Abstract: A system (100) for processing simplex and multiplexed voice packets transmitted over a network is disclosed. The system (100) may include a processor (102) and a compare section (104). A compare section (104) may include simplex entries (110-0) and multiplex entries (110-1). The compare section (104) can compare voice packet information with simplex entries (110-0) and multiplex entries (110-1) simultaneously to correlate voice packet data with a given voice channel.

Abstract: A system for transmitting real-time data between an asynchronous network (104) and a synchronous network (106) is disclosed. A method (100) may include an ingress path (102) for transmitting data from an asynchronous system (104) to a synchronous system (106), and an egress path (108) for transmitting data from a synchronous system (106) to an asynchronous system (104). An ingress path (102) may include a packet receiver (110) and write to synchronous system (112) steps. An egress path (108) may include read from synchronous system (114), packetizer (116), and packet transmitter (118) steps.

Abstract: A system (100) is disclosed that may transfer voice data from multiple channels between an asynchronous data network (102) and a synchronous data network (104). A system (100) may include an egress block and associated structures (200) and/or an ingress block and associated structures (900). An egress block (200) may read voice channel data from a local buffer (206) and write such data to a voice packet buffer memory (VPBM) (204). At least a portion of a VPBM write address may be generated from a time stamp value. An ingress block (900) may read voice channel data from a jitter buffer (918) and write such data to a local buffer (906). At least a portion of a jitter buffer read address may be generated from a time stamp value.

Abstract: A system (100) for processing simplex and multiplexed voice packets transmitted over a network is disclosed. The system (100) may include a processor (102) and a compare section (104). A compare section (104) may include simplex identification (ID) entries (110–0) and multiplex ID entries (110-1). The compare section (104) can compare voice packet information with simplex ID entries (110-0) and multiplex ID entries (110-1) to correlate voice packet data with a give voice channel.

Abstract: A system (100) is disclosed that may transfer voice data from multiple channels between an asynchronous data network (102) and a synchronous data network (104). A system (100) may include an egress block and associated structures (200) and/or an ingress block and associated structures (900). An egress block (200) may read voice channel data from a local buffer (206) and write such data to a voice packet buffer memory (VPBM) (204). At least a portion of a VPBM write address may be generated from a time stamp value. An ingress block (900) may read voice channel data from a jitter buffer (918) and write such data to a local buffer (906). At least a portion of a jitter buffer read address may be generated from a time stamp value.

Abstract: According to one embodiment, a system (100) can include a number of processor subsystems (102-0 to 102-3) that can receive voice data samples from a network structure (NET A) and store the voice data samples in corresponding channel memories (120-0 to 120-3). Information for the voice data samples, including address locations, can be included in bin linked-lists (126-0 to 126-3). Bin linked-lists (120-0 to 120-3) can allow voice data samples in different channel memories (120-0 to 120-3) to be transmitted in a single multiplexed network voice packet.

Abstract: According to one embodiment, a system (900) includes a content addressable memory (CAM) address system (910) that receives voice packet data, and in response thereto, generates a channel number value (CHANNEL#). The CHANNEL# value can be used to generate a base address value for a voice packet buffer memory system (912). A base address value will correspond to a particular voice channel. The use of the CAM address system (910) can enable processing of voice data packets “on-the-fly,” allowing for rapid processing of voice data transmitted over a network structure and/or result in more efficient use of a buffer memory that stores voice data.