Abstract: A temperature exposure detection system includes a plurality of nonvolatile memory cells. The memory includes memory read circuitry for reading the plurality of memory cells to determine a data retention error rate of the plurality of memory cells. The temperature exposure detection system determines a temperature exposure of the system based on the determined data retention error rate.

Abstract: A temperature exposure detection system includes a plurality of nonvolatile memory cells. The memory includes memory read circuitry for reading the plurality of memory cells to determine a data retention error rate of the plurality of memory cells. The temperature exposure detection system determines a temperature exposure of the system based on the determined data retention error rate.

Abstract: Non-volatile floating gate devices and approaches involve setting or maintaining threshold voltage characteristics relative to thermal processing. In connection with various embodiments, a floating gate device includes a polycrystalline silicon material having an impurity therein. The impurity interacts with the polycrystalline material to resist changes in grain size of the polycrystalline silicon material during thermal processing, and setting charge storage characteristics relative to threshold voltages for the floating gate device.

Abstract: A method for manufacturing on a substrate a semiconductor device with a floating-gate and a control-gate. The method includes the steps of first forming an isolation zone in the substrate, and thereafter forming the floating gate on the substrate. The method further includes extending the floating gate using spacers, and then forming the control gate over the floating gate and the spacers.

Abstract: Non-volatile floating gate devices and approaches involve setting or maintaining threshold voltage characteristics relative to thermal processing. In connection with various embodiments, a floating gate device includes a polycrystalline silicon material having an impurity therein. The impurity interacts with the polycrystalline material to resist changes in grain size of the polycrystalline silicon material during thermal processing, and setting charge storage characteristics relative to threshold voltages for the floating gate device.

Abstract: A non-volatile memory cell (200) comprising a floating gate transistor (206) comprising a floating gate (10) positioned between a control gate (14) and a first channel region (232) and an access gate transistor (208) comprising an access gate (22) and a second channel region (234), the first channel region (232) comprising a first implant (242) with a first dosage level (234), and the second channel region comprising a second implant (244) having a second dosage level, the first dosage level being less than the second dosage level.

Abstract: A method for manufacturing on a substrate a semiconductor device with improved floating-gate to control-gate coupling ratio is described. The method comprises the steps of first forming an isolation zone in the substrate, thereafter forming the floating gate on the substrate, thereafter extending the floating gate using polysilicon spacers, and thereafter forming the control gate over the floating gate and the polysilicon spacers. Such a semiconductor device may be used in flash memory cells or EEPROMs.

Abstract: A method for manufacturing on a substrate a semiconductor device with a floating-gate and a control-gate. The method includes the steps of first forming an isolation zone in the substrate, and thereafter forming the floating gate on the substrate. The method further includes extending the floating gate using spacers, and then forming the control gate over the floating gate and the spacers.

Abstract: A method for manufacturing on a substrate (24) a semiconductor device with improved floating-gate to control-gate coupling ratio is described. The method comprises the steps of first forming an isolation zone (22) in the substrate (24), thereafter forming the floating gate (28) on the substrate (24), thereafter extending the floating gate (28) using polysilicon spacers (40), and thereafter forming the control gate (44) over the floating gate (28) and the polysilicon spacers (40). Such a semiconductor device may be used in flash memory cells or EEPROMs.

Abstract: A method for manufacturing on a substrate (24) a semiconductor device with improved floating-gate to control-gate coupling ratio is described. The method comprises the steps of first forming an isolation zone (22) in the substrate (24), thereafter forming the floating gate (28) on the substrate (24), thereafter extending the floating gate (28) using polysilicon spacers (40), and thereafter forming the control gate (44) over the floating gate (28) and the polysilicon spacers (40). Such a semiconductor device may be used in flash memory cells or EEPROMs.

Abstract: Method of manufacturing a semiconductor device, including a first baseline technology electronic circuit (1) and a second option technology electronic circuit (2) as functional parts of a system-on-chip, by: manufacturing the first electronic circuit (1) with a first conductive layer (6; 6) that is patterned by subjecting an exposed layer portion thereof to Reactive Ion Etching (RIE); manufacturing the second electronic circuit (2) with a second conductive layer (6; 8) that is patterned by subjecting an exposed layer portion thereof to RIE; providing a tile structure (25; 26); providing the tile structure (25; 26) with at least one dummy conductive layer (6; 8) produced in the same processing step as the second conductive layer (6; 8); and exposing the dummy conductive layer (6; 8), at least partially, to obtain an exposed dummy layer portion, and RIE-etching of that exposed portion too when the second (6; 8) conductive layer is subjected to RIE.

