Abstract: A three-dimensional memory device is provided. The device comprises an array of memory cells comprising a plurality of memory blocks having a first memory block. The first memory block includes a plurality of sets of sub-blocks. The device further comprises a global bit line; a controller; and a plurality of dynamic latch devices connected between the global bit line and the plurality of sets of sub-blocks. A first dynamic latch device of the plurality of dynamic latch devices is connected to a first set of sub-blocks. Different dynamic latch devices of the plurality of dynamic latch devices are connected to different sets of sub-blocks. The first dynamic latch device is controllable by the controller to store program data during a program operation in which the first set of sub-blocks connected to the first dynamic latch device are unselected sub-blocks during the program operation.

Abstract: Wearable device includes memory storing instructions, first sensor and second sensor, display, and at least one processor. Instructions, when executed by at least one processor individually or collectively, cause wearable device to obtain, by using first sensor, first data on pressure between wearable device and a body portion of a user on which the wearable device is worn, obtain, by using the second sensor, second data used for measuring at least one of a temperature, a humidity, or active oxygen of the body portion, decide whether a probability of damage of a skin of the body portion is happened based on a length of time when the wearable device is worn on the body portion, the first data, and the second data, and display a visual object to guide taking off the wearable device from the body portion based on the decision that the probability of damage portion is happened.

Abstract: Control logic in a memory device causes a pass voltage to be applied to a plurality of wordlines of a block of a memory array of the memory device, the block comprising a plurality of sub-blocks, and the pass voltage to boost a channel potential of each of the plurality of sub-blocks to a boost voltage. The control logic further selectively discharges the boost voltage from one or more of the plurality of sub-blocks according to a data pattern representing a sequence of bits to be programmed to respective memory cells of the plurality of sub-blocks. In addition, the control logic causes a single programming pulse to be applied to a selected wordline of the plurality of wordlines of the block to program the respective memory cells of the plurality of sub-blocks according to the data pattern.

Abstract: Systems, methods, and other embodiments relate to automated healthcare for patients in distributed locations. In at least one approach, a method includes receiving patient information, including at least a location of a patient and health information about the patient that is to be treated. The method includes dispatching at least one rescue robot to the location that will treat the patient. The method includes responsive to the at least one rescue robot arriving at the patient, performing, by the at least one rescue robot, therapeutic delivery on the patient according to a treatment plan as identified by the health information.

Abstract: System, methods, and other embodiments described herein relate to autonomous configuration of a multifunction robot for healthcare-related tasks. In one embodiment, a method includes, responsive to receiving, in the multifunction robot, selection data that identifies a treatment plan for a patient, analyzing the selection data to identify one or more task modules for carrying out the treatment plan. The method includes determining a module layout for the multifunction robot according to the task modules for carrying out the treatment plan. The method includes configuring the robot with at least one of the task modules according to the module layout.

Abstract: Control logic in a memory device causes a pass voltage to be applied to a plurality of wordlines of a block of a memory array of the memory device, the block comprising a plurality of sub-blocks, and the pass voltage to boost a channel potential of each of the plurality of sub-blocks to a boost voltage. The control logic further selectively discharges the boost voltage from one or more of the plurality of sub-blocks according to a data pattern representing a sequence of bits to be programmed to respective memory cells of the plurality of sub-blocks. In addition, the control logic causes a single programming pulse to be applied to a selected wordline of the plurality of wordlines of the block to program the respective memory cells of the plurality of sub-blocks according to the data pattern.

Abstract: An electronic device is provided. The electronic device includes a housing, a button member which is coupled to the housing and at least a portion of which is exposed to the outside of the housing, a bracket which is disposed inside the housing and on which a circuit board is mounted, a connection member which is disposed in the bracket and is electrically connected to the circuit board, and a conductive structure which is disposed in one portion of the connection member so as to be in contact with the button member, and which is electrically connected to the connection member and the button member, wherein the conductive structure comprises a contact portion in contact with the button member and a fixed portion which extends from the contact portion to the connection member so as to space the contact portion and the connection member apart from each other.

Abstract: Systems, methods, and other embodiments relate to autonomous screening and diagnosis using a screening robot. In at least one approach, a method includes generating, using a learning model, a diagnosis for a patient according to health information acquired from at least the screening robot. The health information including sensor data about the patient and perceptions derived from the sensor data. The method includes, responsive to determining that the diagnosis is incomplete, generating a request for additional information and updating the diagnosis according to the additional information. The method includes providing the diagnosis to facilitate treatment of the patient.

Abstract: In a memory sub-system, causing a standby circuit associated with a memory device to enter into a low power mode. In the low power mode, causing a reference voltage to be supplied to a voltage regulator, wherein the reference voltage causes the voltage regulator to supply a standby current level to the memory device, where the standby current level is lower than a current level supplied when the memory device is in an active mode.

Abstract: Control logic in a memory device causes a pass voltage to be applied to a plurality of wordlines of a block of a memory array of the memory device, the block comprising a plurality of sub-blocks, and the pass voltage to boost a channel potential of each of the plurality of sub-blocks to a boost voltage. The control logic further selectively discharges the boost voltage from one or more of the plurality of sub-blocks according to a data pattern representing a sequence of bits to be programmed to respective memory cells of the plurality of sub-blocks. In addition, the control logic causes a single programming pulse to be applied to a selected wordline of the plurality of wordlines of the block to program the respective memory cells of the plurality of sub-blocks according to the data pattern.

