Abstract: A base station of a mobile communication network supports continuity of a Multimedia Broadcast Multicast Service, MBMS, for a terminal. The base station receives, from the terminal, an information element informing the base station of a combination of bands, which the terminal supports for carrier aggregation. The terminal supports MBMS reception on any carrier configurable as a serving cell for the terminal according to the information element. The base station derives, from the received information element, MBMS reception capabilities of the terminal. The base station determines a number of carriers, which are configurable by the base station as serving cell of the terminal, such that the terminal is enabled to receive at least one MBMS.

Abstract: Stacked transistor structures and methods of forming same. In an embodiment, a stacked transistor structure has a wide central pedestal region and at least one relatively narrower channel region above and/or below the wider central pedestal region. The upper and lower channel regions are configured with a non-planar architecture, and include one or more semiconductor fins, nanowires, and/or nanoribbons. The top and bottom channel regions may be configured the same or differently, with respect to shape and/or semiconductor materials. In some cases, an outermost sidewall of one or both the top and/or bottom channel region structures, is collinear with an outermost sidewall of the wider central pedestal region. In some such cases, the outermost sidewall of the top channel region structure is collinear with the outermost sidewall of the bottom channel region structure. Top and bottom transistor structures (NMOS/PMOS) may be formed using the top and bottom channel region structures.

Abstract: Stacked transistor structures having a conductive interconnect between source/drain regions of upper and lower transistors. In some embodiments, the interconnect is provided, at least in part, by highly doped epitaxial material deposited in the upper transistor's source/drain region. In such cases, the epitaxial material seeds off of an exposed portion of semiconductor material of or adjacent to the upper transistor's channel region and extends downward into a recess that exposes the lower transistor's source/drain contact structure. The epitaxial source/drain material directly contacts the lower transistor's source/drain contact structure, to provide the interconnect. In other embodiments, the epitaxial material still seeds off the exposed semiconductor material of or proximate to the channel region and extends downward into the recess, but need not contact the lower contact structure.

Abstract: A stacked transistor architecture has a fin structure that includes lower and upper portions separated by an isolation region built into the fin structure. Upper and lower gate structures on respective upper and lower fin structure portions may be different from one another (e.g., with respect to work function metal and/or gate dielectric thickness). One example methodology includes depositing lower gate structure materials on the lower and upper channel regions, recessing those materials to re-expose the upper channel region, and then re-depositing upper gate structure materials on the upper channel region. Another example methodology includes depositing a sacrificial protective layer on the upper channel region. The lower gate structure materials are then deposited on both the exposed lower channel region and sacrificial protective layer.

Abstract: Embodiments herein describe techniques for an integrated circuit (IC). The IC may include a first transistor, an insulator layer above the first transistor, and a second transistor above the insulator layer. The first transistor may be a p-type transistor including a channel in a substrate, a first source electrode, and a first drain electrode. A first metal contact may be coupled to the first source electrode, while a second metal contact may be coupled to the first drain electrode. The insulator layer may be next to the first metal contact, and next to the second metal contact. The second transistor may include a second source electrode, and a second drain electrode. The second source electrode may be coupled to the first metal contact, or the second drain electrode may be coupled to the second metal contact. Other embodiments may be described and/or claimed.

Abstract: Stacked transistor structures having a conductive interconnect between upper and lower transistors. In an embodiment, the interconnect is formed by first provisioning a protective layer over an area to be protected (gate dielectric or other sensitive material) of upper transistor, and then etching material adjacent and below the protected area to expose an underlying contact point of lower transistor. A metal is deposited into the void created by the etch to provide the interconnect. The protective layer is resistant to the etch process and is preserved in the structure, and in some cases may be utilized as a work-function metal. In an embodiment, the protective layer is formed by deposition of reactive semiconductor and metal material layers which are subsequently transformed into a work function metal or work function metal-containing compound. A remnant of unreacted reactive semiconductor material may be left in structure and collinear with protective layer.

Abstract: In certain embodiments, a method of operating a wireless communication device comprises receiving a narrowband secondary synchronization signal (NSSS) in a discovery reference signal (DRS), identifying a transformation applied to the NSSS, and determining a DRS periodicity based on the identified transformation.

Abstract: A communication device (10) detects a need to transmit data to an access node (100) of a cellular network. In response to detecting this need, the communication device (10) performs a selection between a scheduled transmission of the data to the access node (100) and an unscheduled transmission of the data to the access node (100). In case of the scheduled transmission, the communication device (10) requests allocation of radio resources by the cellular network, in response to this requesting, receives an indication of allocated radio resources from the cellular network, and performs a radio transmission on the allocated radio resources to send the data to the access node (100). In case of the unscheduled transmission, the communication device (10) performs a radio transmission on further radio resources to send the data to the access node (100), without requesting allocation of radio resources by the cellular network.

Abstract: A base station of a mobile communication network supports continuity of a Multimedia Broadcast Multicast Service, MBMS, for a terminal. The base station receives, from the terminal, an information element informing the base station of a combination of bands, which the terminal supports for carrier aggregation. The terminal supports MBMS reception on any carrier configurable as a serving cell for the terminal according to the information element. The base station derives, from the received information element, MBMS reception capabilities of the terminal. The base station determines a number of carriers, which are configurable by the base station as serving cell of the terminal, such that the terminal is enabled to receive at least one MBMS.

Abstract: The present disclosure relates to a technique for configuring transmission of a multicast channel carrying scheduling information and data belonging to one or more multicast services, the scheduling information indicating scheduling of the multicast services mapped to the multicast channel. A method embodiment comprises the steps of configuring (404) the transmission of the scheduling information on the multicast channel based on a scheduling information specific transmission requirement and configuring (404) the transmission of the data belonging to the one or more multicast services based on a service specific transmission requirement; and signalling (406) the scheduling information specific transmission requirement and the service specific transmission requirement.