Abstract: The invention relates to a semiconductor device having a byte-erasable EEPROM memory comprising a matrix of rows and columns of memory cells. In order to provide a semiconductor device having a byte-erasable EEPROM which has a reduced chip size and increased density and which is suitable for low-power applications it is proposed according to the present invention that the memory cells each comprise a selection transistor having a selection gate and, arranged in series therewith, a memory transistor having a floating gate and a control gate, the selection transistor being further connected to a source line of the byte-erasable EEPROM memory, which source line is common for a plurality of memory cells, and the memory transistor being further connected to a bit line of the byte-erasable EEPROM memory, wherein the columns of memory cells are located in separate p-type wells separated by n-type wells.

Abstract: Method of manufacturing a semiconductor device, including a first baseline technology electronic circuit (1) and a second option technology electronic circuit (2) as functional parts of a system-on-chip, by:

Abstract: Semiconductor device having on a single substrate (1) at least one memory cell (3) and at least one logic transistor (25); the at least one memory cell having a floating gate (5), a tunnel oxide layer (11) between the floating gate and the substrate (1), a control gate (15), and a control oxide layer (13) between the control gate (15) and the floating gate (5); the at least one logic transistor (25) having a logic transistor gate (5′, 15″) and a logic transistor gate oxide (11″) between the logic transistor gate (5′, 15″) and the substrate (1), the tunnel oxide layer (11) of the memory cell (3) and the logic transistor gate oxide (11″) having a same or substantially same predetermined first thickness. The invention also relates to a method of manufacturing such a device and to such a device that also comprises a high voltage transistor (17) which is optionally made so as to be an integral part of at least the memory cell (3).

Abstract: Semiconductor device having on a single substrate (1) at least one memory cell (3) and at least one logic transistor (25);

Abstract: A memory cell including: (a) a semiconductor substrate (1) provided with first and second diffusion layers (8); (b) a floating gate (11) on a floating gate insulating film (9); (c) a selection gate (4) on a selection gate insulating film (2); (d) a control gate (13) on a control gate insulating film (12); (e) the first and second diffusion layers (8) being arranged as the source and the drain of a field effect transistor structure, and the floating gate (11), selection gate (4) and control gate (13) being arranged as series field effect gates in the field effect transistor structure.

Abstract: The invention relates to a semiconductor device comprising a semiconductor body (10) which is provided with an active semiconductor region (12) which borders on a surface (11) of said semiconductor body, which active semiconductor region is provided with a non-volatile memory cell comprising a source zone and a drain zone (29), a select gate (18), and a stacked gate structure (32) comprising a floating gate (26) and a control gate (25). The stacked gate extends above the select gate and covers a side wall (33) of said select gate, which side wall extends at least substantially perpendicularly to the surface of the semiconductor body. The stacked gate structure is insulated from the select gate by a layer of an insulating material (19, 35) that is applied to the select gate.

Abstract: A semiconductor device comprising an EEPROM and a FLASH-EPROM memory is described. The EEPROM memory comprises a matrix of memory cells (ME) with a selection transistor (T2) having a selection gate (3) and arranged in series with a memory transistor (T1) having a floating gate (1) and a control gate (2). The selection transistor is also connected to a bit line (BL) and the memory transistor is also connected to a common source line (SO) of the EEPROM memory. The FLASH-EPROM memory comprises a matrix of memory cells (MF) with a memory transistor (T3) having a floating gate (4) and a control gate (5). The memory cells of the FLASH-EPROM memory also comprise a transistor (T4) having a control gate (6) connected in series with the memory cell. The memory transistor is also connected to a bit line, and the transistor, which is connected in series with the memory transistor, is also connected to a common source line (SO) of the FLASH-EPROM memory.

Abstract: A memory cell including:

Abstract: Semiconductor device having on a single substrate (1) at least one memory cell (3) and at least one logic transistor (25);