Abstract: Provided are a data sending method, a resource configuration method, a communication node and a storage medium. The data sending method includes: determining a reference time-domain resource; and in response to a first time-domain resource overlapping the reference time-domain resource and the start moment of the first time-domain resource being later than the start moment of the reference time-domain resource, sending supplementary data on a supplementary time-domain resource, where the first time-domain resource is a resource used by a first communication node to send at least one piece of first data, and the start moment of the supplementary time-domain resource is the same as the start moment of the reference time-domain resource.

Abstract: Provided are a resource selection method, a communication node, and a storage medium. The resource selection method being applied by a first communication node includes: in a case where a to-be-checked resource is excluded from an available resource set, determining an exclusion condition of the to-be-checked resource; and in a case where the exclusion condition satisfies a first preset condition, transmitting resource check indication information, where the first preset condition includes a condition associated with a carrier corresponding to the to-be-checked resource among multiple carriers of the first communication node.

Abstract: A method for processing a substrate comprises a) delivering a substrate to a pedestal of an electrostatic chuck (ESC) of a processing chamber; b) increasing a pressure in the processing chamber to a first predetermined pressure in a first predetermined pressure range; c) soaking the substrate at the first predetermined pressure for a first predetermined period without clamping the substrate; d) after the first predetermined period, ramping a clamping voltage supplied to the ESC to a first clamping voltage during a second predetermined period; e) after the second predetermined period, increasing the pressure in the processing chamber to a predetermined process pressure greater than the first predetermined pressure; and f) performing a treatment on the substrate at the predetermined process pressure.

Abstract: An electric off-road vehicle has a prime mover assembly with a drive motor and a gear reduction unit connected at a connection surface which is offset from a longitudinal midplane by a PMA connection surface offset within a range of 70 to 140mm. A drive shaft extends under the power battery and at least partially within a drive shaft accommodating recess of the power battery, while seating extends at least partially over the power battery. The seating is located at least partially forward of the power battery, with from 52 to 100% of the seating extending over the power battery in plan view. A heat transfer system for the power battery uses a liquid heat transfer medium. The heat transfer system includes a pump located rearward of the power battery and forward of a rear differential.

Abstract: Provided are a wireless energy transmission method and apparatus, a communication device and a storage medium. The method includes: transmitting an access request signal to a second code; and receiving a response signal from the second node. At least one of the access request signal or the response signal carries energy transmission related information.

Abstract: A resource attribute configuring method, comprising: configuring at least one frequency domain resource attribute mode; and transmitting configuration information of the at least one frequency domain resource attribute mode, wherein the configuration information is used to indicate a frequency domain resource attribute of a target time domain resource, and the frequency domain resource attribute of the target time domain resource meet one of the at least one frequency domain resource attribute mode.

Abstract: Provided are a data transmission method, a communication node, and a storage medium. The method includes acquiring resource pool configuration information and semi-static channel occupancy information; determining a resource position and a transmission mode of a channel based on the resource pool configuration information and the semi-static channel occupancy information, where the channel is a data channel or a feedback channel; transmitting data at the resource position according to the transmission mode.

Abstract: An electrostatic chuck (ESC) undercoating system includes a memory and a controller. The memory stores an undercoat application. The controller configured to execute the undercoat application to: determine undercoat parameters; perform a full clean process to remove undercoat deposits in processing chamber of substrate processing system; and based on the undercoat parameters, perform one or more deposition processes to deposit one or more undercoat layers on the ESC to provide an overall undercoat layer having an overall thickness between 7-15 ?m, the one or more undercoat layers providing protection of the ESC during subsequent deposition processing of a substrate on the ESC.

Abstract: Provided are a transmission method, a communication node, and a storage medium. The method includes: determining target start symbols in a slot within a resource pool, where the target start symbols include a first start symbol and a second start symbol; calculating an actual channel coding rate of a transport block (TB) in a case where the TB is transmitted starting from the second start symbol; and determining transmission at the second start symbol according to the actual channel coding rate and a threshold.

Abstract: A method for processing a substrate comprises a) delivering a substrate to a pedestal of an electrostatic chuck (ESC) of a processing chamber; b) increasing a pressure in the processing chamber to a first predetermined pressure in a first predetermined pressure range; c) soaking the substrate at the first predetermined pressure for a first predetermined period without clamping the substrate; d) after the first predetermined period, ramping a clamping voltage supplied to the ESC to a first clamping voltage during a second predetermined period; e) after the second predetermined period, increasing the pressure in the processing chamber to a predetermined process pressure greater than the first predetermined pressure; and f) performing a treatment on the substrate at the predetermined process pressure.

