Qualcomm Intros Two Snapdragon S4 Play Processors
Qualcomm today announced the addition of two more processors to its line of Snapdragon S4 Play chips. Both the MSM8225Q and MSM8625Q are updates to previous processors and now support four cores instead of two. These quad-core processors include LPDDR2 memory, which boosts bus bandwidth for intensive video encode/decode on 720p HD displays. The MSM8625Q supports Qualcomm's multimode UMTS/CDMA modem, and the MSM8225Q supports Qualcomm's UMTS modem. The processors also include Wi-Fi, Bluetooth 4.0, and FM radios. These processors are meant to help smartphone makers migrate designs based on S1 processors to S4 processors, meaning they are for entry-level, high-volume smartphones. Qualcomm also announced the Snapdragon S4 Plus MSM8930, which supports Chinese operators' LTE-TDD and TD-SCDMA networks. All three chipsets will be sampling by the end of the year, and are expected to ship during the first quarter of 2013.
Qualcomm Renames 600 Series Snapdragon Chips
Qualcomm has changed the names of two 600 series Snapdragon processors. Specifically, the Snapdragon 620 and Snapdragon 618 will now be called the Snapdragon 652 and Snapdragon 650.
Qualcomm Debuts New Snapdragon Processors
Qualcomm recently unveiled two new mobile application processors, the Snapdragon 412 and the Snapdragon 212. Both chips are updates to previous designs, the Snapdragon 410 and Snapdragon 210, respectively.
Qualcomm Intros New Snapdragon CPUs and LTE Modems
Qualcomm today announced a series of new application processors for mobile devices, including the Snapdragon 620, 618, 425, and 415. Both the Snapdragon 600 series and 400 series receive new features previously reserved for higher-class processors.
Qualcomm's Snapdragon 450 Platform Jumps to 14nm Process
Qualcomm today announced the Snapdragon 450 Platform, a new entry in its mid-tier range of processors for high-volume devices. The Snapdragon 450 is the first 400 series chip to make use of Qualcomm's 14nm process, which provides it with noticeable performance and efficiency gains over earlier chips.