Abstract: In an embodiment a method includes a) providing an aqueous solution of a carbon dioxide absorption agent, wherein the carbon dioxide absorption agent includes cations of the 1st main group of the periodic table, b) passing an air flow containing the carbon dioxide through the aqueous solution of a), wherein at least a part of the carbon dioxide of the air flow is bound to the carbon dioxide absorption agent and the air flow is depleted in the carbon dioxide, wherein, in b?), the carbon dioxide absorption agent with absorbed carbon dioxide is precipitated and separated from the aqueous solution of b), and c) introducing an aqueous solution of the precipitated carbon dioxide absorption agent with absorbed carbon dioxide into a middle chamber of an at least three-chamber electrolysis cell of an anode chamber, a cathode chamber, and at least one middle chamber arranged between the anode chamber and the cathode chamber, wherein the at least three-chamber electrolysis cell includes a membrane selective for monovale

Abstract: In an embodiment a method includes loading an absorbent with carbon dioxide in a first device, wherein a hydrogen carbonate-containing solution is formed, feeding the hydrogen carbonate-containing solution from the first device into an electrolysis unit, electrolyzing the hydrogen carbonate-containing solution in the electrolysis unit to release carbon dioxide, wherein a carbonate-rich solution is formed in the electrolysis unit, forming oxygen, hydrogen and carbon dioxide in the electrolysis unit and recycling the carbonate-rich solution from the electrolysis unit to the first device.

Abstract: In an embodiment a method includes loading an absorbent with a carbon dioxide in a first device, wherein a hydrogen carbonate-containing solution is formed, feeding the hydrogen carbonate-containing solution from the first device into an electrolysis unit, electrolyzing the hydrogen carbonate-containing solution in the electrolysis unit to release carbon dioxide, wherein a carbonate-rich solution is formed in the electrolysis unit, forming oxygen, hydrogen and carbon dioxide in the electrolysis unit, and recycling the carbonate-rich solution from the electrolysis unit to the first device.

Abstract: In an embodiment a method includes a) providing an aqueous solution of a carbon dioxide absorption agent, wherein the carbon dioxide absorption agent comprises cations of the 1st main group of the periodic table, b) passing an air flow containing carbon dioxide through the aqueous solution of method step a), wherein at least a part of the carbon dioxide from the air flow is bound to the carbon dioxide absorption agent and the air flow is depleted in carbon dioxide and c) introducing the aqueous solution of method step b) or an aqueous solution including the carbon dioxide bound to the carbon dioxide absorption agent into a middle chamber of an at least three-chamber electrolysis cell, wherein the three-chamber electrolysis cell includes a membrane selective for monovalent cations, and electrolyzing the aqueous solution of method step b) or the aqueous solution comprising the carbon dioxide bound to the carbon dioxide absorption agent under release of at least a part of the carbon dioxide.

Abstract: In an embodiment a method includes a) providing an aqueous solution of a carbon dioxide absorption agent, wherein the carbon dioxide absorption agent comprises cations of the 1st main group of the periodic table, b) passing an air flow containing carbon dioxide through the aqueous solution of method step a), wherein at least a part of the carbon dioxide from the air flow is bound to the carbon dioxide absorption agent and the air flow is depleted in carbon dioxide and c) introducing the aqueous solution of method step b) or an aqueous solution including the carbon dioxide bound to the carbon dioxide absorption agent into a middle chamber of an at least three-chamber electrolysis cell, wherein the three-chamber electrolysis cell includes a membrane selective for monovalent cations, and electrolyzing the aqueous solution of method step b) or the aqueous solution comprising the carbon dioxide bound to the carbon dioxide absorption agent under release of at least a part of the carbon dioxide.

Abstract: The invention relates to a lashing element (10) for vertically connecting a container (100) or a stack (110) of at least two containers (100) arranged one above the other to a stop (40) on a surface, in particular on board a ship, with at least one element (24) for producing a releasable movable connection to the stop (40), with at least one element (18) for producing a detachable connection with a corner fitting (120) of the container (100), with at least one element (12) for changing a length of the lashing element (10) for adapting the length of the lashing element (10) and for tensioning the lashing element between the container corner (120) and the stop (40). It is provided that there is a pressure-resistant and tension-resistant connection between the at least one element (24) for producing a releasable movable connection with the stop (40) and the at least one element (18) for producing a releasable connection with a corner fitting (120) of the container (100).

Abstract: In an embodiment a method includes loading an absorbent with a carbon dioxide in a first device, wherein a hydrogen carbonate-containing solution is formed, feeding the hydrogen carbonate-containing solution from the first device into an electrolysis unit, electrolyzing the hydrogen carbonate-containing solution in the electrolysis unit to release carbon dioxide, wherein a carbonate-rich solution is formed in the electrolysis unit, forming oxygen, hydrogen and carbon dioxide in the electrolysis unit, and recycling the carbonate-rich solution from the electrolysis unit to the first device.

Abstract: A cover for a merchandising display unit (1) disclosed. The cover of the rectangular top opening of the storage compartment includes displaceable lids (9) arranged in two rows along opposing longer sides (2,4) of the storage unit so that access is provided to the storage compartment from both sides of the storage unit. The cover has a stationary cover plate (6) along a mid section of the storage unit and a rail system (5) with a number of parallel transverse rails between the two longer sides, and the lids (9) mounted between separate tracks in adjacent rails and are displaceable in a direction perpendicular to the longer sides (2,4).

Abstract: A cover for a merchandising display unit (1) disclosed. The cover of the rectangular top opening of the storage compartment includes displaceable lids (9) arranged in two rows along opposing longer sides (2,4) of the storage unit so that access is provided to the storage compartment from both sides of the storage unit. The cover has a stationary cover plate (6) along a mid section of the storage unit and a rail system (5) with a number of parallel transverse rails between the two longer sides, and the lids (9) mounted between separate tracks in adjacent rails and are displaceable in a direction perpendicular to the longer sides (2,4).

Abstract: An apparatus for securing containers on transport vehicles, especially ships, which comprises a connecting device, a first end of which is connectable to the containers, and a clamping device, a first end of which is equipped with a longitudinally adjustable threaded spindle and connectable to the transport vehicle and a second end of the connecting device comprising a number of fastening stops with which a second end of the clamping device is connectable to said connecting device in suitably chosen increments. The clamping device comprises a sliding carriage which receives the fastening stops and which is essentially freely movable in the axial direction of the clamping device.

Abstract: A cover for a merchandising display unit (1) disclosed. The cover of the rectangular top opening of the storage compartment includes displaceable lids (9) arranged in two rows along opposing longer sides (2,4) of the storage unit so that access is provided to the storage compartment from both sides of the storage unit. The cover has a stationary cover plate (6) along a mid section of the storage unit and a rail system (5) with a number of parallel transverse rails between the two longer sides, and the lids (9) mounted between separate tracks in adjacent rails and are displaceable in a direction perpendicular to the longer sides (2,4).