Abstract: Provided are a resource indication method, a first node, a second node, and a storage medium. The resource indication method is applied to the first node. The method includes determining first indication information of a physical transmission resource and second indication information of the physical transmission resource, where the first indication information includes subchannel information of a frequency domain of the physical transmission resource, and the second indication information includes other frequency domain indication information of the physical transmission resource other than the first indication information in the frequency domain; transmitting control information including the first indication information and the second indication information.

Abstract: Provided are an information transmission method, a resource determination method, a resource selection method, a device, and a storage medium. The information transmission method applied by a first communication entity includes: sending request information to a second communication entity, where the request information is used for requesting the second communication entity to determine a resource set; and sending assistance information for determining the resource set to the second communication entity, where the assistance information includes at least one resource mapping mode, and the resource mapping mode at least includes one of the following: first frequency domain units to which a resource is mapped or the number of first frequency domain units to which a resource is mapped.

Abstract: An electrostatic chuck (ESC) undercoating system includes a memory and a controller. The memory stores an undercoat application. The controller configured to execute the undercoat application to: determine undercoat parameters; perform a full clean process to remove undercoat deposits in processing chamber of substrate processing system; and based on the undercoat parameters, perform one or more deposition processes to deposit one or more undercoat layers on the ESC to provide an overall undercoat layer having an overall thickness between 7-15 ?m, the one or more undercoat layers providing protection of the ESC during subsequent deposition processing of a substrate on the ESC.

Abstract: A system and method for receiving timing information are disclosed herein. In one embodiment, a method performed by a first node includes receiving, by a first node from a second node, one of (1) first information and second information, or (2) third information. The first information includes configuration information of at least one of indication information, timing mode, or time resource type. The method includes determining, by the first node, time difference information according to the one of (1) the first information and the second information, or (2) the third information.

Abstract: Provided are a frequency domain resource determining method, a node and a storage medium, and the method includes the following: A first node acquires first carrier resource configuration information sent by a control node; the first node determines a first reference carrier of a cell of a distributed unit (DU) of the first node according to the first carrier resource configuration information; and the first node determines at least one frequency domain resource set of the cell of the DU of the first node based on the first reference carrier, where the first reference carrier includes a first starting resource block and N resource blocks starting from the first starting resource block, and N is configured in the first carrier resource configuration information or predefined.

Abstract: The resource mapping method applied to a first communication node includes the following. A slot aggregation level, the number of first symbols and a first symbol position of sidelink communication are determined. A resource mapping manner for the sidelink communication using the second subcarrier spacing is determined according to the slot aggregation level, the number of first symbols and the first symbol position. The number of first symbols refers to the number of first symbols used for the sidelink communication in a first slot; the first symbol position is a start symbol position of the first symbols in the first slot; the first slot is a slot used for the sidelink communication corresponding to a first subcarrier spacing; the slot aggregation level is a mapping relationship between a slot of a second subcarrier spacing and a slot of the first subcarrier spacing.

Abstract: A resource block set (RB set) determination method includes: determining resource configuration information, where the resource configuration information includes at least one of the position of a reference resource block (RB) or the position of at least one carrier; determining a start frequency position according to the resource configuration information; and determining an RB set according to the start frequency position.

Abstract: Provided are a symbol reservation, inquiry, and notification methods, a first node, a second node and a medium. The method includes determining a first element set, and sending request information, where the request information is used for requesting to reserve or not reserve a guard symbol at a transition in a case where a second unit of the first node performs transmission or reception on elements in the first element set.

Abstract: Provided herein are examples of methods and related apparatus for depositing an ashable hardmask (AHM) on a substrate using a process gas including hydrocarbons and halide-containing species and pulsed low frequency (LF) power. Halide-containing species may decrease the hydrogen content of the AHM, and a plasma using pulsed LF power may improve mechanical properties of the AHM. Also provided herein are examples of annealed hardmasks and examples of processes for annealing hardmasks.

Abstract: Provided are an uplink control receiving method, an uplink control sending method, a base station, a user equipment, and a storage medium. The method includes: specifying a beam direction used for sending an uplink control in an orthogonal frequency division multiplexing (OFDM) symbol in which the uplink control is located in a transmission unit, and receiving the uplink control according to the specified beam direction used by the uplink control; wherein the specifying the beam direction used for sending the uplink control in the OFDM symbol in which the uplink control is located in the transmission unit comprises: using by default all or at least one of beam directions used for transmitting uplink data in a previous transmission unit as the beam direction used for transmitting the uplink control, wherein the previous transmission unit refers to a transmission unit before the transmission unit.