An intermittently bonded optical fibre ribbon (100) with uniform matrix material density comprises of a plurality of optical fibres (102) arranged in parallel along the length direction and a plurality of bonded portions (104) and unbonded portions (106) between each pair of the optical fibres (102). There is atleas...

An intermittently bounded optical fiber ribbon structure is disclosed. The structure includes a plurality of optical fibers. The structure also includes a plurality of bonds. Each of the plurality of bonds are arranged in a pre-defined pattern. At least one of the plurality of bonds is configured to bind at least tw...

An improved optical fibre cable 100 is disclosed. The cable 100 includes one or more micromodules 102, each micromodule 102 enclosing a plurality of optical fibers 104; and a jacket 108 enclosing the micromodules 102. The cable 100 has an optimized breaking load in a range of 1500N to 2500N, which is just sufficient...

A wide-angle Frequency Scanning Antenna (FSA) and a method thereof are disclosed. The FSA includes at least two substrate waveguide layers of a pre-defined thickness, wherein the at least two substrate waveguide comprises a top substrate waveguide layer and a bottom substrate waveguide layer. The FSA also includes a...

A wide-angle FSA with narrow band width and a method thereof are provided. The FSA includes a plurality of customized waveguide layers comprising of a bottom layer, a middle layer, a top layer and an integrated layer; a meandered line sections, a probe including a stub; the middle layer includes slots on a metal pl...

ABSTRACT “AERIAL OPTICAL FIBER CABLE” An optical fiber cable [100] is disclosed that is capable of aerial suspension. The optical fiber cable [100] comprises at least one substantially round, flexible outer sheath [102]; at least one easily peelable color coded sleeves [106] enclosing plurality of fibers [104];...

Systems and methods for efficient power management in a wireless communication network are described. In particular, the system (for example, implemented at a radio unit) may monitor a downlink traffic at the radio unit in the wireless communication network. Further, the system may determine a low traffic state of t...

Systems and methods for efficient time multiplexed digital beamforming in a network are described. In particular, the system (for example, a radio unit) receives a C-plane packet from a fronthaul interface and stores corresponding control information of the C-plane packet at a scheduler, stores beam weight informati...

Systems and methods for efficient coordination in a network for power management are described. In particular, the system (for example, a radio unit) monitors a downlink traffic at the radio unit in the network, and determines a low traffic state of the radio unit. Further, the system identifies a power consumption ...

Systems and methods for efficient automatic calibration of radio frequency (RF) chains in a base station 300 are described. In particular, the method includes monitoring a value of a number of resource block set by a higher layer in the base station 300, updating a configuration of each of a plurality of RF transmit...

Approaches for managing radio frequency signal coupling are described. An apparatus may include a baseband processor with a plurality of transceiver chains including a plurality of transmit chains. Each of the plurality of transmit chains includes a power amplifier configured to receive an input signal from the base...

The present invention provides an optical fiber ribbon (10) comprising a plurality of optical fibers (11) with coating of superabsorbent material (C). The coating (C) is applied selectively on bonded regions (13) or unbonded regions (14) of the ribbon (10). The ribbon (10) provides for reduced diameter, higher packi...

The present disclosure provides an optical fiber cable (10), which is a drop cable suitable for both indoor and outdoor application, and is resistant to damage due to harsh environmental conditions and other external conditions. The cable (10) comprises a cable subunit (12) comprising an optical fiber (14), and at ...

The present disclosure discloses an antenna hinge assembly for a wireless communication device [120]. The antenna hinge assembly comprises a first assembly [126], wherein the first assembly [126] comprises at least a boss sleeve [122] and a plurality of groove slots [124]. The antenna hinge assembly further comprise...

Described herein is a thermal imaging device [100] comprising a lens unit [102], an electronic control unit (ECU) [200], a housing unit [300] adapted to house and support the ECU [200] therein, a heat sink unit [104] adapted to dissipate heat from the ECU [200], and a sealing arrangement [108] to fluidly house and s...

Described herein is a bobbin [200] for winding an optical fiber thereon. The bobbin [200] comprises: at least one side plate [102] installed on an end thereof, to define a secondary optical fiber winding region [200b] around a periphery thereof; a cylindrical portion [202] defining a primary optical fiber winding re...

The present invention provides an armored cable (100) comprising a central core (102) comprising a plurality of intermittently bonded ribbon (IBR) bundles (104) enclosed in a protective layer (106), which is placed within an armor layer (108). An outer cable jacket (110) surrounds the armor layer (108), which option...

The present invention provides an armored cable (100, 200) comprising a plurality of optical fibers (106) arranged in a plurality of IBRs, which can be bundled or unbundled. The IBRs are enclosed by a first layer of thin polymer sheath (102, 202). The first layer (102, 202) is further enclosed in a second layer (108...

