Abstract: In a wireless communication system, a first Base Station (BS) receives control information including information related to transmission of a Reference Signal (RS) of at least one second BS from the at least one second BS which corresponds to an adjacent BS of the first BS, and transmits the RS by using a preset scheme of controlling interference based on the received control information.

Abstract: A cooking apparatus includes a cavity unit having a cooking chamber therein; a door on the cavity unit, opening and closing an opening of the cavity unit; a heater in at least one of upper, rear and lower parts of the cavity unit, generating hot air to be supplied to the cooking chamber; a cooking container including a housing unit which has an entrance through which hot air enters, and a support unit on the housing unit and on which one or more cooking objects to be cooked by the hot air are placed; and an agitation unit configured to directly contact the cooking object(s) placed on the cooking container, and mix or turn the cooking object.

Abstract: A cooking container for an electronic oven includes a housing unit having an entrance through which hot air enters; and a support unit on the housing unit, configured to have placed thereon one or more cooking objects to be cooked by the hot air.

Abstract: A cooking container for an electronic oven includes a housing unit having an entrance through which hot air enters; and a support unit on the housing unit, configured to have placed thereon one or more cooking objects to be cooked by the hot air.

Abstract: A cooking apparatus includes a cavity unit having a cooking chamber therein; a door on the cavity unit, opening and closing an opening of the cavity unit; a heater in at least one of upper, rear and lower parts of the cavity unit, generating hot air to be supplied to the cooking chamber; a cooking container including a housing unit which has an entrance through which hot air enters, and a support unit on the housing unit and on which one or more cooking objects to be cooked by the hot air are placed; and an agitation unit configured to directly contact the cooking object(s) placed on the cooking container, and mix or turn the cooking object.

Abstract: A cooking apparatus includes a cavity unit having a cooking chamber therein, and a rear wall plate with an introduction hole section therein; a door unit on the cavity unit, configured to open and close an opening of the cavity unit; a convection heater unit on the rear wall plate, configured to generate heat to be supplied to the cooking chamber through the introduction hole section; and an introduction opening and closing unit configured to open and close the introduction hole section and control an amount of heat to be supplied to the cooking chamber.

Abstract: A cooking apparatus includes a cavity unit having a cooking chamber, a top wall plate with an upper heater hole section, a bottom wall plate with a lower heater hole section, and a rear wall plate with an introduction hole section; a door on or over the cavity unit, configured to open and close an opening of the cavity unit; an upper heater unit on the top wall plate, configured to supply heat and/or hot air to the cooking chamber through the upper heater hole section; a lower heater unit on the bottom wall plate, configured to supply heat and/or hot air to the cooking chamber through the lower heater hole section; and a convection heater unit on the rear wall plate, configured to supply heat and/or hot air to the cooking chamber through the introduction hole section.

Abstract: A cooking apparatus includes a cavity unit having therein a cooking chamber and a rear wall plate with an introduction hole section and a discharge hole section; a door on or over the cavity unit, configured to open and close an opening of the cavity unit; and a convection heater unit on or behind the rear wall plate, heating air from the cavity unit through the discharge hole section, and supplying hot air to the cooking chamber through the introduction hole section, wherein the introduction hole section is in a lower part of the rear wall plate, and the discharge hole section is in an upper part of the rear wall plate, separate from the introduction hole section.

Abstract: A cooking apparatus includes a cavity unit having a cooking chamber therein, a side wall plate with a discharge hole section, and a bottom wall plate with a lower heater hole section; a door on or over the cavity unit, configured to open and close an opening of the cavity unit; a circulation duct unit connected to the discharge hole section, configured to guide air from the cooking chamber through the discharge hole section, and back to the cooking chamber; and a lower heater unit on or below the bottom wall plate.

Abstract: A cooking apparatus includes a cavity unit having a cooking chamber therein, a side wall plate with a discharge hole section, and a top wall plate with an upper heater hole section; a door on or over the cavity unit, configured to open and close an opening of the cavity unit; a circulation duct unit connected to the discharge hole section, configured to guide air discharged from the cooking chamber through the discharge hole section and back to the cooking chamber; and an upper heater unit on or over the top wall plate.

Abstract: An apparatus and method for reducing power consumption of a receiver by performing a Hybrid Automatic Repeat reQuest (HARQ) according to a detected decoding error are provided. The apparatus includes a decoding reliability metric generator for setting a decoding result as a decoding reliability metric, which is a reference value for determining a code block having a decoding error, based on a decoding result, a decoding reliability metric buffer for storing the decoding reliability metric set by the decoding reliability metric generator and a code block controller for, when the decoding error occurs, identifying code blocks having the decoding error by checking the decoding reliability metric and for controlling to decode the identified code blocks.

