Abstract: A system for detecting a foreign object on a runway, the system including a thermal camera comprising a first field of view and adapted to capture a thermal image of a first view of an area of interest on the runway from one side of the runway, a visible light camera comprising a second field of view and adapted to capture a visible light image of the first view of the area of interest on the runway from the one side of the runway, wherein the first field of view overlaps the second field of view, detect a thermal object image in the thermal image, detect a visible light object image in the visible light image, and determine that the foreign object is detected when the thermal object image and the visible light object image are detected in the thermal image and the visible light image respectively.

Abstract: A midsole structure includes: a body including a first surface enclosed by a first feature line, a second surface enclosed by a second feature line, and a third surface located between the first surface and the second surface and collectively enclosed by the first feature line and the second feature line; and a plurality of structure units disposed among the first surface, the second surface and the third surface. The third surface increases from a first width to a second width along a direction from a first side of the body to a second side of the body. On the first side, a first number of the structure units are arranged along the first width. On the second side, a second number of the structure units are arranged along the second width. The first width is equal to the second width.

Abstract: A system for detecting a foreign object on a runway, the system including a thermal camera comprising a first field of view and adapted to capture a thermal image of a first view of an area of interest on the runway from one side of the runway, a visible light camera comprising a second field of view and adapted to capture a visible light image of the first view of the area of interest on the runway from the one side of the runway, wherein the first field of view overlaps the second field of view, detect a thermal object image in the thermal image, detect a visible light object image in the visible light image, and determine that the foreign object is detected when the thermal object image and the visible light object image are detected in the thermal image and the visible light image respectively.

Abstract: The present invention relates to a system for detecting a foreign object on a runway. The system includes a thermal camera having a first field of view and adapted to capture a thermal image of an area of interest on the runway, a visible light camera having a second field of view and adapted to capture a visible light image of the area of interest on the runway, such that the first field of view overlaps the second field of view. The system further includes a processor configured to detect a thermal object image in the thermal image, detect a visible light object image in the visible light image, and determine that the foreign object is detected when the thermal object image and the visible light object image are detected in the thermal image and the visible light image respectively.

Abstract: A contactless Secure Element compliant to an inter-industry Secure Element contactless management standard where a Card Reset privilege or Implicit Selection parameter on a contactless interface is compulsory for an Identification Virtual Document application to be able to communicate with an external entity, said Secure Element has a proxy application having the Card Reset privilege or Implicit Selection parameter on the contactless interface and being adapted to receive any command from an external entity for any of the available Identification Virtual Document application belonging to any one of the different standards of Identification Virtual Document, to extract a select command comprising an Logical Data Structure application identifier, to identify and to determine the corresponding recipient Identification Virtual Document application using the extracted Logical Data Structure application identifier and to forward such a command to the determined corresponding recipient Identification Virtual Documen

Abstract: This invention describes a nano-scale magnetic solid base catalyst and its preparation method. The catalyst involves a magnetic core coated with a solid base active layer. The synthesis of the nano-scale magnetic cores was first carried out using a rapid nucleation method in a colloid mill reactor using a liquid-liquid reaction. The nano-scale magnetic cores were mixed with a mixed salt solution. The LDH-containing magnetic cores were prepared in a colloid mill reactor by a rapid nucleation method, and subsequently calcined to give a solid base mixed oxides coated on magnetic cores. The characteristics of this catalyst are: nano-scale, high surface area and high activity and selectivity in base-catalyzed reactions. The highly dispersed catalyst can be easily reclaimed using an external magnetic field because of its magnetism. The catalyst can be utilized in base catalysis in organic reactions such as glycol ether synthesis, ester exchange, aldol condensation, etc.

Abstract: The present invention provides amino acid sequences of peptides that are encoded by genes within the human genome, the transporter peptides of the present invention. The present invention specifically provides isolated peptide and nucleic acid molecules, methods of identifying orthologs and paralogs of the transporter peptides, and methods of identifying modulators of the transporter peptides.

Abstract: This invention describes a nano-scale magnetic solid base catalyst and its preparation method. The catalyst involves a magnetic core coated with a solid base active layer. The synthesis of the nano-scale magnetic cores was first carried out using a rapid nucleation method in a colloid mill reactor using a liquid-liquid reaction. The nano-scale magnetic cores were mixed with a mixed salt solution. The LDH-containing magnetic cores were prepared in a colloid mill reactor by a rapid nucleation method, and subsequently calcined to give a solid base mixed oxides coated on magnetic cores. The characteristics of this catalyst are: nano-scale, high surface area and high activity and selectivity in base-catalyzed reactions. The highly dispersed catalyst can be easily reclaimed using an external magnetic field because of its magnetism. The catalyst can be utilized in base catalysis in organic reactions such as glycol ether synthesis, ester exchange, aldol condensation, etc.