The present invention provides an armored cable (100) comprising a plurality of sub units (104), the sub units (104) comprising a plurality of optical fibers (106). The sub units (104) are enclosed in a thin protective layer (110), which is placed within an armor layer (108). An outer cable jacket (112) surrounds th...

The present invention provides an optical fiber cable (100) comprising a sheath layer (120) comprising a plurality of strength members (130) embedded in the sheath layer (120). The plurality of strength members (130) comprise at least a first group of strength members (130a) and a second group of strength members (1...

Systems (200) and methods for energy management in a base station (1102) on a per service basis are described. In particular, the method includes receiving a request for a service corresponding to a user equipment in an access network (102), determining a type of the service based on the request, estimating a power ...

Systems and methods for energy policy enforcement on a per service basis are described. In particular, the method includes receiving (302) a set of network-monitored power parameters from a base station (112-1) in an access network, the set of network-monitored power parameters corresponding to a service associated ...

Systems and methods for antenna calibration of transmit chains in a base station are described. In particular, the method includes determining, by a controller (232), that user data transmission is initiated in an operating phase of the base station. A need for calibration of a plurality of transmit chains in the ba...

Systems and methods for antenna calibration of receive chains in a multiple-input-multiple-output (MIMO) wireless communication device are described. In particular, the method includes determining, by a controller (234) associated with the MIMO wireless communication device, that user data transmission is initiated ...

Systems and methods for dynamic Demodulation Reference Signal (DMRS) configuration described. An adaptive DMRS configuration based channel condition variation is described, where the allocation of DMRS in both time and frequency domain is dynamically configured based on a condition of a channel between a base statio...

Systems (100) and methods (500) for adaptive transmit power control in a wireless communication device are described. In particular, the method (500) includes setting (502) a power level of a baseband signal at a baseband subsystem (106), setting (504) a power level of a digital frontend (DFE) radio frequency (RF) s...

Systems (100) and methods (200) for end-to-end network power optimization in a wireless communication device are described. In particular, the method (200) includes receiving a request message for session establishment from a primary base station (112-1) in the access network, and determining an energy profile corre...

Systems (200) and methods (300) for adaptive average power tracking are described. In particular, the method includes determining an average power of each of a plurality of Orthogonal Frequency-Division Multiplexing (OFDM) symbols in a radio frame based on a set of power scaling factors and a number of Resource Ele...

Systems (100) and methods (200) for impulsive noise detection and mitigation are described. In particular, the system (100) includes a transmitter (102), a communication channel (106), and a receiver (104). The transmitter (102) is configured to encode an input signal, modulate the encoded signal for transmission th...

The present disclosure relates to a method (200A, 200B) for sensing an object in an integrated sensing and communication system. The method includes transmitting (201) a sensing signal, and receiving (202) a reflected signal, corresponding to the transmitted sensing signal from the object. The method includes filter...

The present disclosure relates to system (200) and method (900) for adaptive receiver tuning. The system (200) is configured to determine whether a voltage level of an input signal exceeds a threshold voltage value of one of a first low noise amplifier (LNA) (214A) and a second LNA (214B), and activate a termination...

The present disclosure relates to a method (700) for energy management of a user equipment (UE). The method includes determining (704), by a processor associated with a system, power profiles for each of a plurality of applications in the UE based on multiple parameters. Further, the method includes enabling (708), ...

The present disclosure relates to a method for characterization of objects in an integrated sensing and communication system (ISAC) (102). The sensing system (102) leverages 5G NR Synchronization Signal Block (SSB) signals to enhance sensing range while addressing power constraints. Operating in a monostatic configu...

The present disclosure provides a system 202 and a method 700 for managing power consumption in a network. Conventional solutions lack adaptive mechanisms to dynamically optimize power for both UE and base station during service transitions, often leading to unnecessary energy usage and degraded quality of service. ...

The present disclosure provides an optical fiber cable (100) comprising a plurality of modules (102) comprising one or more optical fibers (104). A first module (102-1) of the plurality of modules 102 is physically coupled to at least a second module (102-2) by at least a bond member 106. Apparatus and method of man...

Described herein is an automatic spool changeover system [200] and a method [300] of initiating spool changeover between a first spool [102] and a second spool [104] of the filament winding machine [100]. The automatic spool changeover system [200] comprises a deflector arrangement [202] having a deflection member [...

The present invention provides a duct (100) comprising a central cavity (102) extending in the longitudinal direction; and at least one peripheral cavity (104) extending in the longitudinal direction provided in the wall (106) of the duct (100), wherein the peripheral cavity (104) is adapted to enclose at least one ...

The present invention provides an optical fiber cable (100) comprising one or more optical fibers (102) enclosed within an outer sheath (104) of the optical fiber cable (100). The outer sheath (104) surface has an average roughness (Ra) in the range of 1 to 4 µm, and a maximum height of roughness (Rz) in the range o...