Qualcomm Incorporated

Samsung Electronics Co., Ltd.

Deepbrain Ai Inc.

Korea Institute of Science and Technology

Seoul National University

Park, Sungwoo

Park, Sanghee

Sungwoo Park

Tao Luo

Wooseok Nam

Xiaoxia Zhang

Jing X Sun

Junyi Li

Juan Montojo

Peter S Gaal

Srinivas Yerramalli

Taesang Yoo

Simone Merlin

Arumugam Chendamarai Kannan

John Edward Smee

Kiran Venugopal

Tianyang Bai

Mostafa Khoshnevisan

Zhifei Fan

Ahmed Abdelaziz Ibrahim Abdelaziz Zewail

Jung Ho Ryu

Iyab Issam Sakhnini

Qiang Wu

Vinay Chande

Giovanni Chisci

Seyoung Jang

Sangcheon Park

Yukyung Park

Seungkwan Ryu

Gyeongsu Chae

Ungcheon Kim

Guembuel Hwang

Heonwoo Kim

Sony Akkarakaran

Vasanthan Raghavan

Jun Ma

Chenxi Hao

Kaushik Chakraborty

Fang Yuan

Mehmet Izzet Gurelli

Chajea Jo

Akula Aneesh Reddy

Jinwoo Jeong

Hyungwoo Lee

Youngbae Kim

Sang Rok Oh

Keehoon Kim

Wonil Lee

Donghyun Hwang

Byunggook Kim

Byunghoon Lee

Changyoung Jeong

Sehyuk Yim

Anantha Krishna Karthik Nagarajan

Yong Seok Ihn

Sungwook Yang

Junghwan Moon

Maenghyo Cho

Muyoung Kim

Namseon Jang

Joonmyung Choi

Sanghee Park

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a wireless communication device may map a code block to resources, of a physical shared channel, that are allocated for data-modulated demodulation reference signals (DMRSs) in which each of the resources carries both at least a portion of a DMRS sequence and data. The wireless communication device may transmit a communication, via the physical shared channel, that includes the code block that is mapped to the resources that are allocated for the data-modulated DMRSs. Numerous other aspects are provided.

Code block-based resource mapping for transmissions with data-modulated demodulation reference signals

A semiconductor package includes an interposer substrate on a package substrate. The interposer substrate includes an upper pad on an upper surface of the insulating layer, a lower pad on a lower surface of the insulating layer, and a redistribution structure penetrating the insulating layer between the upper surface and the lower surface to connect the upper pad and the lower pad. A semiconductor chip is disposed above the interposer substrate and connected to the upper pad, and a connection bump directly contacts a lower surface of the lower pad. The redistribution structure includes redistribution layers and redistribution vias connected to the redistribution layers, wherein each of the redistribution layers and each of the redistribution vias includes a metal material layer and a plating seed layer, and the lower pad directly contacts the plating seed layer.

Semiconductor package

In an aspect, a PDCCH and a PDSCH are transmitted by a BS to a UE, whereby the PDDCH includes a first DCI part and the PDSCH includes a second DCI part. In an example, a TBS associated with the PDSCH may be determined (e.g., either by factoring or ignoring resource elements associated with the second DCI part). In another example, the PDSCH may be associated with a modulation scheme with a constellation having constellation points, whereby the second DCI part in the PDSCH is restricted to a subset of the constellation points. In another example, rate-matching may be performed for one or more resource elements of the second DCI part.

Physical downlink shared channel including part of a downlink control information

Monostatic radar with progressive length transmission may be used with half-duplex systems or with full-duplex systems to reduce self-interference. The system transmits a first signal for a first duration and receives a first reflection of the first signal from a first object during a second duration. The system transmits a second signal for a third duration longer than the first duration and receives a second reflection of the second signal from a second object during a fourth duration. The system calculates a position of the first object and the second object based on the first reflection and the second reflection. The first signal, first duration, and second duration are configured to detect reflections from objects within a first distance of the system. The second signal, third duration, and fourth duration are configured to detect reflections from objects between the first distance and a second distance from the system.

Monostatic radar with progressive length transmission

A method, apparatus, or computer-readable medium with instructions for beam management for radio frequency (RF) sensing at a wireless device. The wireless device performs a first beamsweep of an RF signal and measures a reflection of the RF signal based on the first beamsweep. The wireless device performs a second beamsweep of the RF signal, wherein the first beamsweep is based on a different parameter than the second beamsweep and measures the reflection of the RF signal based on the second beamsweep. The wireless device selects a beam for RF sensing based on the first beamsweep and the second beamsweep.

Beam management for radio frequency sensing

An interposer including a base layer, a redistribution structure on a first surface of the base layer and including a conductive redistribution pattern, a first lower protection layer on a second surface of the base layer, a lower conductive pad on the first lower protection layer, a through electrode connecting the conductive redistribution pattern and the lower conductive pad, a second lower protection layer on the first lower protection layer, including a different material than the first lower protection layer, and contacting at least a portion of the lower conductive pad, and an indentation formed in an outer edge region of the interposer to provide a continuous angled sidewall extending entirely through the second lower protection layer and through at least a portion of the first protection layer.

