A fully automatic inductive sample-collecting bucket capable of storing sample information includes a bucket, and a bucket cover snap-fitted to an upper end of the bucket. A bucket cover cavity is formed in the bucket cover. A locking mechanism, and a control mechanism for driving the locking mechanism to act are integrated in the bucket cover cavity. An integrated circuit (IC) card inductive control assembly is integrated in the bucket cover. The bucket is provided with a radio frequency identification (RFID) chip. The IC card inductive control assembly is configured to identify IC card unlocking information of an external grip for cover opening work and to drive the control mechanism to work to control an action of the locking mechanism. The sample-collecting bucket integrates an RFID card capable of carrying sample coding information, and can realize the automatic cover-sealing and cover-opening function under the identification and control of the controller.

The invention is a device (E) with an RFID tag ( ), with the tag (1) is provided on one (12) of the faces (12, 13) with a layer (14, 14A) of a protective material, where the material being based on silicone and having a dielectric permittivity of greater than at least three times the dielectric permittivity of the air, and in that the layer (14, 14A) of material has a thickness of at least 6 millimeters. The invention also relates to a receptacle or packaging provided with a device of this kind.

RFID-integrated packages are disclosed combining a container, an article positioned within the container, and a packing material positioned within the container between at least a portion of the article and an inner surface of the container. The packing material is manufactured by at least partially associating it with an RFID device. The packing material may be formed of a recyclable material, such as paper. The packing material together with the RFID device is processed to provide it with an impact-absorbing configuration. Processing methods may include folding, crushing, and cutting or slitting, with the RFID device continuing to perform well after it and the packing material have been processed into the impact-absorbing configuration for use within the container. The entire RFID device may be associated to the packing material or only a portion or component of RFID device may be associated to the packing material, with another portion or component associated to the container or article.

A “smart” closure system, apparatus, and method are described. The closure includes mechanical solution, used in conjunction with wireless technologies and/or web-based or remote authentication, verification, and serialization via a mobile computing device, to provide information about the closure and the contents concealed within that closure. Further, the construction of the closure allows for any and all non-recyclable components of the wireless technologies to be removed so as to enable the closure to be recycled and/or converted to post consumer resin.

A method and system for authenticating a variety of consumer products is provided. The system includes a plurality of near field communication (NFC) tags configured for coupling to a variety of consumer products, the tags programmed to provide identifying data associated with a single consumer product to an NFC-capable mobile computing device, the NFC having a structure that detects opening of the consumer product, a central database for storing said data, a server communicably connected to a communications network and configured to access the database, and a mobile application executing on a mobile computing device, configured to read said identifying data from the NFC tag and communicate said identifying data to the server.

Track and trace packaging is disclosed which may also be damage indicating. Track and trace functionality may be incorporated on, in or near the packaging at various stages of a supply chain. A damage indicating material can be incorporated into a variety of packaging substrates, which may change color when exposed to oxygen, excessive heat and/or excessive pressure. An anti-counterfeiting taggant material may be used to provide track and trace capabilities. Exemplary products with which the present track and trace packaging may be used include packaged condoms, food and beverages, pharmaceuticals, cannabis and the like.

RFID tags are provided for incorporation into the packaging of a microwavable food item. The packaging includes a first member (e.g., a tray) that is configured to be microwaved and a second member (e.g., a sleeve or box or enclosure) that is configured to be dissociated from the first member prior to microwaving the first member. The RFID tag includes a reactive strap associated with the first member and a far-field antenna associated with the second member. The reactive strap is coupled to the antenna when the packaging is intact, while being decoupled from the antenna when the second member has been dissociated from the first member. The RFID tag is capable of far-field communication when the reactive strap is coupled to the antenna, while the reactive strap is capable of only near-field communication when decoupled from the antenna.

A water bottle with a pressurized compartment and an unpressurized compartment to integrate supplemental oxygen delivery into a hydration and electrolyte management system. The unpressurized compartment may be manually filled with a fluid. The user may consume fluid from the unpressurized compartment and an aerosol from the pressurized compartment independently or simultaneously.

An antenna for an RFID (Radio Frequency Identification) tag comprises two antenna parts being arranged at opposite end areas of the antenna, and at least one intermediate part forming a bridge between the antenna parts. One of the at least one intermediate part comprises power feeding areas to be connected to an integrated circuit. Further, a first gap is arranged in one of the at least one intermediate part, and has a gap length of less than 80 μm, which forms a low impedance path for current at microwave frequencies.

A racking protection device that includes a housing and vibration monitor. The vibration monitor is arranged to record the vibration transmitting through a racking component. The housing includes an alert for alerting a user when the racking requires inspection for damage to impacts. The vibration monitor records the frequency and time of each impact. The vibration monitor includes a memory that counts and records the number of minor impacts. The vibration monitor determines a minor impact when the peak frequency is between a minimum and maximum pre-set level for a predetermined time period. When a predeteiiiiined number of minor impacts is exceeded, the alert is arranged to alert the user to inspect the racking for damage. When the frequency exceeds the maximum pre-set level for a predetermined time period the vibration monitor determines that a severe impact has occurred and the alert is arranged to alert the user to inspect the racking for damage.