Abstract: An example operation may include one or more of displaying a report on a user interface of a software application on a user device, listening to a call between a user on the user device and a different user on a second user device that is connected to the user device via a network, executing a generative artificial intelligence (GenAI) model based on content that is heard during the call and content within the report displayed on the user interface to identify content within the displayed report that is discussed during the call, and modifying the displayed report to emphasize the identified content within the displayed report on the user interface.

Abstract: An example operation may include one or more of storing a current portfolio of a user in memory, receiving contextual data of the user from a user device of the user, identifying an asset of interest of the user based on execution of a generative artificial intelligence (GenAI) model based on the received contextual data of the user and the current portfolio of the user stored in memory, predicting a performance of the current portfolio with the identified asset of interest included therein at a future point in time, and displaying the predicted performance of the current portfolio with the identified asset of interest included therein on a user interface.

Abstract: An example operation may include one or more of receiving a current status of a portfolio of a user and previous actions taken on the portfolio of the user over a predetermined period of time, determining a goal for the user based on execution of a generative artificial intelligence (GenAI) model on the current status of the portfolio of the user and the previous actions taken, receiving a request for the portfolio of the user via a user device, and in response to the request, generating a text-based description of the goal and displaying the text-based description of the goal with portfolio content from the portfolio of the user on a user interface of the user device.

Abstract: An example operation may include one or more of storing a portfolio of assets of a user in memory, receiving contextual data of the user from a user device of the user, identifying an asset of interest that is not included in the portfolio of assets of the user based on execution of a generative artificial intelligence (GenAI) model on the portfolio of assets of the user and the received contextual data of the user, generating a different portfolio of assets based on the asset of interest that is not included in the portfolio of assets of the user, and displaying the different portfolio of assets via a user interface.

Abstract: An example operation may include one or more of receiving content from a conversation between a user on a user device and a second user on a second user device that is connected to the user device via a network, identifying a topic of the conversation based on execution of a generative artificial intelligence (GenAI) model on the received content from the conversation, identifying a call list that is previously stored in memory that is associated with the topic of the conversation based on keywords included in the identified topic of the conversation, and adding an identifier of the user to the call list stored in memory.

Abstract: An example operation may include one or more of storing a portfolio of assets of a user in memory, receiving text from a conversation between the user on a first device and a second user on a second device, identifying an upcoming life event of the user based on execution of a generative artificial intelligence (GenAI) model on the received text from the conversation, determining a change to the portfolio of assets of the user based on the upcoming life event and existing assets within the portfolio of assets, and displaying the change to the portfolio of assets of the user via a user interface.

Abstract: An example operation may include one or more of receiving a conversation of a user, identifying a goal of the user from the conversation, identifying a different user that is associated with the identified goal of the conversation, generating a call script comprising a description of content therein to be discussed with a different user based on execution of a generative artificial intelligence (GenAI) model on the identified goal, and integrating the call script into a digital calendar of the different user.

Abstract: The present invention relates to an optical fiber (100, 101, 103, 105, 107) having a core region (102) and a cladding region (104). In particular, the cladding region (104) has exactly one down-doped region (210, 310) and an undoped region (212, 312). The down doped region (210, 310) is a continuous region adjacent to core region (102) such that radial position of minimum relative refractive index (214, 314) of the optical fiber (100, 101, 103, 105, 107) is within 3 micrometers (?m) from interface between the down doped region (210, 310) and the undoped region (212, 312). Further, the mode field diameter of the optical fiber (100, 101, 103, 105, 107) is in range of 8.8 ?m to 9.6 ?m at a wavelength 1310 nanometres (nm), and cable cut-off of the optical fiber (100, 101, 103, 105, 107) is less than or equal to 1260 nm.

Abstract: The present invention discloses a preform assembly and a method for drawing a multicore optical fibre and a holey fibre. Particularly, the preform assembly includes a hollow cylindrical tube, a plurality of discs stacked inside the hollow cylindrical tube and a plurality of core rods inserted in a plurality of through holes in each of the plurality of discs.

Abstract: A server computer system comprises a communications module; a processor coupled with the communications module; and a memory coupled to the processor and storing processor-executable instructions which, when executed by the processor, configure the processor to provide, via the communications module and to a computing device, a graphical user interface that includes interface elements that represent a series of activation steps and identifies one of the activation steps as a current activation step, the representation of the current activation step selectable to communicate with a dedicated server computer system performing the current activation step to display information related to the current activation step; determine that the current activation step has been completed; and update the graphical user interface to disable the representation of the current activation step as selectable; identify another one of the activation steps as a next current activation step; and enable the representation of the next

Abstract: The present invention relates to an optical fiber 100 having a core (102) which is up doped and a cladding (104) surrounding the core (102). Particularly, the cladding (104) has a first cladding (104a) defined by a first relative refractive index difference (?1). Moreover, the first cladding (104a) is a continuous region adjacent to the core (102) such that a relative refractive index profile of the first cladding (104a) is an alpha profile. Further, the optical fiber (100) has mode field diameter in the range of 8.2 micrometer (?m) to 9.0 ?m at a wavelength of 1310 nanometer (nm), and a cut-off wavelength less than or equal to 1260 nm.

