Charter Communications Operating, LLC

Elliott D Hoole

Diwelawatte P Jayawardene

Pratik Das

Manish Jindal

Joshua N Sanders

Ramneek S Bali

Alec Hampton

Various embodiments comprise systems, methods, architectures, mechanisms and apparatus for spatially combining a plurality of 5G new radio (NR) carrier signals or channels for transport via a common frequency channel through a hybrid fiber coax (HFC) or other communications medium link or network. To overcome a loss of receiver ability to discriminate/process individual spatial components, each baseband signal and/or carrier signal including a spatial component has imparted to it a respective channel component Øn configured to modify amplitude, phase shift, and/or time delay of the baseband signal and/or carrier signal such that multiple spatial component bearing signals stacked/combined within a HFC frequency channel or slot include channel characteristics sufficiently distinct so as to enable a receiver to identify, discriminate, and otherwise process desired spatial components.

Adapting 5G NR spatial components for stacked transmission via RF/optical media

Apparatus and methods for content fragmentation, distribution, protection, and re-constitution within a content distribution network. In one embodiment, the apparatus and methods enable distribution of content fragments to edge nodes (which may include user or subscriber CPE), thereby enabling edge networks or membership groups to be established wherein content can be shared solely at the edge. In one variant, high data bandwidth, symmetric uplink/downlink, low latency PHY links (e.g., 5G NR-compliant wireless interfaces) between the edge nodes participating in the edge networks or membership groups are used such that particular quality of service/experience performance requirements can be met. Distribution of the fragments also advantageously enhances redundancy and security.

Apparatus and methods for content storage, distribution and security within a content distribution network

Apparatus and methods for parsing data traffic into queues for efficient routing and prioritization. In one embodiment, methods and apparatus for backhauling small cell data traffic using existing cable network infrastructure using DOCSIS Low Latency queue capabilities are provided. A data traffic classifier may use a two-stages sorting algorithm, including a first stage classification using IP address information and a second stage classification using differentiated services code point (DSCP) value information. In one implementation, the DSCP values of the data traffic are set using QoS Flow Identification (QFI) values.

Method and apparatus for transporting data traffic using classifications

Architectures, methods and apparatus for providing data services (including enhanced ultra-high data rate services and IoT data services) which leverage existing managed network (e.g., cable network) infrastructure, while also providing support and in 10 some cases utilizing the 3GPP requisite NSA functionality. Also disclosed are the ability to control nodes within the network via embedded control channels, some of which 'repurpose' requisite 3GPP NSA infrastructure such as LTE anchor channels. In one variant, the premises devices include RF-enabled receivers (enhanced consumer premises equipment, or CPEe) configured to receive (and transmit) OFDM waveforms via a 15 coaxial cable drop to the premises. In another aspect of the disclosure, methods and apparatus for use of one or more required NSA LTE channels for transmission of IoT user data (and control/management data) to one or more premises devices are provided.

Apparatus and methods for integrated high-capacity data and wireless IoT (internet of things) services

Various embodiments are directed to methods, apparatus, systems and the like for managing distributed radio access network (RAN) elements within a network associated with a network core, wherein for each of a plurality of distributed RAN elements (DREs) within the network associated with the network core a respective virtualized proxy element is configured to communicate with the DRE and mirror each of a plurality of functional elements (FEs) associated with the DRE.

Cloud native realization of distributed ran elements

Various embodiments comprise systems, methods, architectures, mechanisms and apparatus providing a low-latency trading platform and/or communications system wherein one or more remote client devices communicate with a proxy server via a first communications channel, the proxy server being tightly coupled to (co-located and directly communicating with) a programmable hardware platform configured to communicate with an equities exchange system via a second communications channel, the location of the proxy server and hardware platform being proximate that of at least one equities exchange system, wherein the proxy server is updated by client device communications defining trade execution profiles associated with each of a plurality of equities and corresponding trading strategies, and wherein the hardware platform executes equity trades in response to substantially real time data received from the equities exchange. Various embodiments provide a mechanism for automatically provisioning the communications system in accordance with an Infrastructure as a Service (IAAS) offering from a provider of network services.

Low-latency trading platform and communications system

A communication management resource (such as disposed at a network management node or other location) allocates bandwidth in a physical communication link to convey communication data associated with first customer premises equipment. In one implementation, the allocated bandwidth in the physical communication link is partitioned in accordance with wireless bandwidth supported by the first customer premises equipment. For example, in one embodiment, the allocated bandwidth of the physical communication link is mapped to convey corresponding data communicated over wireless bandwidth used by the first customer premises equipment. The communication management resource establishes a control channel over the physical communication link between the network management node and the first customer premises equipment. Via the control channel, the communication management resource then transmits a command over the control channel from the network management node to the first customer premises equipment. The command controls operation of the first customer premises equipment.

Logical control channels and implementation in a network

A communication management system (such as hardware and/or executed software) receives performance information indicating wireless connectivity performance between a communication device and a set of candidate wireless access points. The communication device is initially in communication with a first wireless access point over a wireless link. Based on the performance information, the communication management system selects a candidate wireless access point from the set in which to performance a handoff. The communication management hardware the notifies the communication device to handoff the wireless link from the first wireless access point to the selected candidate wireless access point.

Wireless connectivity management and handoff control

Apparatus and methods for displaying data in an immersive environment wherein sensor (e.g., IoT sensor) data is aggregated via a gateway and various different types of air interfaces depending on application and location (e.g., LoRa, Wi-Fi, 5G NR, C-band, 60 GHz, CBRS, etc.), aggregated at a cloud service, processed through an analytics platform, and transmitted to a UI platform for display on a user interface. One implementation of displaying the sensor data comprises overlaying the sensor data in virtual reality in an immersive video wherein the video is a live stream from a 360-degree 8K camera. A user may interact with the overlaid sensor data within the user interface in a virtual environment to change settings to a desired degree. Artificial intelligence and machine learning may automatically suggest actions to the user or change settings based on sensor data.

Wireless enabled distributed data apparatus and methods

An antenna overlay system includes antenna hardware, a communication link, and electronic circuitry disposed on a substrate. The communication link couples the electronic circuitry to the antenna hardware. During operation, the electronic circuitry in communication with the antenna hardware is operable to control transmission and reception of wireless signals in a wireless region. An adhesive layer disposed on a surface of the substrate couples the substrate to an object such as a window. In one arrangement, the window is a low-E glass windowpane that substantially attenuates wireless signals from being received by communication equipment in a building in which the windowpane is installed. The antenna overlay system provides enhanced RF signal reception and transmission.

Antenna hardware disposed on a substrate to provide enhanced wireless connectivity

Architectures, methods and apparatus for providing data services (including enhanced ultra-high data rate services and IoT data services) which leverage existing managed network (e.g., cable network) infrastructure, while also providing support and in some cases utilizing the 3GPP requisite NSA functionality. Also disclosed are the ability to control nodes within the network via embedded control channels, some of which 'repurpose' requisite 3GPP NSA infrastructure such as LTE anchor channels. In one variant, the premises devices include RF-enabled receivers (enhanced consumer premises equipment, or CPEe) configured to receive (and transmit) OFDM waveforms via a coaxial cable drop to the premises. In another aspect of the disclosure, methods and apparatus for use of one or more required NSA LTE channels for transmission of IoT user data (and control/management data) to one or more premises devices are provided.

Growing community of inventors

Parker, CO, United States of America

Elliott D Hoole