Abstract: A system for monitoring and tracking location of a tag paired to a tool is disclosed, the system comprising a communication unit to receive flag event data, the flag event data relating to a detected event, the flag event data including at least tag identification data, location data of the tag, detected event type, and time of occurrence of the detected event. The system comprises a storage unit to store data records of tags, the data records comprising a current tag location and data relating to the tool which is paired to the tag, and to store a set of instructions defined for handling flag event data. The system comprises a processing unit to receive flag event data, and to transmit a notification of the flag event data to other connected devices according to the stored set of instructions for handling the flag event data.

Abstract: An interchangeable tag for attaching to an item for automatically identifying the item, including: a base with a small footprint for attaching to the item at a first end of the base; an identification head with a larger footprint that is attached to the item by the base at a second end of the base; wherein the identification head wirelessly accepts communication queries and transmits identification information related to the item; and wherein the base is attached to the tool by a technological process that requires use of an attachment tool by a skilled user and the identification head is attached to the base after attaching it to the item by a simple process that is performed without requiring an attachment tool.

Abstract: A tag reader, including: a. a mobile part having an antenna for positioning near a group of tags, transmitting a power signal to the tags and receiving a response from the tags; wherein the antenna has an internal impedance that increases or decreases responsive to objects located in its vicinity; b. a reader base for providing the power signal to the mobile part and for storing and analyzing information read from tags; and c. a real-time antenna tuning circuit for adjusting the impedance of the antenna; wherein the mobile part, reader base and real time antenna tuning circuit are wired together to transfer the power signal from the reader base to the antenna through the real-time antenna tuning circuit, and wherein the real-time antenna tuning circuit monitors the power signal and adjusts the impedance of the antenna responsive to a determination in real-time of power return loss from the antenna.

Abstract: A system for associating processed items with process logs, including a server computer for tracking the items and a tag reader positioned in the vicinity of a device for processing the items; wherein the items are marked with a tag that is readable with a tag reader; wherein the device produces a process log listing a commencement time of the process, a type of process performed and an indication if the process completed successfully; wherein the tag reader records identity information of the items inserted and/or removed from the device for processing; and wherein the process log and identity information are provided to the server computer to associate the processes recorded in the process log with the processed items to form tracking information for an item.

Abstract: An identification tag for attaching to a tool to automatically identify the tool, including, a base with a small footprint for attaching to the tool on one end of the base, an identification attachment with a larger footprint that is attached to the tool by the base at a second end of the base. Wherein the identification attachment includes, an encasement that is connected to the second end of the base, an identification circuit that fits into the encasement, a cover to seal the encasement, and wherein the identification circuit accepts communication queries and transmits identification information related to the tool wirelessly from within the encasement.

Abstract: An identification tag for attaching to a tool to automatically identify the tool, including, a base with a small footprint for attaching to the tool on one end of the base, an identification attachment with a larger footprint that is attached to the tool by the base at a second end of the base. Wherein the identification attachment includes, an encasement that is connected to the second end of the base, an identification circuit that fits into the encasement, a cover to seal the encasement, and wherein the identification circuit accepts communication queries and transmits identification information related to the tool wirelessly from within the encasement.

Abstract: A method for producing an identification device, including: obtaining a holder, substantially shaped as a curved stratum having a C-shaped cross-section, the holder having an external surface and an internal surface, the stratum having at least one opening thereon; micro-etching the internal surface of the holder; fixing an identification tag within the holder by a hardening material; and wherein fixing the identification tag within the holder includes the following steps in the order as listed: placing the holder within a container on a curved rim of the holder; filling the holder to about half the height with a hardening material; placing the identification tag within the holder; filling the holder to its height with the hardening material; and hardening the hardening material.

Abstract: A flat identification antenna for receiving signals from multiple tag-carrying items placed on the antenna and a system for identifying and tracking multiple tag-carrying items including the same. The antenna comprises a first planar array of partially overlapping first planar loops, a second planar array of partially overlapping second planar loops and an insulating board positioned between the first and second arrays. The loops in the first array are arranged to partially overlap each other in one direction and the loops in the second array are arranged to partially overlap each other in another direction.

Abstract: An identification device adapted to be attached to a tool comprising a holder formed as a curved stratum having a C-shaped cross-section, the stratum having at least one opening thereon, and the internal surface of the holder being micro-etched; an identification tag placed within the holder; and hardening material for fixing the identification tag within the holder. The identification device is created from a holder, shaped as a curved stratum having a C-shaped cross-section and at least one opening thereon, micro-etching the internal surface of the holder; and fixing an identification tag within the holder by a hardening material. Fixing the tag within the holder may comprise placing the holder within a container; filling the holder to about half the height with a hardening material; placing the identification tag within the holder; filling the holder with the hardening material; and hardening the hardening material.

Abstract: A flat identification antenna for receiving signals from multiple tag-carrying items placed on the antenna and a system for identifying and tracking multiple tag-carrying items including the same. The antenna comprises a first planar array of partially overlapping first planar loops, a second planar array of partially overlapping second planar loops and an insulating board positioned between the first and second arrays. The loops in the first array are arranged to partially overlap each other in one direction and the loops in the second array are arranged to partially overlap each other in another direction.

Abstract: A method and apparatus for identifying and tracking instruments, in multiple instrument environments such as an operating room or a garage. Each instrument or disposable has attached thereto an identifying tag, such as an RFID tag. Each plane or location the instruments or disposables are placed on, comprises an antenna and thus continuously identifies the tools. In order for the antenna to work in a metallic environment, the antenna is equipped with a metallic board underneath, which insulates form other metals, and in order for the metallic board not to absorb all the energy, a spacing layer is placed between the metal board and the antenna. Flat antennas may be implemented as a collection of wire loops, overlapping in about 20% of one of their dimensions.