Abstract: Disclosed is a method for attaching a pane element to a sash, including the steps of A) providing a pane element with a border element, thereby making a pane module, and B) bringing a contact surface of the border element into contact with a contact surface of the sash, and connecting the pane module to the sash. Further disclosed a pane module comprising a pane element and a border element, where the border element includes a contact surface adapted for being connected to a contact surface of the sash, wherein the contact surface of the border element is adapted for being connected to the contact surface of the sash by means of an adhesive or glue, where the border element includes one or more elongate support member(s), and where the border element comprises guiding elements projecting from the contact surface of the border element substantially perpendicularly to the pane plane, wherein the guiding elements are adapted for being inserted in openings in the contact surface of the sash.

Abstract: Disclosed is a method for attaching a pane element to a sash, including the steps of A) providing a pane element with a border element, thereby making a pane module, and B) bringing a contact surface of the border element into contact with a contact surface of the sash, and connecting the pane module to the sash. Further disclosed a pane module comprising a pane element and a border element, where the border element includes a contact surface adapted for being connected to a contact surface of the sash, wherein the contact surface of the border element is adapted for being connected to the contact surface of the sash by means of an adhesive or glue, where the border element includes one or more elongate support member(s), and where the border element comprises guiding elements projecting from the contact surface of the border element substantially perpendicularly to the pane plane, wherein the guiding elements are adapted for being inserted in openings in the contact surface of the sash.

Abstract: A roof window (1) comprising a frame (2) with a top member (5), a bottom member (6) and two side members (7, 8) defining a frame plane, and a sash (3) having a top member (9), a bottom member (10) and two side members (11, 12) defining a sash plane, the sash (3) carrying a pane (4), the window (1) further comprising in connection with said bottom sash member (10) a bottom sash covering (319), wherein the roof window (1) furthermore comprises an insulating element (303) and preferably also a bottom sash gasket 310 adapted for insulating of the transition between the bottom sash member (10) and the bottom sash covering (319).

Abstract: A roof window (1) comprising a frame (2) with a top member (5), a bottom member (6) and two side members (7, 8) defining a frame plane, and a sash (3) having a top member (9), a bottom member (10) and two side members (11, 12) defining a sash plane, the sash (3) carrying a pane (4), the window (1) further comprising in connection with said bottom sash member (10) a bottom sash covering (319), wherein the roof window (1) furthermore comprises an insulating element (303) and preferably also a bottom sash gasket 310 adapted for insulating of the transition between the bottom sash member (10) and the bottom sash covering (319).

Abstract: The present invention relates to a spray drying system provided with a gas filtering system, which system is intended for use in the pharmaceutical industry for aseptic production of sterile pharmaceutical products or in other industries e.g. production of food, where an intake of sterile air for the drying process is necessary. The spray drying system for providing a particulate material comprises a spray drying chamber (3), after treatment equipment (4, 5) placed downstream of the spray drying chamber and a process gas heater (2) placed upstream in relation to the spray drying chamber (3), wherein an inlet filter (1) capable of removing microorganisms at a temperature below 140° C., is placed upstream of the process gas heater (2) and that the process gas heater (2) is a non-flaking heater.

Abstract: The present invention relates to a spray drying system provided with a gas filtering system, which system is intended for use in the pharmaceutical industry for aseptic production of sterile pharmaceutical products or in other industries e.g. production of food, where an intake of sterile air for the drying process is necessary. The spray drying system for providing a particulate material comprises a spray drying chamber (3), after treatment equipment (4, 5) placed downstream of the spray drying chamber and a process gas heater (2) placed upstream in relation to the spray drying chamber (3), wherein an inlet filter (1) capable of removing microorganisms at a temperature below 140° C., is placed upstream of the process gas heater (2) and that the process gas heater (2) is a non-flaking heater.

Abstract: The present invention relates to a spray drying system provided with a neutralizing system, which system is intended for use in the pharmaceutical industry or in other industries, where the product is e.g. infectious, toxic or highly reactive and constitutes a risk for the surroundings and/or a health risk to people handling the product. The spray drying system comprises a spray drying chamber (1) comprising a drying chamber (1) provided with an atomizer device (17), followed by units (2, 3) for collecting of product powder and means (8) for cleaning the exhaust gas, wherein an atomization device (16) connected to a vessel (13) containing a neutralizer agent is placed upstream of the drying chamber (1).