Abstract: In a wireless communication system, a first Base Station (BS) receives control information including information related to transmission of a Reference Signal (RS) of at least one second BS from the at least one second BS which corresponds to an adjacent BS of the first BS, and transmits the RS by using a preset scheme of controlling interference based on the received control information.

Abstract: Methods, a Base Station (BS), and a User Equipment (UE) in a wireless communication system for transmitting and receiving a signal are provided. The method for transmitting a signal by a first BS in a wireless communication system includes receiving control information including information related to transmission of a Reference Signal (RS) by one or more second BSs, from the one or more second BSs which are neighboring BSs of the first BS, and transmitting signals to a UE based on information as to a second resource identified in the received control information, wherein the second resource corresponds to an identical resource to that used by the one or more second BSs for transmitting the RS.

Abstract: Methods, a Base Station (BS), and a User Equipment (UE) in a wireless communication system for transmitting and receiving control information are provided. The method for transmitting control information by a BS in a wireless communication system includes receiving information related to a signal transmitted by a second BS that the second BS which is a neighboring BS of the first BS, determining whether a second UE using an identical resource to that used by a first UE included in a cell of the first BS exists within a cell of the second BS based on the received information, when the second UE exists, generating control information for controlling a signal transmitted to the second UE by the second BS based on the received information, and transmitting the generated control information to the first UE through a control channel.

Abstract: A method and apparatus for decoding a concatenated burst in a WiBro system are provided. A concatenated decoder fragments a received burst into fragment blocks, decodes at least one of the fragment blocks, and determines whether the decoded fragment block satisfies a circular state. A concatenated decoding controller determines burst quality information of the received burst according to a circular state check result on the decoded fragment block, and determines whether to stop decoding on the received burst according to the burst quality information.

Abstract: A decoding apparatus in an Orthogonal Frequency Division Multiple Access (OFDMA) mobile communication system is provided. In the apparatus comprises, a first combiner performs first combining on an input burst a first number of times. A deinterleaver deinterleaves an output of the first combiner and outputs a burst having a repeated structure. A second combiner performs second combining on the burst having the repeated structure a second number of times. A decoder decodes the combined burst. A signal detector stores a second internal memory state value of the decoder for an instance where a first decoded bit is extracted from the decoded data, stores a second internal memory state value of the decoder for an instance where a last decoded bit is extracted from the decoded data, compares the first and second stored internal memory state values of the decoder, and sets a burst quality indicator (BQI) according to the comparison result.

Abstract: An apparatus and method for decoding low density parity check (LDPC) codes are provided. A memory module configured by a plurality of unit memories stores a reliability value. Variable node processors perform a computation associated with a variable node, and update data of the memory module in a column direction, respectively. Check node processors perform a computation associated with a check node, and update data of the memory module in a row direction, respectively. A parity checker determines if all errors have been corrected such that an iterative decoding process is performed. A memory access control module selects a unit memory to be updated by a variable node processor or a check node processor.

Abstract: A low density parity check (LDPC) code generating method and apparatus are provided. A parity check matrix with (N?K) rows for check nodes and N columns for variable nodes are formed to encode an information sequence of length K to a codeword of length N. The parity check matrix is divided into an information part matrix with K columns and a parity part matrix with (N?k) columns. The parity part is divided into P×P subblocks. P is a divisor of (N?K). First and second diagonals are defined in the parity part matrix and the second diagonal is a shift of the first diagonal by f subblocks. Shifted identity matrices are placed on the first and second diagonals and zero matrices are filled elsewhere. An odd number of delta matrices each having only one element of 1 are placed in one subblock column of the parity part matrix. The parity check matrix is stored.

Abstract: An apparatus and method for reducing power consumption of a receiver by performing a Hybrid Automatic Repeat reQuest (HARQ) according to a detected decoding error are provided. The apparatus includes a decoding reliability metric generator for setting a decoding result as a decoding reliability metric, which is a reference value for determining a code block having a decoding error, based on a decoding result, a decoding reliability metric buffer for storing the decoding reliability metric set by the decoding reliability metric generator and a code block controller for, when the decoding error occurs, identifying code blocks having the decoding error by checking the decoding reliability metric and for controlling to decode the identified code blocks.

Abstract: A method and apparatus are provided for decoding an LDPC code including a plurality of check nodes and a plurality of variable nodes. The apparatus includes a check node selection scheduler that selects at least one of the check nodes, an LLR memory that stores an input LLR value for the variable nodes as an initial LLR value and stores updated LLR values for variable nodes connected to the selected check node, and a check node message memory that stores a check node message indicating a result value of check node processing on the selected check node. The apparatus further includes at least one united node processor that generates a variable node message by subtracting the check node message of the selected check node from corresponding LLR values read from the LLR memory, performs check node processing on the variable node message, calculates an LLR value updated by adding the variable node message to the check node processing result value, and delivers the calculated LLR value to the LLR memory.