Abstract: The system comprises a prediction module (1) equipped with artificial intelligence to predict neurological disorders in an individual patient and identify a level of neurological disorders; a central processing unit (2) to detect triggering events and circumstances due to which the neurological disorders trigger in an individual patient upon receiving real-time behavior information data generated by a playing ball (3) of an individual patient and distinguish between a normal behavior and a neurological disorders behavior; an alert module (4) to alert the individual patient upon determining neurological disorders behavior; and an entertainment platform (5) to entertain and engage the individual patient with a specific set of activities assigned according to detected triggering events and circumstances upon determining the neurological disorders behavior, wherein a specific set of activities includes listening to music, playing games, and talking to an AI chatbot.

Abstract: A movable operator station is disclosed. The movable operator station includes a first base plate, a second base plate, and a first support unit. A multi-tier structure is slidably coupled to the first base plate and is slidable in “X” axis between first and second positions. The second base plate is slidably coupled to the first base plate and is slidable between third and fourth positions. The first support unit is slidably coupled to the second base plate and is slidable along the “X” axis. A set of linking members links the first multi-tier structure to the first support unit. The set of linking members extends or collapses based on a movement of the second base plate along the “Y” axis. The first support unit and the set of linking members form a second multi-tier structure when the second base plate is at the fourth position.

Abstract: A method of treating contaminated water, such as wastewater, with carboxylated cellulose to remove ammonium and nitrogen-containing impurities is claimed. Carboxylated cellulose extracted by nitro-oxidation has negatively-charged functionality and forms an aggregate when exposed to positively-charged impurities in contaminated water. The aggregate, nitrogen-containing impurities, and by-products from the nitro-oxidation process can be isolated to provide a fertilizer or fertilizer component.

Abstract: Various techniques are provided to efficiently implement user designs in programmable logic devices (PLDs). In one example, a computer-implemented method includes receiving a design identifying operations to be performed by a PLD and synthesizing the design into a plurality of PLD components. The synthesizing includes detecting a constant multiplier operation in the design, determining a nearest boundary condition for the constant multiplier operation, and decomposing the constant multiplier operation using the nearest boundary condition to reduce the plurality of PLD components. The reduced plurality of PLD components comprise at least one look up table (LUT) configured to implement an addition or subtraction operation of the decomposed constant multiplier operation.

Abstract: Various techniques are provided to efficiently implement user designs in programmable logic devices (PLDs). In one example, a computer-implemented method includes receiving a design identifying operations to be performed by a PLD and synthesizing the design into a plurality of PLD components. The synthesizing includes detecting a constant multiplier operation in the design, determining a nearest boundary condition for the constant multiplier operation, and decomposing the constant multiplier operation using the nearest boundary condition to reduce the plurality of PLD components. The reduced plurality of PLD components comprise at least one look up table (LUT) configured to implement an addition or subtraction operation of the decomposed constant multiplier operation.

Abstract: Various techniques are provided to efficiently implement user designs in programmable logic devices (PLDs). In one example, a computer-implemented method includes receiving a design identifying operations to be performed by a PLD. The computer-implemented method also includes synthesizing the design into a plurality of PLD components. In the computer-implemented method, the synthesizing includes detecting an incrementer-multiplier operation in the design and merging an incrementer portion of the incrementer-multiplier operation with a multiplier portion of the incrementer-multiplier operation to reduce the plurality of PLD components.

Abstract: The method for mapping a logic circuit to a plurality of interconnectable, programmable look up tables (LUT) elements includes forming logic element groups including individual logic elements and/or previously formed logic element groups that are capable of being accommodated within the fanin and/or fanout capacity of a target LUT. The method further includes mapping the formed logic element group to the target LUT, and repeating the process for forming logic element groups and mapping to target LUTs for the entire network in a manner such that at each stage only the unmapped logic element/elements and mapped logic element groups of the previous stage are considered for mapping.

Abstract: A method for finding a maximum volume and minimum cutset in a network of interconnected nodes is provided. The method is applicable to systems that can be reduced to such a network, including telecommunication networks, traffic networks, computer networks, layouts, hydraulic networks, etc. An equivalent network is derived by replacing all nodes other then the source and sink by two interconnected nodes. A conventional method applies an augmenting path algorithm that identifies a cutset. If the feasible cutset is not achieved then a reduced network is constructed by directly connecting the member nodes of identified cutsets to the source node and repeating the above process for the reduced network until a feasible cutset is achieved.

Abstract: A method for mapping an electronic digital circuit to a Look Up table (LUT) based Programmable Logic Deviceoperates by selecting an unmapped or partially mapped LUT, and identifying a group of circuit elements for mapping on the selected LUT based on the available capacity of the selected LUT and the mapping constraints. The identified circuit elements are mapped onto the selected LUT. The identification of circuit elements and mapping is carried out while taking into consideration the Cascade Logic associated with the selected LUT. The process continues until all circuit elements have been mapped. The group of circuit elements is mapped to the cascade logic prior to mapping on the LUTs. Conversely, the cascade logic is incorporated only after all circuit elements have initially been mapped onto LUTs or some elements remain unmapped after all LUTs have been utilized. The mapping constraints include timing, placement, and size constraints.

Abstract: A method for mapping an electronic digital circuit to a Look Up table (LUT) based Programmable Logic Deviceoperates by selecting an unmapped or partially mapped LUT, and identifying a group of circuit elements for mapping on the selected LUT based on the available capacity of the selected LUT and the mapping constraints. The identified circuit elements are mapped onto the selected LUT. The identification of circuit elements and mapping is carried out while taking into consideration the Cascade Logic associated with the selected LUT. The process continues until all circuit elements have been mapped. The group of circuit elements is mapped to the cascade logic prior to mapping on the LUTs. Conversely, the cascade logic is incorporated only after all circuit elements have initially been mapped onto LUTs or some elements remain unmapped after all LUTs have been utilized. The mapping constraints include timing, placement, and size constraints.

Abstract: A method for mapping an electronic digital circuit to a Look Up table (LUT) based Programmable Logic Deviceoperates by selecting an unmapped or partially mapped LUT, and identifying a group of circuit elements for mapping on the selected LUT based on the available capacity of the selected LUT and the mapping constraints. The identified circuit elements are mapped onto the selected LUT. The identification of circuit elements and mapping is carried out while taking into consideration the Cascade Logic associated with the selected LUT. The process continues until all circuit elements have been mapped. The group of circuit elements is mapped to the cascade logic prior to mapping on the LUTs. Conversely, the cascade logic is incorporated only after all circuit elements have initially been mapped onto LUTs or some elements remain unmapped after all LUTs have been utilized. The mapping constraints include timing, placement, and size constraints.