Abstract: The disclosure relates to a coating composition comprising a resin system comprising an organic film-forming resin and optionally a curing agent reactive with the organic film-forming resin, a lithium salt with a solubility in water in the range from 0.01 to 120 g/L at 20° C., selected from the group consisting of lithium carbonate, lithium phosphate, lithium bicarbonate, lithium tetraborate, and lithium oxalate, and a zinc salt of 2,5-dimercapto-1,3,4-thiadiazole (DMTD), wherein the zinc salt of DMTD is present as solid particles, the surface of which is at least partially covered by a layer of a film-formed polymer. The zinc salt of DMTD was shown to have a synergistic effect on reinforcement of barrier properties of a protective layer that is formed in a coating defect due to the presence of the lithium salt. In addition, the coating composition has an improved pot life.

Abstract: The disclosure relates to a coating composition comprising: a) a resin system comprising an organic film-forming resin and optionally a curing agent reactive with the organic film-forming resin, b) a lithium salt with a solubility in water in the range from 0.01 to 120 g/L at 20° C., selected from the group consisting of lithium carbonate, lithium phosphate, lithium bicarbonate, lithium tetraborate, and lithium oxalate, in an amount of at least 1.3 wt. % of lithium based on solid weight of the resin system, and c) a zinc salt of 2,5-dimercapto-1,3,4-thiadiazole (DMTD). The zinc salt of DMTD was shown to have a synergistic effect on the reinforcement of barrier properties of a protective layer that is formed in a coating defect due to the presence of the lithium salt in the coating composition.

Abstract: The disclosure relates to a coating composition comprising a resin system comprising an organic film-forming resin and optionally a curing agent reactive with the organic film-forming resin, a lithium salt with a solubility in water in the range from 0.01 to 120 g/L at 20° C., selected from the group consisting of lithium carbonate, lithium phosphate, lithium bicarbonate, lithium tetraborate, and lithium oxalate, and a zinc salt of 2,5-dimercapto-1,3,4-thiadiazole (DMTD), wherein the zinc salt of DMTD is present as solid particles, the surface of which is at least partially covered by a layer of a film-formed polymer. The zinc salt of DMTD was shown to have a synergistic effect on reinforcement of barrier properties of a protective layer that is formed in a coating defect due to the presence of the lithium salt. In addition, the coating composition has an improved pot life.

Abstract: Methods and systems for cleaning inner surfaces of tubes in a heat exchanger. Some systems include a cleaning device having a nozzle configured to inject cleaning fluid into first and second tubes to perform different first and second cleaning cycles on the tubes, respectively, a controller configured to determine delivery parameters for the cleaning cycles based on a characteristic of each tube, and to control the cleaning device to perform the cleaning cycles based on the delivery parameters. Some methods include determining, with a controller, a tube in the heat exchanger engaged with a nozzle of a cleaning device for injecting a cleaning fluid into the tube during a cleaning cycle, a characteristic of the tube, and a delivery parameter of the cleaning cycle for the tube based on the characteristic of the tube; and performing the cleaning cycle for the tube based on the delivery parameter.

Abstract: This invention provides a system for separating a field of view (FOV) of a scene imaged by a vision system camera assembly, in which a separating mirror assembly redirects a first optical path of at least a first optics with respect to at least a first image sensor in the camera assembly. A first reflecting assembly redirects the first optical path from the separating mirror toward a first FOV. The first optical path is extended free of splitting the image. The separating mirror assembly redirects a second optical path of a second optics with respect to a second image sensor in the camera assembly. A second reflecting assembly redirects the second optical path from the separating mirror toward a second FOV. The second optical path is extended free of splitting the image projected from the scene on the second image sensor.

Abstract: A vent assembly is configured to be mounted proximate to an air-flow portal defined by a surface of a wall of a building; this is done in such a way that the vent assembly presents outer surfaces that are exposable to exterior weather elements after the vent assembly is mounted proximate to the air-flow portal. An envelope assembly is configured to surround the outer surfaces of the vent assembly after the vent assembly is mounted proximate to the air-flow portal. The envelope assembly is positioned proximate to the vent assembly. The envelope assembly is configured to protect, at least in part, the outer surfaces of the vent assembly from undesirable exposure to the exterior weather elements.

Abstract: A broadcast camera is provided that includes a camera housing having connectable camera housing portions to define a front, middle and rear sections of a camera body. An electronic component is provided in the front section of the camera housing and a power transformer is mounted in the rear section of the camera housing. A duct housing is mounted within the camera housing to form a cooling duct that extends through the camera housing, with a front duct housing that is positioned adjacent to the electronic component and that separates the electronic component from the cooling duct. Moreover, heat sinks extend within the cooling duct in one of the upper, middle and lower front duct sections and are mounted to be in thermal communication with the at least one electronic component. A fan is mounted within the cooling duct to draw air into the cooling duct.

Abstract: A broadcast camera is provided that includes a camera housing having connectable camera housing portions to define a front, middle and rear sections of a camera body. An electronic component is provided in the front section of the camera housing and a power transformer is mounted in the rear section of the camera housing. A duct housing is mounted within the camera housing to form a cooling duct that extends through the camera housing, with a front duct housing that is positioned adjacent to the electronic component and that separates the electronic component from the cooling duct. Moreover, heat sinks extend within the cooling duct in one of the upper, middle and lower front duct sections and are mounted to be in thermal communication with the at least one electronic component. A fan is mounted within the cooling duct to draw air into the cooling duct.

