Claims Analysis
Total Claims: 12
Claim 1
Independent Claim
205 words
A Synchronous memory device adapted to receive a free running clock input signal, comprising: a plurality of addressable memory data storage cells arranged in rows and columns; a row address strobe (RAS) input adapted to receive a RAS signal which enables a row address latch to receive a row address in response to the clock signal; a byte enable (BE) input adapted to receive a BE signal which enables the burst access memory to output data in a read cycle and to store data in a write cycle, the BE signal also selecting between an access cycle and a refresh cycle; a column address circuit; and a burst control (BC) input adapted to receive a BC signal, a first state of the BC signal enabling said column address circuit to receive a column address in response to the clock signal such that the memory operates in a non-burst mode where column address are provided externally, and a second state of the BC signal enabling said column address circuit to generate additional column addresses in response to the clock signal such that the memory operates in a burst mode, without a separate column address strobe (CAS) signal in both the first state and the second state.
Claim 2
Dependent Claim
205 words
A Synchronous memory device adapted to receive a free running clock input signal, comprising: a plurality of addressable memory data storage cells arranged in rows and columns; a row address strobe (RAS) input adapted to receive a RAS signal which enables a row address latch to receive a row address in response to the clock signal; a byte enable (BE) input adapted to receive a BE signal which enables the burst access memory to output data in a read cycle and to store data in a write cycle, the BE signal also selecting between an access cycle and a refresh cycle; a column address circuit; and a burst control (BC) input adapted to receive a BC signal, a first state of the BC signal enabling said column address circuit to receive a column address in response to the clock signal such that the memory operates in a non-burst mode where column address are provided externally, and a second state of the BC signal enabling said column address circuit to generate additional column addresses in response to the clock signal such that the memory operates in a burst mode, without a separate column address strobe (CAS) signal in both the first state and the second state.
Claim 3
Dependent Claim
31 words
The burst access memory device of claim 1, wherein the BE signal selects between an access cycle and a refresh cycle within one clock period of receipt of the row address.
Claim 4
Dependent Claim
40 words
The burst access memory device of claim 1, further having inputs consisting essentially of: at least one supply input; at least one ground input; a write enable input; a plurality of address inputs; and a plurality of data input/output nodes.
Claim 5
Dependent Claim
160 words
A Synchronous memory device comprising: a plurality of addressable memory data storage cells arranged in rows and columns; a supply input; a ground input; an address input; a dat input/output; and a plurality of control signal inputs consisting essentially of: a write enable input; a byte enable input; a row address strobe input; a clock input for a clock signal; and a burst control (BC) input adapted to receive a BC signal, a first state of the BC signal enabling a column address circuit to receive a column address in response to the clock signal such that the memory operates in a non-burst mode where column address are provided externally, and a second state of the BC signal enabling the column address circuit to generate additional column addresses in response to the clock signal such that the memory operates in a burst mode, without a separate column address strobe (CAS) signal in both the first state and the second state.
Claim 6
Dependent Claim
160 words
A Synchronous memory device comprising: a plurality of addressable memory data storage cells arranged in rows and columns; a supply input; a ground input; an address input; a dat input/output; and a plurality of control signal inputs consisting essentially of: a write enable input; a byte enable input; a row address strobe input; a clock input for a clock signal; and a burst control (BC) input adapted to receive a BC signal, a first state of the BC signal enabling a column address circuit to receive a column address in response to the clock signal such that the memory operates in a non-burst mode where column address are provided externally, and a second state of the BC signal enabling the column address circuit to generate additional column addresses in response to the clock signal such that the memory operates in a burst mode, without a separate column address strobe (CAS) signal in both the first state and the second state.
Claim 7
Dependent Claim
33 words
The memory device of claim 4, wherein a byte enable signal received by said byte enable input is operative to select between a refresh cycle and an access cycle of the memory device.
Claim 8
Dependent Claim
25 words
The memory device of claim 5, wherein the byte enable signal is further adapted to enable data input and data output of the memory device.
Claim 9
Independent Claim
214 words
An apparatus comprising: a burst access memory device adapted to receive a free running clock input signal, said burst access memory device comprising: a plurality of addressable memory data storage cells arranged in rows and columns; a row address strobe (RAS) input adapted to receive a RAS signal which enables a row address latch to receive a row address in response to the clock signal; a byte enable (BE) input adapted to receive a BE signal which enables the burst access memory to output data in a read cycle and to store data in a write cycle, the BE signal also selecting between an access cycle and a refresh cycle; a column address circuit; and a burst control (BC) input adapted to receive a BC signal, a first state of the BC signal enabling said column address circuit to receive a column address in response to the clock signal such that the memory operates in a non-burst mode where column address are provided externally, and a second state of the BC signal enabling said column address circuit to generate additional column addresses in response to the clock signal such that the memory operates in a burst mode, without a separate column address strobe (CAS) signal in both the first state and the second state.
Claim 10
Independent Claim
214 words
An apparatus comprising: a burst access memory device adapted to receive a free running clock input signal, said burst access memory device comprising: a plurality of addressable memory data storage cells arranged in rows and columns; a row address strobe (RAS) input adapted to receive a RAS signal which enables a row address latch to receive a row address in response to the clock signal; a byte enable (BE) input adapted to receive a BE signal which enables the burst access memory to output data in a read cycle and to store data in a write cycle, the BE signal also selecting between an access cycle and a refresh cycle; a column address circuit; and a burst control (BC) input adapted to receive a BC signal, a first state of the BC signal enabling said column address circuit to receive a column address in response to the clock signal such that the memory operates in a non-burst mode where column address are provided externally, and a second state of the BC signal enabling said column address circuit to generate additional column addresses in response to the clock signal such that the memory operates in a burst mode, without a separate column address strobe (CAS) signal in both the first state and the second state.
Claim 11
Dependent Claim
17 words
The apparatus according to claim 7, further comprising a microprocessor coupled to said burst access memory device.
Claim 12
Dependent Claim
13 words
The apparatus according to claim 7, wherein the apparatus is a memory module.