Abstract: System and methods for pre-marshalling messages in an electronic trading environment are provided. Specifically, pre-marshalling messages allows for client and network devices to create messages in response to a defined first condition. Pre-marshalling messages allows a trading system to do more processing up front before the message is needed and when a second condition is satisfied. Thus, when the message is needed no further or very little processing must be performed to generate and send the message. The client and/or network device may allocate a separate, unused, or under-utilized processing thread to the task of creating pre-marshalled messages. Pre-marshalled messages may be stored in memory at the network device until it is determined that the second condition has been satisfied. Once a pre-marshalled message is sent, the unused pre-marshalled messages that were stored in memory may be deleted or may be overwritten with newly pre-marshalled messages.

Abstract: System and methods for pre-marshalling messages in an electronic trading environment are provided. Specifically, pre-marshalling messages allows for client and network devices to create messages in response to a defined first condition. Pre-marshalling messages allows a trading system to do more processing up front before the message is needed and when a second condition is satisfied. Thus, when the message is needed no further or very little processing must be performed to generate and send the message. The client and/or network device may allocate a separate, unused, or under-utilized processing thread to the task of creating pre-marshalled messages. Pre-marshalled messages may be stored in memory at the network device until it is determined that the second condition has been satisfied. Once a pre-marshalled message is sent, the unused pre-marshalled messages that were stored in memory may be deleted or may be overwritten with newly pre-marshalled messages.

Abstract: Systems and methods for optimizing order placement in an electronic trading environment are provided. Global queue holder orders are placed in a tradeable object to reserve quantity for traders. Traders may submit order requests for quantity at price levels at which a global queue holder order is holding quantity. When a trader submits an order for a quantity at a price level at which quantity is being held, a gateway compares the order to the global queue holder order information stored in a database. If the trader's order coincides with a price level at which quantity is held, then the gateway virtually transfers ownership of that quantity to the trader, who then assumes the advantageous queue position. When the quantity associated with the order is filled, the fill information is sent to the gateway, which to the database to determine which trader is associated with the filled order quantity.

Abstract: Systems and methods for optimizing order placement in an electronic trading environment are provided. Global queue holder orders are placed in a tradeable object to reserve quantity for traders. Traders may submit order requests for quantity at price levels at which a global queue holder order is holding quantity. When a trader submits an order for a quantity at a price level at which quantity is being held, a gateway compares the order to the global queue holder order information stored in a database. If the trader's order coincides with a price level at which quantity is held, then the gateway virtually transfers ownership of that quantity to the trader, who then assumes the advantageous queue position. When the quantity associated with the order is filled, the fill information is sent to the gateway, which to the database to determine which trader is associated with the filled order quantity.

Abstract: System and methods for pre-marshalling messages in an electronic trading environment are provided. Specifically, pre-marshalling messages allows for client and network devices to create messages in response to a defined first condition. Pre-marshalling messages allows a trading system to do more processing up front before the message is needed and when a second condition is satisfied. Thus, when the message is needed no further or very little processing must be performed to generate and send the message. The client and/or network device may allocate a separate, unused, or under-utilized processing thread to the task of creating pre-marshalled messages. Pre-marshalled messages may be stored in memory at the network device until it is determined that the second condition has been satisfied. Once a pre-marshalled message is sent, the unused pre-marshalled messages that were stored in memory may be deleted or may be overwritten with newly pre-marshalled messages.

Abstract: System and methods for pre-marshalling messages in an electronic trading environment are provided. Specifically, pre-marshalling messages allows for client and network devices to create messages in response to a defined first condition. Pre-marshalling messages allows a trading system to do more processing up front before the message is needed and when a second condition is satisfied. Thus, when the message is needed no further or very little processing must be performed to generate and send the message. The client and/or network device may allocate a separate, unused, or under-utilized processing thread to the task of creating pre-marshalled messages. Pre-marshalled messages may be stored in memory at the network device until it is determined that the second condition has been satisfied. Once a pre-marshalled message is sent, the unused pre-marshalled messages that were stored in memory may be deleted or may be overwritten with newly pre-marshalled messages.

Abstract: System and methods for pre-marshalling messages in an electronic trading environment are provided. Specifically, pre-marshalling messages allows for client and network devices to create messages in response to a defined first condition. Pre-marshalling messages allows a trading system to do more processing up front before the message is needed and when a second condition is satisfied. Thus, when the message is needed no further or very little processing must be performed to generate and send the message. The client and/or network device may allocate a separate, unused, or under-utilized processing thread to the task of creating pre-marshalled messages. Pre-marshalled messages may be stored in memory at the network device until it is determined that the second condition has been satisfied. Once a pre-marshalled message is sent, the unused pre-marshalled messages that were stored in memory may be deleted or may be overwritten with newly pre-marshalled messages.

Abstract: System and methods for pre-marshalling messages in an electronic trading environment are provided. Specifically, pre-marshalling messages allows for client and network devices to create messages in response to a defined first condition. Pre-marshalling messages allows a trading system to do more processing up front before the message is needed and when a second condition is satisfied. Thus, when the message is needed no further or very little processing must be performed to generate and send the message. The client and/or network device may allocate a separate, unused, or under-utilized processing thread to the task of creating pre-marshalled messages. Pre-marshalled messages may be stored in memory at the network device until it is determined that the second condition has been satisfied. Once a pre-marshalled message is sent, the unused pre-marshalled messages that were stored in memory may be deleted or may be overwritten with newly pre-marshalled messages.