Abstract: Methods and systems for cleaning inner surfaces of tubes in a heat exchanger. Some systems include a cleaning device having a nozzle configured to inject cleaning fluid into first and second tubes to perform different first and second cleaning cycles on the tubes, respectively, a controller configured to determine delivery parameters for the cleaning cycles based on a characteristic of each tube, and to control the cleaning device to perform the cleaning cycles based on the delivery parameters. Some methods include determining, with a controller, a tube in the heat exchanger engaged with a nozzle of a cleaning device for injecting a cleaning fluid into the tube during a cleaning cycle, a characteristic of the tube, and a delivery parameter of the cleaning cycle for the tube based on the characteristic of the tube; and performing the cleaning cycle for the tube based on the delivery parameter.

Abstract: This invention provides a system for separating a field of view (FOV) of a scene imaged by a vision system camera assembly, in which a separating mirror assembly redirects a first optical path of at least a first optics with respect to at least a first image sensor in the camera assembly. A first reflecting assembly redirects the first optical path from the separating mirror toward a first FOV. The first optical path is extended free of splitting the image. The separating mirror assembly redirects a second optical path of a second optics with respect to a second image sensor in the camera assembly. A second reflecting assembly redirects the second optical path from the separating mirror toward a second FOV. The second optical path is extended free of splitting the image projected from the scene on the second image sensor.

Abstract: The present invention relates to the field of melon plants having whitefly resistance, in particular to cultivated melon plants comprising an introgression of a whitefly resistance QTL.

Abstract: The present invention relates to the field of melon plants having a dominant Melon Yellowing associated Virus (MYaV) resistance gene in their genome, introgressed from wild melon accessions.

Abstract: An apparatus has a first component with a first surface and a second component with a second surface, wherein the first and second components can undergo relative movement. The first surface and the second surface face each other. The first surface accommodates a barrier system to provide a barrier to reduce or prevent an inflow of ambient gas into a protected volume of gas between the first and second surfaces. The barrier system includes a curtain opening adapted for a flow of curtain gas therefrom for establishing a gas curtain enclosing part of the protected volume, and an inner entrainment opening, located inward of the curtain opening with respect to the protected volume, adapted for a flow of inner entrainment gas therefrom for being entrained into the flow of curtain gas. The apparatus is configured such that the inner entrainment gas flow is less turbulent than the curtain gas flow.

Abstract: The present invention relates to the field of melon plants having a dominant Melon Yellowing associated Virus (MYaV) resistance gene in their genome, introgressed from wild melon accessions.

Abstract: An apparatus has a first component with a first surface and a second component with a second surface, wherein the first and second components can undergo relative movement. The first surface and the second surface face each other. The first surface accommodates a barrier system to provide a barrier to reduce or prevent an inflow of ambient gas into a protected volume of gas between the first and second surfaces. The barrier system includes a curtain opening adapted for a flow of curtain gas therefrom for establishing a gas curtain enclosing part of the protected volume, and an inner entrainment opening, located inward of the curtain opening with respect to the protected volume, adapted for a flow of inner entrainment gas therefrom for being entrained into the flow of curtain gas. The apparatus is configured such that the inner entrainment gas flow is less turbulent than the curtain gas flow.

Abstract: The present invention relates to the field of melon plants having whitefly resistance, in particular to cultivated melon plants comprising an introgression of a whitefly resistance QTL.

Abstract: A solar powered lighting arrangement (1), comprising a solar cell (2); a light source (8) adapted to be at least partly powered by electrical power derived from the solar cell (2); and a structural member (3) having a first side (4) provided with a first reflective (5) arranged to direct sunlight (6) towards the solar cell (2) and a second side (7) onto which the light source (8) is thermally coupled for dissipating heat generated by the light source (8) when emitting light (9). With the provision of a solar powered lighting arrangement in accordance with the present invention, the structural member may consequently function not only as a reflecting surface directing sunlight towards the solar cell, but additionally as a heat sink for the light source.

Abstract: A solar powered lighting arrangement (1), comprising a solar cell (2); a light source (8) adapted to be at least partly powered by electrical power derived from the solar cell (2); and a structural member (3) having a first side (4) provided with a first reflective surface (5) arranged to direct sunlight (6) towards the solar cell (2) and a second side (7) onto which the light source (8) is thermally coupled for dissipating heat generated by the light source (8) when emitting light (9). With the provision of a solar powered lighting arrangement in accordance with the present invention, the structural member may consequently function not only as a reflecting surface directing sunlight towards the solar cell, but additionally as a heat sink for the light source.

Abstract: A solar powered lighting arrangement (1), comprising a solar cell (2); a light source (8) adapted to be at least partly powered by electrical power derived from the solar cell (2); and a structural member (3) having a first side (4) provided with a first reflective surface (5) arranged to direct sunlight (6) towards the solar cell (2) and a second side (7) onto which the light source (8) is thermally coupled for dissipating heat generated by the light source (8) when emitting light (9). With the provision of a solar powered lighting arrangement in accordance with the present invention, the structural member may consequently function not only as a reflecting surface directing sunlight towards the solar cell, but additionally as a heat sink for the light source.

Abstract: The invention relates to a low temperature-curable coating composition comprising a film-forming resin, a curing agent for the film-forming resin, and a lithium salt.