Abstract: A buffer die provided in a wafer includes a write strobe signal generation circuit configured to, based on being enabled in a wafer level test on the buffer die, generate a first write strobe signal and a second write strobe signal having a phase difference of 180 degrees, a dividing and converting circuit configured to generate a plurality of divided clock signals having a phase difference of 90 degrees, a duty cycle adjusting circuit configured to generate a plurality of adjusted clock signals, a read strobe signal generation circuit configured to generate a first read strobe signal and a second read strobe signal having a phase difference of 180 degrees, a skew monitoring circuit configured to generate a first up/down signal, a trimming circuit is configured to generate a second up/down signal, generate a plurality of control code sets, and obtain a fuse calibration code.

Abstract: An example apparatus includes a dividing circuit configured to divide an original data strobe signal supplied synchronously with a set of write data to generate first to fourth data strobe signals having mutually different phase from one another, a first data latch circuit configured to latch one of the set of write data synchronously with the first data strobe signal, the first data latch circuit being configured to be reset responsive to a first reset signal; a second data latch circuit configured to latch another of the set of write data synchronously with the second data strobe signal, the second data latch circuit being configured to be reset responsive to a second reset signal; and a burst counter circuit configured to activate the first and second reset signals responsive to the third and fourth data strobe signals.

Abstract: A memory device includes a reference voltage generator configured to generate a reference voltage, and a data input/output (I/O) buffer configured to receive a data signal having a first phase, generate a phase control signal having a second phase opposite to the first phase, and generate an output signal based on the data signal, the phase control signal, and the reference voltage.

Abstract: A memory array includes memory cells arranged in rows and columns where each row includes a word line connected to memory cells of the row and each column includes a bit line connected to memory cells of the column. Each memory cell stores a bit of weight data for an in-memory computation operation. A row controller circuit coupled to the word lines through drive circuits is configured to simultaneously actuate multiple word lines during the in-memory computation operation. A column processing circuit includes a discharge time sensing circuit for each column that generates an analog signal indicative of a time taken during the in-memory computation operation to discharge the bit line from a precharge voltage to a threshold voltage. The analog signals are converted to digital signal and a computation circuitry performs digital signal processing calculations on the digital signals to generate a decision output for the in-memory computation operation.

Abstract: To reduce the time required for data writing. A semiconductor memory device is provided, comprising a memory cell having a gate electrode including a selection gate and a memory gate, a source line connected to a source, and a bit line connected to a drain, an extraction part that extracts a current flowing from the source side to the drain side during writing in the memory cell from the bit line, a discharge part that has a higher ability to pass current than the extraction part and lowers the voltage of the bit line, a charge part that has a higher ability to pass current than the discharge part and applies a voltage to the bit line, and a control part that, when starting to write to the memory cell, lowers the voltage of the bit line by the discharge part and applies a voltage to the bit line by the charge part.

Abstract: The memory device includes a memory block with an array of memory cells that are arranged in a plurality of word lines. The memory cells are programmed to one bit per memory cell with each memory cell being either in an erased data state or a programmed data state. The memory device also includes circuitry that is configured to determine that the memory cells have experienced significant read disturb. Without erasing the memory cells, the circuitry is further configured to program the memory cells in the programmed data state directly to higher threshold voltages to increase a threshold voltage margin between the memory cells in the erased data state and the memory cells in the programmed data state.

Abstract: A system includes a memory device and a processing device to perform operations that include identifying wordline groups where each wordline group is associated with a corresponding default program verify (PV) voltage for each programming level, and determining, for each wordline group, a maximum read window budget (RWB) increase. They can further include defining a target aggregate RWB increase amount based on the maximum RWB increase, and determining, for each wordline group, a minimum number of memory cell programming level groups with corresponding PV voltage offsets sufficient to reach the target aggregate RWB increase amount. The embodiments can also include grouping the programming levels of a specified memory cell into the minimum number of programming level, and applying, based on the specific programming level group containing a target programming level, a corresponding PV voltage offset during a memory cell access operation.

Abstract: Various embodiments provide for performing a multi-plane test operation on a dynamically determined block stripe of a memory device, which can be part of a memory system, such as a memory sub-system.

Abstract: A memory device includes a first defective address information memory configured to store multiple pieces of initial defective address information, the multiple pieces of initial defective address information include initial target defective address information and multiple pieces of initial non-target defective address information; a defective address information processing circuit connected to the first defective address information memory and configured to compare the initial target defective address information with each of the multiple pieces of initial non-target defective address information, determine whether to process the initial non-target defective address information based on a comparison result, and output multiple pieces of defective address information corresponding to the multiple pieces of the initial defective address information; and a second defective address information memory connected to the defective address information processing circuit and configured to store the multiple pieces of

Abstract: A sequence state including representations of neighboring amino acids included in a local physical structure for a specific amino acid is received, wherein the neighboring amino acids at least include a first neighboring amino acid and a second neighboring amino acid. A direction query vector and a direction key vector are determined including by applying a first directional rotation transformation to at least a portion of a representation of the first neighboring amino acid included in the representations and applying a second directional rotation transformation to at least a portion of a representation of the second neighboring amino acid included in the representations. A direction attention result is determined including by evaluating elements of the direction query vector and the direction key vector. At least the direction attention result is used to update the sequence state for an attention mechanism of a machine learning model.