Interposer and semiconductor package including same

Techniques are provided for managing transmit and receive beams in a millimeter wave (mmW) communication system for use in bistatic radio frequency (RF) sensing. An example method of tracking targets with bistatic radio frequency sensing includes receiving one or more sensing reference signals, generating a signal report based at least in part on the one or more sensing reference signals, transmitting the signal report, receiving tracking signal configuration information, receiving one or more tracking reference signals identified in the tracking signal configuration information, and tracking one or more targets associated with the one or more tracking reference signals.

Beam management for bistatic air interface based radio frequency sensing in millimeter wave systems

Provided is an interposer for a semiconductor package, the interposer including an interposer substrate comprising a first main surface and a second main surface opposite to the first main surface, a first through-electrode structure and a second through-electrode structure each passing through the interposer substrate and protruding from the first main surface, a connection terminal structure contacting both the first through-electrode structure and the second through-electrode structure, and a photosensitive polymer layer arranged between the connection terminal structure and the interposer substrate, and between the first through-electrode structure and the second through-electrode structure.

Interposer, semiconductor package including the same, and method of fabricating the interposer

One innovative aspect of the subject matter described in this disclosure can be implemented in a method for wireless communication. The method includes determining a configuration of reference signal (RS) resources to be used by a user-equipment (UE) to perform beam measurements, transmitting, to the UE, an indication of the configuration of the RS resources, and receiving, from the UE, a report indicating a plurality of RS resource indicators based on the beam measurements, each of the RS resource indicators being associated with one of the RS resources. In some aspects, the BS selects a subset of the RS resources based on the report from the UE, transmits, to the UE, an indication to provide channel measurement information for the subset of the RS resources, and receives a report including the channel measurement information from the UE. The BS may also perform joint precoding of signals for transmission via the RS resources based on the channel measurement information.

Joint precoding across multiple beams

Disclosed are techniques for environment sensing. In an aspect, a transmitter base station determines a configuration for a radio frequency (RF) sensing signal, the configuration determined based at least in part on coordination among a plurality of base stations, and transmits the RF sensing signal to at least one receiver base station based on the configuration. In an aspect, a receiver base station receives a configuration for an RF sensing signal, the configuration determined based at least in part on coordination among a plurality of base stations, receives, from at least one transmitter base station, the RF sensing signal, and detects at least one target object based, at least in part, on reception of the RF sensing signal.

Using base stations for air-interface-based environment sensing without user equipment assistance

Wireless communications systems and methods related to communications in a network are provided. A first wireless communication device may perform in a shared radio frequency band during a first portion of a frame period, a first listen-before-talk (LBT) using a first beam characteristic. Additionally, the first wireless communication device may perform in the shared radio frequency band during a second portion of the frame period, a second LBT using a second set of beam characteristics different from the first beam characteristic. The first wireless communication device may communicate with a second wireless communication device in the shared radio frequency band during the second portion of the frame period, one or more communication signals using the second set of beam characteristics. Other aspects and features are also described.

Hierarchical sensing in a wireless communications system

A device according to an embodiment has one or more processors and a memory storing one or more programs executable by the one or more processors. The device includes a first encoder configured to receive a person background image corresponding to a video part of a speech video of a person and extract an image feature vector from the person background image, a second encoder configured to receive a speech audio signal corresponding to an audio part of the speech video and extract a voice feature vector from the speech audio signal, a combiner configured to generate a combined vector by combining the image feature vector output from the first encoder and the voice feature vector output from the second encoder, and a decoder configured to reconstruct the speech video of the person using the combined vector as an input.

Method and device for generating speech video using audio signal

A semiconductor package includes: a lead frame that includes a first surface and a second surface opposite to the first surface, where the lead frame includes a first lead that extends in a first direction, and a plurality of second leads that are spaced apart from the first lead on both sides of the first lead; at least one semiconductor chip mounted on the first surface of the lead frame by a plurality of bumps; and an encapsulant that encapsulates the lead frame and the at least one semiconductor chip, wherein the first lead has a groove in the first surface that partitions the plurality of bumps in contact with the first lead.

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may determine a monitoring window for monitoring a search space set for a physical downlink control channel (PDCCH) wakeup signal (WUS), where the monitoring window is a portion of a configured monitoring window for the search space set. The UE may monitor the WUS search space set within the monitoring window for the PDCCH WUS. Numerous other aspects are provided.

Wakeup signal monitoring window

Certain aspects of the present disclosure provide a method for performing beam measurements in a wireless communication network, including: performing a measurement of a first beam from a first transmission and reception point (TRP) of a network; performing a measurement of a second beam from a plurality of TRPs of the network; applying a biasing factor to one of the measurement of the first beam or the measurement of the second beam based on a beam preference setting; and transmitting, to the network, a measurement report including: indications of the first beam and second beam to which the measurement report pertains; and the measurement of the first beam and the measurement of the second beam after applying the biasing factor.

Beam reporting enhancements for single-frequency network environments in radio access networks

Growing community of inventors

Seoul, South Korea

Sungwoo Park