Abstract: System and methods for pre-marshalling messages in an electronic trading environment are provided. Specifically, pre-marshalling messages allows for client and network devices to create messages in response to a defined first condition. Pre-marshalling messages allows a trading system to do more processing up front before the message is needed and when a second condition is satisfied. Thus, when the message is needed no further or very little processing must be performed to generate and send the message. The client and/or network device may allocate a separate, unused, or under-utilized processing thread to the task of creating pre-marshalled messages. Pre-marshalled messages may be stored in memory at the network device until it is determined that the second condition has been satisfied. Once a pre-marshalled message is sent, the unused pre-marshalled messages that were stored in memory may be deleted or may be overwritten with newly pre-marshalled messages.

Abstract: System and methods for pre-marshalling messages in an electronic trading environment are provided. Specifically, pre-marshalling messages allows for client and network devices to create messages in response to a defined first condition. Pre-marshalling messages allows a trading system to do more processing up front before the message is needed and when a second condition is satisfied. Thus, when the message is needed no further or very little processing must be performed to generate and send the message. The client and/or network device may allocate a separate, unused, or under-utilized processing thread to the task of creating pre-marshalled messages. Pre-marshalled messages may be stored in memory at the network device until it is determined that the second condition has been satisfied. Once a pre-marshalled message is sent, the unused pre-marshalled messages that were stored in memory may be deleted or may be overwritten with newly pre-marshalled messages.

Abstract: System and methods for pre-marshalling messages in an electronic trading environment are provided. Specifically, pre-marshalling messages allows for client and network devices to create messages in response to a defined first condition. Pre-marshalling messages allows a trading system to do more processing up front before the message is needed and when a second condition is satisfied. Thus, when the message is needed no further or very little processing must be performed to generate and send the message. The client and/or network device may allocate a separate, unused, or under-utilized processing thread to the task of creating pre-marshalled messages. Pre-marshalled messages may be stored in memory at the network device until it is determined that the second condition has been satisfied. Once a pre-marshalled message is sent, the unused pre-marshalled messages that were stored in memory may be deleted or may be overwritten with newly pre-marshalled messages.

Abstract: System and methods for pre-marshalling messages in an electronic trading environment are provided. Specifically, pre-marshalling messages allows for client and network devices to create messages in response to a defined first condition. Pre-marshalling messages allows a trading system to do more processing up front before the message is needed and when a second condition is satisfied. Thus, when the message is needed no further or very little processing must be performed to generate and send the message. The client and/or network device may allocate a separate, unused, or under-utilized processing thread to the task of creating pre-marshalled messages. Pre-marshalled messages may be stored in memory at the network device until it is determined that the second condition has been satisfied. Once a pre-marshalled message is sent, the unused pre-marshalled messages that were stored in memory may be deleted or may be overwritten with newly pre-marshalled messages.

Abstract: Systems and methods for optimizing order placement in an electronic trading environment are provided. Global queue holder orders are placed in a tradeable object to reserve quantity for traders. Traders may submit order requests for quantity at price levels at which a global queue holder order is holding quantity. When a trader submits an order for a quantity at a price level at which quantity is being held, a gateway compares the order to the global queue holder order information stored in a database. If the trader's order coincides with a price level at which quantity is held, then the gateway virtually transfers ownership of that quantity to the trader, who then assumes the advantageous queue position. When the quantity associated with the order is filled, the fill information is sent to the gateway, which to the database to determine which trader is associated with the filled order quantity.

Abstract: Systems and methods for optimizing order placement in an electronic trading environment are provided. Global queue holder orders are placed in a tradeable object to reserve quantity for traders. Traders may submit order requests for quantity at price levels at which a global queue holder order is holding quantity. When a trader submits an order for a quantity at a price level at which quantity is being held, a gateway compares the order to the global queue holder order information stored in a database. If the trader's order coincides with a price level at which quantity is held, then the gateway virtually transfers ownership of that quantity to the trader, who then assumes the advantageous queue position. When the quantity associated with the order is filled, the fill information is sent to the gateway, which to the database to determine which trader is associated with the filled order quantity.

Abstract: Systems and methods for optimizing order placement in an electronic trading environment are provided. Global queue holder orders are placed in a tradeable object to reserve quantity for traders. Traders may submit order requests for quantity at price levels at which a global queue holder order is holding quantity. When a trader submits an order for a quantity at a price level at which quantity is being held, a gateway compares the order to the global queue holder order information stored in a database. If the trader's order coincides with a price level at which quantity is held, then the gateway virtually transfers ownership of that quantity to the trader, who then assumes the advantageous queue position. When the quantity associated with the order is filled, the fill information is sent to the gateway, which to the database to determine which trader is associated with the filled order quantity.

Abstract: Systems and methods for optimizing order placement in an electronic trading environment are provided. Global queue holder orders are placed in a tradeable object to reserve quantity for traders. Traders may submit order requests for quantity at price levels at which a global queue holder order is holding quantity. When a trader submits an order for a quantity at a price level at which quantity is being held, a gateway compares the order to the global queue holder order information stored in a database. If the trader's order coincides with a price level at which quantity is held, then the gateway virtually transfers ownership of that quantity to the trader, who then assumes the advantageous queue position. When the quantity associated with the order is filled, the fill information is sent to the gateway, which to the database to determine which trader is associated with the filled order quantity.