Abstract:
A system and associated methods are provided for use of fractional pay-up ticks in relation to offset orders being sent for a trading strategy that involves trading a first tradeable object and at least a second tradeable object. According to one example method, when an indication is received that a quantity at a first price for the first tradeable object is filled, a plurality of offset orders for the second tradeable object is sent to an electronic order book of the second tradeable object. The plurality of offset orders is placed at a plurality of price levels determined based on at least one fractional pay-up tick value, the first price, and the desired spread price. A quantity for each order is determined based on a quantity divider rule that is applied to an offset quantity to offset the fill.
Abstract:
System and methods for reducing the risks involved in trading multiple spread trading strategies in an electronic trading environment are provided. Specifically, reducing the risks involved in trading multiple spreads that share a leg by, among other things, quoting a single order in the shared leg instead of quoting orders for each of the corresponding spread legs. Based on the computed quote price for the single order, associating the single order with the leaned on price that results in the price closest to the inside market in the shared leg. The single quote order is based on the market conditions in the spread legs and the desired spread price. Once the single order fills, a hedge order is sent to the leg that obtains the most advantageous price for the spread based on the other spread options.
Abstract:
A system and method are provided that, among other things, can reduce the burden on receiving computers, increase data throughput, reduce system failure, and provide components of a scalable and flexible network architecture. Specifically, the system and method provide a multichannel-multicast network environment for use in dynamically assigning data to channels. This configuration is particularly useful in a trading network environment, as it effectively performs channel reassignments in a way not to disturb the receipt of the underlying data. While the example embodiments described herein pertain to electronic trading, the principles of the present invention may be equally applied in other environments where the advantages presented herein are beneficial.
Abstract:
A system and method for defining and processing timed orders are defined. According to one embodiment, a trader may define a timed order by defining an intra-day time trigger or a time period when the timed order should be automatically modified, such as deleted or cancelled/replaced with a new order. In one embodiment, the intra-day time trigger or time period may be dynamically changed to a later time, for example, upon receiving a predetermined user input. Also, the time trigger and time period may be configured to dynamically vary based on any user configurable formula. Also, the timed order may be associated with one or more actions to be taken once the order is deleted, such as sending a new order, for example.
Abstract:
A system and method are provided that, among other things, can reduce the burden on receiving computers, increase data throughput, reduce system failure, and provide components of a scalable and flexible network architecture. Specifically, the system and method provide a multichannel-multicast network environment for use in dynamically assigning data to channels. This configuration is particularly useful in a trading network environment, as it effectively performs channel reassignments in a way not to disturb the receipt of the underlying data. While the example embodiments described herein pertain to electronic trading, the principles of the present invention may be equally applied in other environments where the advantages presented herein are beneficial.