Abstract: An absorption arrangement (100) includes a CO2 absorber (4) and a water trap (2). Such an absorption arrangement (100) is used with a process for filtering carbon dioxide from a gas mixture by absorption. The gas mixture flows from a source through the absorption arrangement (100) to a sink in the following way: through a supply fluid guide unit (3), through a lower deflecting fluid guide unit (9), through the CO2 absorber (4), through an upper deflecting fluid guide unit (6), through a connecting fluid guide unit (33), through the water trap (2) and through a discharge fluid guide unit (34). The gas mixture flows vertically or obliquely upward through the CO2 absorber (4) and vertically or obliquely downward through the connecting fluid guide unit (33) to the water trap (2).

Abstract: A connecting unit for fixing components in a breathing system includes a plug adapter (2) having a sealing element (1). The sealing element (1) has a first peripheral fastening thickening (4), a second fastening thickening (5) arranged at a distance to the first fastening thickening (4), as well as an undercut (7) between the fastening thickenings (4, 5). The second fastening thickening (5) has an outer lead-in chamfer (6) for a receiving bore into which the plug adapter (2) along with the sealing ring (1) are inserted.

Abstract: A filling device for an anesthetic dispenser has a closing element (3) that can be inserted into the filler neck (2) and can again be removed from same in a simple manner. A bayonet catch is provided between the closing element (3) and the filler neck (2) combined with a ring seal (18). The a ring seal (18) can be pressed in an axial direction by axial rotation and has an elastically deformable spring element.

Abstract: A respiration system feeds an anesthetic gas having, a density ?gas, with a Y-piece for connection to a patient, with a respiration circuit having an inspiration branch and an expiration branch, which extend away from the Y-piece. A first supply line from a branch in the expiration branch leads to an anesthetic gas discharge valve and a second supply line from the branch leads to a reservoir. A too high pressure, opposing expiration, cannot build up in the expiration branch and losses of anesthetic gas are kept to a minimum. A prestressing device exerts a prestressing force onto the valve body of the anesthetic gas discharge valve against the effect of gravity. The mass mvalve and the prestressing force determine a threshold pressure in the anesthetic gas discharge line that results in an opening of the anesthetic gas discharge valve.

Abstract: An incubator (12) includes an incubator hood (11) with two side walls (2, 3), a front wall (4), a rear wall (5) and preferably an upper wall (6), which have each inner and outer surfaces. One or more of the inner and/or outer surfaces of one or more of the walls (2, 3, 4, 5, 6) of the incubator hood are provided with a coating. The coating is electrically conductive and essentially optically transparent. The electrical conductivity of the coating is designed to heat the coated walls, similarly to a resistance heater, to a desired temperature by applying an electric voltage in order to prevent thereby water of condensation from forming. The coating is essentially scratch resistant.

Abstract: A respirator with a breathing gas block (2) and with breathing gas ducts (13, 15, 17) and with a heater has the electric components located outside of the breathing gas-carrying areas. A heated distributor plate is flatly in contact on the underside of the breathing gas block (2) and has heating ribs (21, 22) that are in contact with breathing gas ducts (13, 15) at least in some areas.

Abstract: A device (10) for the mechanical respiration of a patient (12) has a gas delivery device (14), which includes a flow module (16) for generating a gas stream (A), a gas outlet (24) and a gas inlet (34). The device (10) includes a gas-carrying short-circuiting unit (56), by which the gas outlet (24) and the gas inlet (34) can be coupled with one another to short-circuit the gas delivery device (14), and a plasma generator (62) coupled into the short-circuited gas delivery device (14) for enriching the gas stream (A) generated in the short-circuited gas delivery device (14) with a disinfecting plasma.

Abstract: A respiration system feeds an anesthetic gas having, a density ?gas, with a Y-piece for connection to a patient, with a respiration circuit having an inspiration branch and an expiration branch, which extend away from the Y-piece. A first supply line from a branch in the expiration branch leads to an anesthetic gas discharge valve and a second supply line from the branch leads to a reservoir. A too high pressure, opposing expiration, cannot build up in the expiration branch and losses of anesthetic gas are kept to a minimum. A prestressing device exerts a prestressing force onto the valve body of the anesthetic gas discharge valve against the effect of gravity. The mass mvalve and the prestressing force determine a threshold pressure in the anesthetic gas discharge line that results in an opening of the anesthetic gas discharge valve.