Abstract: The present disclosure relates to a technique for configuring transmission of a multicast channel carrying scheduling information and data belonging to one or more multicast services, the scheduling information indicating scheduling of the multicast services mapped to the multicast channel. A method embodiment comprises the steps of configuring (404) the transmission of the scheduling information on the multicast channel based on a scheduling information specific transmission requirement and configuring (404) the transmission of the data belonging to the one or more multicast services based on a service specific transmission requirement; and signalling (406) the scheduling information specific transmission requirement and the service specific transmission requirement.

Abstract: Disclosed herein are stacked transistors with different gate lengths in different device strata, as well as related methods and devices. In some embodiments, an integrated circuit structure may include stacked strata of transistors, with two different device strata having different gate lengths.

Abstract: A calibration system for a food processing machine has a conveyor for conveying a workpiece, scanning system for scanning the workpiece and creating a digital image of the workpiece, and a cutting device downstream from the scanning system for cutting the workpiece. A calibration object is conveyed through the food processing machine by the conveyor and scanned. A controller, with a memory, is in communication with the cutting device and the conveyor such that the controller can track position of the cutting device as the cutting device is moved into alignment with the calibration object and store calibration values on the memory corresponding to the movement of the cutting device into alignment with the calibration object. The controller is configured to calibrate movement of the cutting device relative to the workpiece based on the digital image of the workpiece and the calibration values to thereafter accurately cut the workpiece.

Abstract: A network node for wireless access is operating in a cellular network for an unlicensed frequency band and arranged for serving wireless devices in the unlicensed frequency band. The serving of the wireless devices in the unlicensed band relies on making a clear channel assessment in the unlicensed band for ascertaining that the unlicensed band is currently not occupied by other transmissions and when not occupied commencing transmission. Upon commencing the transmission, the network node is arranged to attempt scheduling a paging message together with a message providing a discovery signal and determine whether the transmission of the discovery signal and the paging message use the same subframe scrambling code, and if they do, transmit the paging message and the discovery signal in the same subframe. A method and computer program for the network node are also disclosed.

Abstract: A method in a multicast coordination entity is disclosed. The method comprises configuring a multimedia broadcast multicast service single frequency network (MBSFN) area, the MBSFN area comprising one or more cells, and receiving, from one or more network nodes, cell state information for the one or more cells, the cell state information indicating whether the one or more cells are active or inactive. The method further comprises determining, based on the cell state information, a modulation and coding scheme for an MBSFN transmission, and communicating the MBSFN area configuration and the determined modulation and coding scheme for the MBSFN transmission to the one or more network nodes.

Abstract: In one aspect, a wireless device monitors radio link quality for a link between the wireless device and a wireless transmitter that is configured to transmit a discovery signal at spaced, periodic, intervals and that is further configured to intermittently transmit subframes carrying user data, such that the wireless device is unable to predict which subframes will carry user data before attempting to detect the subframes. The wireless device collects, for each of the spaced, periodic, intervals, discovery-signal signal quality metrics corresponding to the discovery signal. The wireless device also collects, for each detected subframe carrying user data, detected-subframe signal quality metrics corresponding to the detected subframe.

Abstract: Systems and methods relating to Discovery Signal Measurement Timing Configuration (DMTC) are disclosed. In some embodiments, a method of operating a radio access node in a cellular communications network having a primary cell and a secondary cell, comprises sending, to a wireless device, a DMTC for one of a group consisting of: (a) the secondary cell configured for the wireless device such that the DMTC is a specific DMTC for the secondary cell; and (b) the primary cell and additional cells that are configurable as secondary cells such that the DMTC applies to both the primary cell and the additional cells when configured as secondary cells. Related radio access nodes and wireless devices are also disclosed.

Abstract: A method and a radio network node for managing a request for a radio access bearer. The radio network node determines a first value relating to utilization of radio resources in a first set of subframes. The first set of subframes includes a second set of subframes, dedicated for transmission by the radio network node to multiple radio communication devices, and a third set of subframes. The radio network node determines a second value relating to utilization of radio resources in the third set of subframes. The radio network node receives the request and obtains an indication relating to a capability of a radio communication device to receive transmission in one or more of the second set of subframes. The radio network node determines a response to the request based on the first value, the second value and the indication, and sends the response to the network node.

Abstract: Systems, methods, devices and computer-readable mediums are disclosed for parking event detection and location estimation. In some implementations, a method comprises: determining, by a processor of a mobile device, a first activity state indicative of a possible parking event; obtaining, by the processor, a speed of the mobile device from a global navigation satellite system (GNSS) of the mobile device; obtaining, by the processor, pedometer data from a digital pedometer of the mobile device; determining, by the processor, a second activity state indicative of a possible parking event based at least in part on the GNSS speed and pedometer data; and responsive to the second activity state, estimating, by the processor, a location of the vehicle.

Abstract: A base station of a mobile communication network supports continuity of a Multimedia Broadcast Multicast Service, MBMS, for a terminal. The base station receives, from the terminal, an information element informing the base station of a combination of bands, which the terminal supports for carrier aggregation. The terminal supports MBMS reception on any carrier configurable as a serving cell for the terminal according to the information element. The base station derives, from the received information element, MBMS reception capabilities of the terminal. The base station determines a number of carriers, which are configurable by the base station as serving cell of the terminal, such that the terminal is enabled to receive at least one MBMS.