A filter for industrial coating filtration systems that has a housing made up of a peripheral wall extending around a preferably rigid and pleated support backing with filtration media, which peripheral wall may be tapered. The housing is preferably made of a suitably rigid material. The support backing has openings so that gas can flow through without substantial resistance. Filtration media is mounted to or adjacent the support backing, end caps are attached to the ends of the support backing to maintain the pleated configuration, and the assembly is inserted into the housing. Tabs may extend from the support backing into slots in the end caps, and filtration material may be attached to the end caps to reduce or avoid unfiltered air passing through. Additional filtration material may be mounted to the opposite end cap sides to filter air passing between the end caps and the housing.

A filter for industrial coating filtration systems that has a housing made up of a peripheral wall extending around a preferably rigid and pleated support backing with filtration media, which peripheral wall may be tapered. The housing is preferably made of a suitably rigid material. The support backing has openings so that gas can flow through without substantial resistance. Filtration media is mounted to or adjacent the support backing, end caps are attached to the ends of the support backing to maintain the pleated configuration, and the assembly is inserted into the housing. Tabs may extend from the support backing into slots in the end caps, and filtration material may be attached to the end caps to reduce or avoid unfiltered air passing through. Additional filtration material may be mounted to the opposite end cap sides to filter air passing between the end caps and the housing.

A device for the application of a liquid fluid to a peripheral area of a lid using pistols for injecting said liquid fluid. The device includes an articulated mechanical device combined with at least two coaxial tubular shafts: a main supply shaft and a lower shaft, where a lower end of the main supply shaft connects to a first part of the articulated mechanical device, while a second part of the articulated mechanical device connects to a lower end of the lower shaft. The two coaxial tubular shafts rotate independently by means of transmission devices. The main supply shaft is arranged in glean inner hole of the lower shaft, which is arranged coaxially around at least one section of the main supply shaft.

An apparatus for processing a substrate includes a first processing unit configured to have a first processing container having a first inner space and a first support unit supporting and rotating the substrate in the first inner space; a second processing unit configured to have a second processing container having a second inner space and a second support unit supporting and rotating the substrate in the second inner space; an exhaust unit configured to exhaust the first and the second inner space; a first exhaust pipe configured to have a first exhaust port for introducing atmosphere of the first inner space and exhaust the atmosphere introduced through the first exhaust port to the integrated duct; and a second exhaust pipe configured to have a second exhaust port for introducing atmosphere of the second inner space and exhaust the atmosphere introduced through the second exhaust port to the integrated duct.

An apparatus for processing a substrate includes a first processing unit configured to have a first processing container having a first inner space and a first support unit supporting and rotating the substrate in the first inner space; a second processing unit configured to have a second processing container having a second inner space and a second support unit supporting and rotating the substrate in the second inner space; an exhaust unit configured to exhaust the first and the second inner space; a first exhaust pipe configured to have a first exhaust port for introducing atmosphere of the first inner space and exhaust the atmosphere introduced through the first exhaust port to the integrated duct; and a second exhaust pipe configured to have a second exhaust port for introducing atmosphere of the second inner space and exhaust the atmosphere introduced through the second exhaust port to the integrated duct.

A robotic system is provided for repeatedly and reproducibly applying a sealant to a seam in an assembled HVAC (Heating, Ventilation, and Air Conditioning) duct component. The applied sealant has a predetermined location on the assembled HVAC duct component to seal the seam. An assembled HVAC duct component is thus provided having a robot applied sealant on at least one seam in the assembled HVAC duct component, wherein the applied sealant has at least one of a predetermined location, thickness or coverage. The robotically applied sealant can be applied to a blank for forming the assembled HVAC duct component, wherein the sealant is located at locations forming a seam in the assembled HVAC duct component.

The invention relates to an air flow separation element, referred to in short as separation element (10), which is provided in a separation apparatus (60) or for use together with a separation apparatus for separating particles carried along in a raw gas flow.

The invention relates to an air flow separation element, referred to in short as separation element (10), which is provided in a separation apparatus (60) or for use together with a separation apparatus for separating particles carried along in a raw gas flow.