Abstract: The present invention relates to an optical fiber (100) having a core region (102) and a cladding (104) defined by a relative refractive index profile (202). Particularly, the relative refractive index profile (202) varies from a center of the core region (102) to a periphery of the cladding (104). Moreover, the relative refractive index profile (202) has at least two low relative refractive index regions (208, 210) such that a relative refractive index at an interface (212, 218) of the at least two low relative refractive index regions (208, 210) is in a range between 0 and ?0.1%.

Abstract: Systems and methods for processing data messages to determine a presentation mode to be used for displaying a prompt on a display with limited screen area. Messages are processed to determine a presentation mode and ranking, and then a prompt is displayed in a target area of the display that is visible with minimal user interaction.

Abstract: The present disclosure provides a multi-core fiber (MCF) and manufacturing method thereof and an MCF marker (or marker). The MCF (100) comprises a plurality of cores (102) and a marker (108). Each core is associated with a core diameter (104) and a core-placement-radius (106) and the marker (108) is associated with a marker diameter (110) and a marker-placement-radius (112). The marker has a marker core (116) and a marker clad (118) with a D/d ratio between 5 to 20. During manufacturing, the MCF is drawn from a preform assembly (200) having a top hollow handle (202) with a handle thickness (114) attached on a top end of a glass preform (204) that has a plurality of core holes (206) and a marker hole (210), wherein the marker hole (210) is at least partially covered by the top hollow handle of the handle thickness (114).

Abstract: Systems and methods for processing data messages to determine a presentation mode to be used for displaying a prompt on a display with limited screen area. Messages are processed to determine a presentation mode and ranking, and then a prompt is displayed in a target area of the display that is visible with minimal user interaction.

Abstract: The present invention relates to a multi-core optical fiber having a plurality of cores (102) and a cladding (108) surrounding the plurality of cores (102). The cladding (108) has a peripheral cladding layer (108b) that is down doped such that a leakage loss of the multi-core optical fiber (100) is less than 0.001 Decibel/Kilometer (dB/Km) at a wavelength 1550 nanometers (nm).

Abstract: The present invention relates to a method (200, 400, 500, 600) for drawing a bare optical fiber (118) from a cylindrical glass preform (102) in a furnace chamber (104) by hanging the cylindrical glass preform (102) near a first end (104a) of the furnace chamber (104), injecting first and second inert gasses inside the furnace chamber (104) in a predefined ratio of 0.3 to 5, and melting the cylindrical glass preform (102) while maintaining a positive pressure in the furnace chamber (104) to form the bare optical fiber (118) such that a Bare Fiber Diameter (BFD) variation of the bare optical fiber (118) is less than 0.1 micrometers (?m) from a mean diameter of the bare optical fiber (118).

Abstract: Systems and methods for processing data messages to determine a presentation mode to be used for displaying a prompt on a display with limited screen area. Messages are processed to determine a presentation mode and ranking, and then a prompt is displayed in a target area of the display that is visible with minimal user interaction.

Abstract: Disclosed is a multi-core optical fiber having a plurality of cores extending parallelly along a central axis of the multi-core optical fiber. Each core of the plurality of cores is up-doped with an up-dopant. The multi-core optical fiber further has a plurality of buffer layers such that each buffer layer of the plurality of buffer layers envelop a corresponding core of the plurality of cores. Each buffer layer of the plurality of buffer layers has a predefined buffer layer thickness. The multi-core optical fiber further has a plurality of trench layers such that each trench layer of the plurality of trench layers envelops a corresponding buffer layer of the plurality of buffer layers. Each trench layer of the plurality of trench layers is down-doped with a down-dopant. The multi-core optical fiber has an inter-core crosstalk of less than ?30 decibel/kilometres (dB/km) at a wavelength of 1550 nanometres (nm).

Abstract: The present invention relates to an optical fiber (100, 120, 142) comprising a silica region (102, 122, 144), a first coating (104, 124, 146), and a second coating (106, 126, 148). The first coating (104, 124, 146) is adapted to cover an outer circumference of the silica region (102, 122, 144). The second coating (106, 126, 148) adapted to cover an outer surface of the first coating (104, 124, 146). Moreover, the first coating (104, 124, 146) and the second coating (106, 126, 148) are adapted to cause a coating induced micro bend loss that is less than 2.2×103 N?1 mm?8.5.