinder and the plate cylinder; the drive gears have the same pitch circle diameter. The yielding surface (16) on the ink application cylinder has a thickness of between 2-3% of the diameter of the ink application cylinder (12) and a durometer value of between about 60-70 on the Shore A scale; the ink application cylinder (12) has a diameter of about 99% of the diameter of the plate cylinder and in operation is engaged against the plate cylinder over an engagement zone of about 7-9 mm in circumferential length (1).

Abstract: The chambered doctor blade unit has an anilox roller against which a doctor blade can be engaged. An ink trough, and an arrangement to transport ink from the ink trough to a chambered doctor blade unit or an ink application roller is provided, the chambered doctor blade unit or the ink application roller being, respectively, operatively coupled with the anilox roller. The ink supply trough, the ink application device, the doctor blade and the ink trough form a single structural unit which is located on a carrier structure on the printing machine, to be removable as a unit. A plurality of units are severably coupled to a common ink pump shaft on the printing machine.

Abstract: To permit use of a yielding surface covering (19, 48) on an ink application cylinder (7, 32) in an offset printing machine, without slippage or rubbing between the ink application cylinder and an adjacent plate cylinder (5, 31), a drive is arranged between the plate cylinder and the ink application cylinder which provides for corresponding linear circumferential speed by, either, placing an auxiliary idler gear train (17, 18) between the plate cylinder gear (15) and the drive gear (16) for the ink application cylinder, or independently driving the ink application cylinder (7) by an electric motor.

Abstract: The inker includes a chambered doctor blade unit (1) which defines an ink retention chamber. The ink retention chamber has an ink retaining ridge or strip (33) which extends from an upper surface towards the lower surface leaving a narrow ink passage gap (1') between the lower surface and the lower edge of the ridge or strip so that, upon selective connection of the unit (1) through a releasable coupling connection (5) of ink from a primary ink supply (3) or from a secondary ink supply (24, 40) of ink capacity substantially less than the ink capacity of the primary ink supply, ink within the ink retention chamber can be expelled under pressure being applied into said chamber, for example by compressed air, or sucked back into the cartridge. The cartridge permits application of a small quantity of ink, for example of different color than that of the primary ink supply, without disassembly of the entire inker.

Abstract: A chambered doctor blade unit (1) has at least one doctor blade (7, 8; 32) projecting from leading edges of a generally U-shaped or channel-shaped rail element, closed off at the lateral ends by side walls (4) to form the unit so that it can be inexpensively made by extrusion, rolling or other simple profiled rail forming machinery. A rear wall of the unit is formed with an elongated slit (12), preferably narrower in the middle. The unit (1) can be releasably coupled to a carrier (2) by interlocking rotatable pins (22) formed with projecting locking cams (23) with grooves or recesses (25) formed in bolts projecting from a rear surface (10) of the chambered doctor blade unit (1). The chambered doctor blade unit (1) thus can be readily removed by rotating the pins by handles (26), not requiring tools, and maximum ink distribution is ensured by the elongated slit which receives ink via a flattened funnel-shaped distribution duct (16) coupled to the holder unit (2).

Abstract: To permit easy removal and/or engagement and disengagement of a chambered doctor blade unit (1) from an anilox roller (2), the chambered doctor blade unit is attached to a holder (4) which has axially extending projecting pins or bolts (6, 7). The pins or bolts (6, 7) engage in hook-like extensions (12, 13) depending from a cross member (9) extending between the side walls (8) of the printing machine. An eccentric clamping cam disk (10) is rotatable about the cross member (9) and bears, in dependence on the rotary position thereof, against an upper surface of the holder for the chambered doctor blade unit (1) to thereby ensure interengagement of the projecting pins or bolts (6, 7) in the hook-like extensions (12, 13) and on support as well as locating surfaces (14, 16; 17, 18) thereof, while permitting quick release of this interengagement permitting movement and easy removal of the chambered doctor blade unit (1).

Abstract: To eliminate a separate cleaning roller to clean a forme cylinder and in application roller in a printing machine system, and utilize existing rollers of the damping system to apply cleaning fluid, a support lever (8, 26) axially journals and retains a damping liquid application roller (1) and a damping liquid transport roller (2); a pivot lever (11) is pivotably coupled to the supply lever (8, 26), and a guide arrangement is provided, for example formed by a link system (14, 15, 16) or a cam track and cam control element (27, 28) to control movement of the support lever under control of an operating element, such as a solenoid or a piston-cylinder arrangement (13).

Abstract: To easily control flexographic printing ink of different colors, and washing liquid, to a plurality of printing plates on a plurality of printing stations of a system, a valve housing (26) is formed with a plurality of connection ducts, each coupled to a respective ink and washing fluid supply line. A plurality of elongated plug valve elements (41) are located in bores of the housing, the valve elements having axial bores and axially and circumferentially offset radial bores, leaving a portion of the plug elements solid to form an OFF position. The radial bores can be aligned, upon rotation of the valve elements, with coupling ducts which, in turn, connect with second fluid connection ducts (27-30, 31).

Abstract: An arrangement for transporting a sheet-like data carrier with reversing its direction of movement and at the same time maintaining its original orientation has first and second transporting paths and a reversing path, a turnable lever located between the first and second transporting paths and having a length and a mounting point selected so that one of the supporting rollers arranged on the lever can be brought to abutment against one transporting roller of the second transporting path and simultaneously the other supporting roller of the lever comes to a position below the first transporting path, a sensing element arranged at the reversing path and operative for sensing a front edge of the data carrier, and a controlling element operative to control the movement of transporting rollers of the reversing path and the turnable lever in response to the sensing by the sensing means, so that reversing of transporting direction of the transporting rollers of the reversing path and turning of the turnable lever t

Abstract: A pair of infeed rollers located upstream of an exposure window and a pair of outfeed rollers downstream thereof transport an original across the exposure window so that successive portions of the transported original be imaged onto successive portions of copying medium whose transport speed corresponds to that of the original. The lower infeed and outfeed rollers are stationary, but the upper ones are located at the coupling links of a four-or five-link transmission mechanism comprised of cranks and rockers. A tension spring tightened by an electromagnet causes the upper infeed roller to move down and press against the lower infeed roller.