Abstract: A breathing gas supply device is provided which can be taken apart for cleaning purposes. The breathing gas supply device has a modular design in the form of a breathing gas module (2) and a blower module (3), which are inserted together into a housing module (4).

Abstract: A filling device for an anesthetic dispenser has a closing element (3) that can be inserted into the filler neck (2) and can again be removed from same in a simple manner. A bayonet catch is provided between the closing element (3) and the filler neck (2) combined with a ring seal (18). The a ring seal (18) can be pressed in an axial direction by axial rotation and has an elastically deformable spring element.

Abstract: A device for supplying a patient with breathing gas, which has a housing provided with gas ducts and a corresponding cover (5), shall be improved such that the cover (5) can be manufactured in a simple manner and possesses good sealing properties. To accomplish the object, provisions are made for the cover (5) to consist of a one-piece, plate-like elastomer material and for groove-like depressions (10) extending in the direction of partitions (6) to be present as a seal for the gas ducts (8).

Abstract: A connecting unit for fixing components in a breathing system permits simple manufacture and provides good performance characteristics. The connecting unit includes a plug adapter (2) having a sealing element (1). The sealing element (1) has a first peripheral fastening thickening (4), a second fastening thickening (5) arranged at a distance to the first fastening thickening (4), as well as an undercut (7) between the fastening thickenings (4, 5). The second fastening thickening (5) has an outer lead-in chamfer (6) for a receiving bore into which the plug adapter (2) along with, the sealing ring (1) are inserted.

Abstract: A respirator with a breathing gas block (2) and with breathing gas ducts (13, 15, 17) and with a heater has the electric components located outside of the breathing gas-carrying areas. A heated distributor plate is flatly in contact on the underside of the breathing gas block (2) and has heating ribs (21, 22) that are in contact with breathing gas ducts (13, 15) at least in some areas.

Abstract: A pressure-resistant tank for liquids includes a plurality of differently shaped diecast parts (1, 2) made of a first aluminum alloy (cast alloy). The diecast parts (1, 2) are connected by means of a closed weld seam welded with an electron beam with the use of a second aluminum alloy (wrought alloy). The second aluminum alloy has especially a hydrogen content of less than 0.2 mL per 100 g of wrought alloy. The tank for liquids is especially an anesthetic tank and the anesthetic is desflurane.

Abstract: A breathing gas supply device is provided which can be taken apart for cleaning purposes. The breathing gas supply device has a modular design in the form of a breathing gas module (2) and a blower module (3), which are inserted together into a housing module (4).

Abstract: A device for supplying a patient with breathing gas, which has a housing provided with gas ducts and a corresponding cover (5), shall be improved such that the cover (5) can be manufactured in a simple manner and possesses good sealing properties. To accomplish the object, provisions are made for the cover (5) to consist of a one-piece, plate-like elastomer material and for groove-like depressions (10) extending in the direction of partitions (6) to be present as a seal for the gas ducts (8).

Abstract: An anesthetic tank (1) of an anesthetic dispensing unit is used especially for desflurane and has improved reliability of operation by mutually complementing level monitoring devices. The anesthetic tank (1) is equipped with a level tube (3) arranged in or on the outer wall with a connection line (6) into the interior space as well as with an optical level sensor (4). The optical axis (5) of the level sensor (4) is located at the same level as a mark (33) on the level tube (3).

Abstract: Silver particles with a size of 1 nm to 500 nm is provided in a matrix material that is used as a surface coating on medical devices or breathing masks for reducing the germ count on same.

Abstract: A pressure-resistant tank for liquids includes a plurality of differently shaped diecast parts (1, 2) made of a first aluminum alloy (cast alloy). The diecast parts (1, 2) are connected by means of a closed weld seam welded with an electron beam with the use of a second aluminum alloy (wrought alloy). The second aluminum alloy has especially a hydrogen content of less than 0.2 mL per 100 g of wrought alloy. The tank for liquids is especially an anesthetic tank and the anesthetic is desflurane.

Abstract: An anesthetic tank (1) of an anesthetic dispensing unit is used especially for desflurane and has improved reliability of operation by mutually complementing level monitoring devices. The anesthetic tank (1) is equipped with a level tube (3) arranged in or on the outer wall with a connection line (6) into the interior space as well as with an optical level sensor (4). The optical axis (5) of the level sensor (4) is located at the same level as a mark (33) on the level tube (3).