Abstract: A contact-based inductive sensing technique for contextual interactions on interactive fabrics is described. The technique recognizes conductive objects (mainly metallic) that are commonly found in households and workplaces, such as keys, coins, and electronic devices. An apparatus includes an array of a plurality of six by six spiral-shaped coils including conductive thread, sewn onto a four-layer fabric structure. The coil shape parameters were determined based on maximizing the sensitivity based on a new inductance approximation formula. Through a ten-participant study, the performance of sensing technique across 27 common objects was evaluated. A 93.9% real-time accuracy for object recognition resulted.

Abstract: A non-fungible physical fabric token (NFPFT) system includes a piece of smart fabric coupled to a physical item. The piece of smart fabric includes a grid of cells configured to receive and persistently store one or more datasets. The NFPFT system also includes a verification and authentication device configured to receive a first dataset associated with the physical item and a second dataset associated with a non-fungible token (NFT) recorded in a decentralized system. The NFT is associated with the physical item. The verification and authentication device is further configured to cause the first dataset and the second dataset to be persistently stored in the grid of cells of the smart fabric.

Abstract: A smart wearable includes one or more sensors and one or more processors. The one or more sensors are configured to generate sensing data. The one or more processors are configured to process the sensing data and determine whether one or more predetermined conditions are satisfied based on the processing of the sensing data. In response to determining that the one or more predetermined conditions are satisfied, the smart wearable is caused to communicate with a second smart wearable.

Abstract: A piece of smart fabric for recognizing an object or a touch gesture includes a first layer and a second layer. The first layer has multiple resistive sensors and multiple capacitive sensors. Each resistive sensor corresponds to each capacitive sensor. Each capacitive sensor includes a first piece of conductive fabric and a second piece of conductive fabric, and each resistive sensor includes a piece of pressure sensing fabric sandwiched between the first piece of conductive fabric and the second piece of conductive fabric of the corresponding capacitive sensor. The second layer has multiple inductive sensors and multiple NFC sensors. Each of the multiple inductive sensors corresponds to each of the NFC sensors. Each inductive sensor and its corresponding NFC sensor share a same coil.

Abstract: A non-fungible physical fabric token (NFPFT) system includes a piece of smart fabric coupled to a physical item. The piece of smart fabric includes a grid of cells configured to receive and persistently store one or more datasets. The NFPFT system also includes a verification and authentication device configured to receive a first dataset associated with the physical item and a second dataset associated with a non-fungible token (NFT) recorded in a decentralized system. The NFT is associated with the physical item. The verification and authentication device is further configured to cause the first dataset and the second dataset to be persistently stored in the grid of cells of the smart fabric.

Abstract: An intelligent shoe comprises one or more sensorial devices configured to generate sensorial signals to instruct a wearer to walk along a pedestrian path. The intelligent shoe is configured to cause a current location of the wearer to be determined and to obtain a pedestrian path between the current location and the destination location. The intelligent shoe then causes the one or more sensorial devices to generate sensorial signals, instructing the wearer to move along the pedestrian path.

Abstract: A service computing system (server) has a storage stored thereon multiple records associated with multiple items. Each item has a piece of smart fabric fixed thereon. Each record stores at least a unique identifier of a piece of smart fabric and a unique identifier of a verification and authentication device associated with the item. The server is configured to receive a verification request from a mobile device containing at least one of a unique identifier of a piece of smart fabric associated with an item, or a unique identifier of a verification and authentication device associated with the item. In response to determining that the identifier of the smart fabric or the identifier of the verification and authentication device is associated with a record, the server generates a token and causes the token to be received by the verification and authentication device, causing the verification and authentication device to transmit data associated with the token to the piece of smart fabric for authentication.

Abstract: A smart wearable includes one or more sensors and one or more processors. The one or more sensors are configured to generate sensing data. The one or more processors are configured to process the sensing data and determine whether one or more predetermined conditions are satisfied based on the processing of the sensing data. In response to determining that the one or more predetermined conditions are satisfied, the smart wearable is caused to communicate with a second smart wearable.

Abstract: A piece of smart fabric for recognizing an object or a touch gesture includes a first layer and a second layer. The first layer has multiple resistive sensors and multiple capacitive sensors. Each resistive sensor corresponds to each capacitive sensor. Each capacitive sensor includes a first piece of conductive fabric and a second piece of conductive fabric, and each resistive sensor includes a piece of pressure sensing fabric sandwiched between the first piece of conductive fabric and the second piece of conductive fabric of the corresponding capacitive sensor. The second layer has multiple inductive sensors and multiple NFC sensors. Each of the multiple inductive sensors corresponds to each of the NFC sensors. Each inductive sensor and its corresponding NFC sensor share a same coil.

Abstract: A disclosed circuit prototyping system includes a hardware interface module configured for electronically connecting to a physical electronic device, a virtual circuit design interface to construct a virtual circuit for a plurality of virtual circuit devices including a virtual counterpart of the physical electronic device, and a circuit simulator configured to simulate the virtual circuit including communicating data with the physical electronic device by way of communication with the hardware interface module.

Abstract: A disclosed circuit prototyping system includes a hardware interface module configured for electronically connecting to a physical electronic device, a virtual circuit design interface to construct a virtual circuit for a plurality of virtual circuit devices including a virtual counterpart of the physical electronic device, and a circuit simulator configured to simulate the virtual circuit including communicating data with the physical electronic device by way of communication with the hardware interface module.