Abstract: A card connector includes an insulating housing (4) defining a receiving space (44) and a receiving cavity (421) communicating with the receiving space (44); a plurality of contacts (2); an ejector (5) comprising an insulating slider (51) sliding in the receiving cavity (421) and an ejecting member (53) protruding into the receiving space (44); and a switch (3) comprising a pair of conductive pieces and a conductive plate (561), said conductive plate (561) being fixed to said slider (51), said conductive pieces engaging with said slider (51); wherein both of said pair of conductive pieces coming into contact with said conductive plate (561) when the card (6) urges the slider (51) sliding to a first position, while at least one of the conductive piece coming out of contact with said conductive plate (561) when the ejector (3) ejects the card and urges the slider (51) sliding to a second position.

Abstract: The present invention is related to a tridimensional combined green building which is constituted with plant, biologic ecosystem, physical environment ecosystem, habitation environment and the combination thereof. Said tridimensional combined green-building may comprises green villages, green areas and green scientific town, such as tridimensional wall, tridimensional river and tridimensional bridge etc., and they can be divided into variety of green building.

Abstract: A non-contact gauge and method of use is provided for optical measurement of an object or objects. The apparatus and methods may comprise a laser providing a projected laser beam; a work-piece holder for holding the object to be measured; a light sensitive sensor located to sense the beam as the beam is diffracted by at least one edge of the object and as the beam forms a near field Fresnel diffraction fringe pattern upon elements of the sensor. The laser and the sensor are located to enable near-field Fresnel diffraction. A fringe pattern signal analyzer may be included for computing mathematical algorithms to determine the position (X0) of at least one edge of the object based upon the diffraction pattern sensed by the sensor wherein the fringe pattern signal analyzer is structured to refine sensed fringe pattern edge position data to be more accurate based upon a theoretical diffraction compensation factor.