Abstract: Control logic in a memory device causes a pass voltage to be applied to a plurality of wordlines of a block of a memory array of the memory device, the block comprising a plurality of sub-blocks, and the pass voltage to boost a channel potential of each of the plurality of sub-blocks to a boost voltage. The control logic further selectively discharges the boost voltage from one or more of the plurality of sub-blocks according to a data pattern representing a sequence of bits to be programmed to respective memory cells of the plurality of sub-blocks. In addition, the control logic causes a single programming pulse to be applied to a selected wordline of the plurality of wordlines of the block to program the respective memory cells of the plurality of sub-blocks according to the data pattern.

Abstract: A memory device includes a memory array comprising a plurality of memory planes, wherein the plurality of memory planes are arranged in a plurality of independent plane groups, and wherein each of the plurality of independent plane groups comprises one or more of the plurality of memory planes. The memory device further includes a plurality of independent analog driver circuits coupled to the memory array, wherein a respective one of the plurality of independent analog driver circuits is associated with a respective one of the plurality of independent plane groups. The memory device further includes a common analog circuit coupled to the memory array, wherein the common analog circuit is shared by the plurality of independent analog driver circuits and the plurality of independent plane groups.

Abstract: System, methods, and other embodiments described herein relate to autonomous assessment and treatment of a patient. In one embodiment, a method includes, responsive to acquiring, in a managing device, sensor data characterizing a condition of the patient, determining a diagnosis for the condition according to a correlation of the sensor data with a subset of markers. The method includes selecting, using a treatment model, a treatment algorithm from a set of treatment algorithms for performing therapeutic delivery using a robotic device. The method includes causing the robotic device to perform the therapeutic delivery according to the treatment algorithm selected by the treatment model.

Abstract: An electronic device according to an embodiment may include: a battery, a haptic motor, a speaker, haptic motor driving circuitry, audio circuitry, at least one processor, comprising processing circuitry, and memory storing instructions, wherein the at least one processor, individually and/or collectively, is configured to execute the instructions and to cause the electronic device to: output, through the speaker, audio signals corresponding to audio data using the audio circuitry, based on haptic signals being output concurrently with output of audio signals through the speaker, identify the audio signals to be output and the haptic signals to be output, estimate a discharge current value of the battery associated with the audio signals to be output concurrently with output of the haptic signals, and, based on the estimated discharge current value exceeding a specified discharge current value, adjust volume associated with the audio signals to be output and/or a driving voltage for driving the haptic motor i

Abstract: A memory device includes a memory array comprising a plurality of memory planes, wherein the plurality of memory planes are arranged in a plurality of independent plane groups, and wherein each of the plurality of independent plane groups comprises one or more of the plurality of memory planes. The memory device further includes a plurality of independent analog driver circuits coupled to the memory array, wherein a respective one of the plurality of independent analog driver circuits is associated with a respective one of the plurality of independent plane groups. The memory device further includes a common analog circuit coupled to the memory array, wherein the common analog circuit is shared by the plurality of independent analog driver circuits and the plurality of independent plane groups.

Abstract: A wearable electronic device including a plurality of biosensors is disclosed. The wearable electronic device according to various embodiments disclosed in the disclosure may include: a first biosensor configured to measure a first bio signal of a user; a first substrate including a second biosensor configured to measure a second bio signal of the user; and a second substrate disposed in a second direction being opposite to the first direction with respect to the first substrate, wherein the first biosensor includes: a light transmitter disposed on the second substrate and configured to transmit a first optical signal with respect to the user's body; a light receiver disposed on the first substrate and configured to receive a second optical signal generated through an interaction of the first optical signal with the user's body; and a controller configured to calculate the first bio signal of the user from the second optical signal received by the light receiver. Other various embodiments may be possible.

Abstract: Memory devices can be structured in a three-dimensional arrangement using a circuit under array (CUA) architecture. The memory array of such a memory device can include memory cells disposed in vertically arranged tiers. With the memory array extending over a substrate, the CUA region under the memory array can include control circuitry for the memory array. A space adjacent the memory array and disposed above the CUA region can include a dielectric material and conductive structures, with the conductive structures extending vertically in the dielectric material and alongside the memory array. The conductive structures separated by the dielectric material can be used as a capacitor coupled between nodes with the nodes configured to provide different voltages. This capacitor can be coupled to a circuit or a connection node below the level of the memory array.

Abstract: In a memory sub-system, causing a standby circuit associated with a memory device to enter into a low power mode. In the low power mode, causing a reference voltage to be supplied to a voltage regulator, wherein the reference voltage causes the voltage regulator to supply a standby current level to the memory device, where the standby current level is lower than a current level supplied when the memory device is in an active mode.

Abstract: Memory devices can be structured in a three-dimensional arrangement using a circuit under array (CUA) architecture. The memory array of such a memory device can include memory cells disposed in vertically arranged tiers. With the memory array extending over a substrate, the CUA region under the memory array can include control circuitry for the memory array. A space adjacent the memory array and disposed above the CUA region can include a dielectric material and conductive structures, with the conductive structures extending vertically in the dielectric material and alongside the memory array. The conductive structures separated by the dielectric material can be used as a capacitor coupled between nodes with the nodes configured to provide different voltages. This capacitor can be coupled to a circuit or a connection node below the level of the memory array.

Abstract: A determination is made that a memory device of a memory sub-system is to be transitioned to a sleep mode. A command is initiated to cause a standby circuit associated with the memory device to enter into a low power mode while a power supply of the memory sub-system is maintained in a powered state. In the low power mode, a reference voltage is supplied to a voltage regulator of the standby circuit to supply a standby current level to the memory device during the sleep mode.