Abstract: The Decentralized Exchange with Price Oracle Apparatuses, Processes and Systems (“DEPO”) transforms decentralized exchange liquidity provision request, decentralized exchange crypto asset swap request, decentralized exchange liquidity redemption request datastructure/inputs via DEPO components into decentralized exchange liquidity provision response, decentralized exchange crypto asset swap response, decentralized exchange liquidity redemption response outputs. A decentralized exchange liquidity provision transaction is obtained via a unidirectional decentralized exchange smart contract deployed on a blockchain. A crypto assets exchange quotient for exchanging a source crypto asset type and a target crypto asset type is determined. An imbalance rule check for a crypto assets liquidity tranche datastructure is executed. A non-fungible token specific to the crypto assets liquidity tranche datastructure is minted.

Abstract: The Decentralized Exchange with Price Oracle Apparatuses, Processes and Systems (“DEPO”) transforms decentralized exchange liquidity provision request, decentralized exchange crypto asset swap request, decentralized exchange liquidity redemption request datastructure/inputs via DEPO components into decentralized exchange liquidity provision response, decentralized exchange crypto asset swap response, decentralized exchange liquidity redemption response outputs. A decentralized exchange liquidity provision transaction is obtained via a bidirectional decentralized exchange smart contract deployed on a blockchain. A crypto assets exchange quotient for exchanging a first crypto asset type and a second crypto asset type is determined. A quantity of fungible tokens specific to a crypto assets liquidity tranche datastructure to generate is calculated.

Abstract: An ordering system described herein can include a rapid reorder of items without needing to re-add the individual items into a shopping cart. The rapid reorder may be triggered via a 3D touch or a long press on a mobile device. The ordering system can also provide an architecture that can allow a user to modify an order, such as, e.g., the pickup time or store location, after the order has been submitted.

Abstract: An ordering system described herein can include a rapid reorder of items without needing to re-add the individual items into a shopping cart. The rapid reorder may be triggered via a 3D touch or a long press on a mobile device. The ordering system can also provide an architecture that can allow a user to modify an order, such as, e.g., the pickup time or store location, after the order has been submitted.

Abstract: An ordering system described herein can include a rapid reorder of items without needing to re-add the individual items into a shopping cart. The rapid reorder may be triggered via a 3D touch or a long press on a mobile device. The ordering system can also provide an architecture that can allow a user to modify an order, such as, e.g., the pickup time or store location, after the order has been submitted.

Abstract: The Secret Key-Based Counterparty Matching Engine Apparatuses, Methods and Systems (“SKCME”) transforms client key message, order placement input inputs via SKCME components into order placement output outputs. A matched key is determined and used to generate a set of cross times and a set of cross venues for a security identifier. Orders associated with the security identifier are obtained from counterparties and are assigned a scheduled cross time from the generated set of cross times and a scheduled cross venue from the generated set of cross venues. The orders are sent for execution at the scheduled cross venue at the scheduled cross time.

Abstract: An ordering system described herein can include a rapid reorder of items without needing to re-add the individual items into a shopping cart. The rapid reorder may be triggered via a 3D touch or a long press on a mobile device. The ordering system can also provide an architecture that can allow a user to modify an order, such as, e.g., the pickup time or store location, after the order has been submitted.

Abstract: Rapid reordering may be performed by a two-step process. A user interface may present a user with a first user interface control, which can be a button or other user interface control that enables a user interface to initiate an express reorder of a previously-ordered item. Once the user has selected the button, the user interface can present default details about the order along with a second user interface control, which can be a swipe bar or another button (or some other control). User selection of the second user interface control can complete the reorder process. Although described with respect to reordering, this two-step process can also be used for ordering items not previously ordered by a user before.

Abstract: There is provided a hypermotor activity detection system, including: a video capture device configured to monitor a patient and obtain a video input; and a processing system configured to process the video input. The processing system includes: an optical flow module configured to carry out an optical flow analysis on a video input region determined from the video input, and further determine a flow field magnitude of the video input region; and a local motion reference module configured to obtain a local motion reference value. The local reference module includes: a division module; a sub-window flow module; a local motion magnitude module; and a local motion comparison module. Further, a corresponding method for detecting hypermotor activity is provided.

Abstract: According to various embodiments of the present disclosure, there is provided a hypermotor activity detection system, including: a video capture device configured to monitor a patient and obtain a video input; and a processing system configured to process the video input, including: a optical flow module configured to carry out an optical flow analysis on a video input region determined from the video input, and further determine a flow field magnitude of the video input region; a local motion reference module including: a division module configured to divide the video input region into a plurality of sub-windows; a sub-window flow module configured to determine a sub-window flow field magnitude for each of the plurality of sub-windows; a local motion magnitude module configured to obtain a magnitude of local motion based on the sub-window flow field magnitude for each of the plurality of sub-windows; and a local motion comparison module configured to compare the magnitude of local motion with a local motion