Abstract: An RFID tag and a method for optimizing a Yagi-Uda antenna for a RFID inlay or integrated circuit is provided. The method has steps comprise: 1) selecting an electrically conductively first element; 2) generating an electrically conductive second element by taking a mirror image of the electrically conductive first element and trimming the second element; 3) generating a third element” along a line of axis of symmetry of the first two elements and on the opposite side of the first element as the electrically conductive second element; 4) adjusting the distance between the first three elements for optimum performance using Et(x)=EXP[a?x·b]+E?; and 5) optionally, if the electrically conductive first element does not contain an IC (integrated circuit) or RFID inlay, then adding an IC or RFID inlay adjacent to/or physically touching the electrically conductive first element along the line of symmetry.

Abstract: An RFID tag and a method for optimizing a Yagi-Uda antenna for a RFID inlay or integrated circuit is provided. The method has steps comprise: 1) selecting an electrically conductively first element; 2) generating an electrically conductive second element by taking a mirror image of the electrically conductive first element and trimming the second element; 3) generating a third element” along a line of axis of symmetry of the first two elements and on the opposite side of the first element as the electrically conductive second element; 4) adjusting the distance between the first three elements for optimum performance using Et(x)=EXP[a?x·b]+E?; and 5) optionally, if the electrically conductive first element does not contain an IC (integrated circuit) or RFID inlay, then adding an IC or RFID inlay adjacent to/or physically touching the electrically conductive first element along the line of symmetry.

Abstract: A passive, metal mount, UHF RFID tag with a high antenna efficiency is provided. The passive, metal mount, UHF RFID tag has a first securing surface and second securing surface which are both hinged at sides of a main body of the tag and which allow the tag to be secured to flat objects, round objects having various circumferences or to objects having unusual exterior surfaces. A pressure sensitive adhesive (PSA) tape secures the tag to the object. The tag allows the main body (or “form factor”) to be offset from a metallic asset which is tracked without the metallic object negatively interfering with the RFID. The metallic surface of the asset being tracked is used to activate the Patch antenna duality of the custom design inlay, thus increasing the radiation efficiency of the driven element (integrated circuit) and ultimately the read range.

Abstract: A passive, metal mount, UHF RFID tag with a high antenna efficiency is provided. The passive, metal mount, UHF RFID tag has a first securing surface and second securing surface which are both hinged at sides of a main body of the tag and which allow the tag to be secured to flat objects, round objects having various circumferences or to objects having unusual exterior surfaces. A pressure sensitive adhesive (PSA) tape secures the tag to the object. The tag allows the main body (or “form factor”) to be offset from a metallic asset which is tracked without the metallic object negatively interfering with the RFID. The metallic surface of the asset being tracked is used to activate the Patch antenna duality of the custom design inlay, thus increasing the radiation efficiency of the driven element (integrated circuit) and ultimately the read range.