Abstract: A system for manufacturing an artificial covering includes a 3D surface scanning module and a 3D printing module where an anatomical surface is imaged and the image is processed for manufacturing and embedding a sensor or device in the covering which can be used for diagnosis or sensing medical issues in the user.

Abstract: The current disclosure provides systems and methods for an automated image comparison system that generates natural language descriptions of images. In an example, the image comparison system is configured to carry out a method that includes acquiring a current image of a patient during a current exam, generating, with a computer vision-enabled large language model (CV/LLM), a first compressed representation (CR) of the current image, obtaining a second CR of a similar image, the similar image similar to the current image and acquired in a prior exam, generating a text-based comparison of the current image and the similar image using the CV/LLM by entering the first CR and the second CR as input to the CV/LLM, and outputting the text-based comparison.

Abstract: One or more example embodiments relates to a control method for remote control of a medical imaging system comprising triggering a start signal in the remote control unit, to start an operation of the medical imaging system; capturing a number of items of optical information as at least one of images or light signals; verifying that the optical information comes from an examination area and has arrived at the remote control unit and, determining a capture time for the optical information if the optical information comes from the examination area and has arrived at the remote control unit; determining a start time at which the start signal was triggered or was sent to the medical imaging system; and comparing a time interval between the capture time and the start time with a specified comparison time interval.

Abstract: An Operating Room Management System (ORMS) for facilitating the efficient and optimal organization of hospital medical personnel and resources runs on local and remote servers and comprises a real-time updated daily schedule which is displayed on digital whiteboards and other displays throughout the hospital. The schedule display simplifies the crucial information concerning common hospital concerns and permits quick, accurate decision making on the part of the hospital medical personnel and administrators.

Abstract: A medical device troubleshooting system is provided to interact with and assist a user in resolving operational problems with a medical device. The troubleshooting system may detect an operational problem with the medical device and initiate a troubleshooting session to output a series of different tailored prompts for a user to rectify the glitch. The user prompts are selected and presented in an adaptive manner based on patient specific factors. Selection of prompts and prompt presentation may be responsive to user actions, changes in the patient, and/or the condition of the operational problem. The troubleshooting system checks the condition of the operational problem after presentation of each user prompt and determines a next user prompt accordingly, or ends the session. When the operational problem persists after ending of the session, an external support resource may be contacted.

Abstract: A method includes generating, using one or more sensors, data. The data includes (i) environmental data related to an environment of a user and (ii) physiological data associated with the user during a sleep session. Based at least in part on the physiological data, a comfort score associated with the user during the sleep session is determined. The comfort score is indicative of a comfort level of the user during at least a portion of the sleep session. Based at least in part on the determined comfort score, a setting of one or more devices associated with the environment of the user is adjusted.

Abstract: Various embodiments described herein relate to systems, devices, and methods for non-invasive image-based plaque analysis and risk determination. In particular, in some embodiments, the systems, devices, and methods described herein are related to analysis of one or more regions of plaque, such as for example coronary plaque, using non-invasively obtained images that can be analyzed using computer vision or machine learning to identify, diagnose, characterize, treat and/or track coronary artery disease.

Abstract: A diagnostic and decision support technology is provided for determining the likely prognosis and potential treatment for patients experiencing a condition, such as COVID-19, for example. In particular, a mechanism is provided for receiving a historical patient dataset comprising one or more historical health parameters associated with a plurality of historical patients. Additionally, a patient dataset is received comprising one or more patient health parameters associated with a patient. A cluster is identified based on the similarity of the patient dataset and a plurality of historical patient datasets. From the cluster, a set of treatable features are identified and evaluated for their potential impact on the patient's successful recovery from the condition. A recommendation is generated based on the evaluation as to what feature should be treated first to decrease the mortality of the patient.

Abstract: Systems and methods for population health surveillance utilizing a network of smart thermometers is provided. Based on the geolocated user data provided by the smart thermometers, contagious illness can be forecasted for various population nodes. Population nodes can be provided at various levels of granularity. Geographic or population specific early warning signals can be generated based on detected outbreaks of contagious illness.

Abstract: Genetic variations associated with a patient's cancerous tumors can be indicative of potential effective treatments for treating the patient. Systems and methods for determining relationships between gene variants of a gene, the gene variants being related to one or more cancers and being correlated to a treatment response of the one or more cancers to one or more medications, are provided. The method includes accessing, using at least one processor, a database comprising information about the gene variants, the information including at least information indicative of a treatment response of a first gene variant of the gene variants to one or more treatments; categorizing the information about the gene variants within a plurality of groups; and generating hierarchical relationships between each group of the plurality of groups. In some embodiments, a patient may be treated using a treatment selected based on the generated hierarchical relationships.