Abstract: The disclosed computer-implemented method may include receiving an indication that a transportation application has been initialized on a computing device and analyzing current dispatch conditions affecting the dispatch of transportation provider devices to the computing device. The method may also include determining, based on the analysis, that the current dispatch conditions allow for an ephemeral ride mode to be offered on the transportation application. The method may further include instructing, based on the determination, the computing device to at least temporarily present the ephemeral ride mode within the transportation application as a selectable option. Various other methods, systems, and computer-readable media are also disclosed.

Abstract: A computing system assists in large language model system assisted investigations. The computing system includes network connection hardware configured to connect to a large language model and configured provide to investigation context and investigation goals to the large language model system. The network connection receives from the large language model system, an indication of suggested steps to perform in an investigation, including specific computer executable code to perform a skill in the first step, the skill comprising a supplemental access, analytic or enrichment function. The computing system includes a user interface with a tree interface that causes display of the indication of the suggested steps in a tree format. The computing system is configured to execute the computer executable code to cause the computer system to perform the supplemental access, analytic or enrichment function.

Abstract: A large language model consumes example query expressions, including a data access function, a data analytics function, or a data enrichment function. The large language model receives a centrally managed ontology. The large language model uses the centrally managed ontology, and identifies skill ontological types from the example query expressions. The skill ontological types are normalized (to the centrally managed ontology) input arguments types or structured output. The large language model receives context for an investigation and identifies a context ontological type. The large language model receives received skills, based on correlation between a skill ontological type, having connections in a graph to the received skills, and the context ontological type. The large language model produces and provides an indication of a suggested skill for the investigation.

Abstract: The present disclosure relates to smart policy routing in a network. To this end, a network entity is configured to obtain policy information from a controller. The policy information can include one or more global intents and information about at least one SLA requirement for each of the plurality of flow groups. Furthermore, each global intent is indicative of one requirement of a network operator. The network entity further makes one or more routing decisions for the plurality of flow groups based on the policy information. In some examples, a controller is configured to provide policy information to the network entity.

Abstract: A controller is configured to obtain traffic information of one or more tunnels in the network, where the traffic information of each tunnel is indicative of a protection type of the tunnel against failures, and provide configuration information to each network node that is a head-end node of a determined tunnel with a certain protection type according to the obtained traffic information of the determined tunnel, where the configuration information includes a bandwidth threshold and a load balancing configuration for the determined tunnel. A network node is configured to receive configuration information from the controller, and send the notification to the controller, if it is determined that the traffic of the tunnel is above the bandwidth threshold.

Abstract: The invention relates to an ophthalmic lens (1) for a pair of sunglasses, said ophthalmic lens including at least one substrate (13), the lens (1) having a transmission spectrum such that: the transmittance at wavelengths shorter than 380 nm is lower than 1%; the spectrum includes a first transmittance maximum (MAX-1) having a transmittance higher than 8% between 390 nm and 420 nm; the spectrum includes a first transmittance minimum (MIN-1) between 426 nm and 440 nm; the transmittance between 450 nm and 500 nm is higher than 10%; the spectrum includes between 570 nm and 595 nm a second transmittance minimum (MIN-2); the spectrum includes between 590 nm and 620 nm a second transmittance maximum (MAX-2); the spectrum includes in the wavelength range comprised between 620 nm and 640 nm a third transmittance minimum (MIN-3); the transmittance at wavelengths longer than 640 nm is higher than 14%.

Abstract: A controller is configured to obtain traffic information of one or more tunnels in the network, where the traffic information of each tunnel is indicative of a protection type of the tunnel against failures, and provide configuration information to each network node that is a head-end node of a determined tunnel with a certain protection type according to the obtained traffic information of the determined tunnel, where the configuration information includes a bandwidth threshold and a load balancing configuration for the determined tunnel. A network node is configured to receive configuration information from the controller, and send the notification to the controller, if it is determined that the traffic of the tunnel is above the bandwidth threshold.

Abstract: The present disclosure relates to the field of transport networks, packet-based network systems, and load balancing in such network systems. More specifically, the load balancing is performed on a network cycle level. The present disclosure provides a network device for cycle-based load balancing, configured to obtain a load balancing policy comprising an input cycle identifier and an associated output identifier. The network device is further configured to obtain a network packet in an input cycle of the network device, determine an output of the network device based on the input cycle, the input cycle identifier, and the associated output identifier, and provide the network packet to the output of the network device.

Abstract: A control device for a software programmable network including one or more nodes and supporting traffic of guaranteed quality of service, QoS, and best-effort, BE, traffic with a predetermined resource distribution between guaranteed QoS and BE service classes, comprises: a processing circuitry configured to determine a new resource distribution between guaranteed QoS and BE service classes different from the predetermined resource distribution according to a demand for QoS service, to calculate, for each node, a new configuration indicating the new resource distribution, and to calculate, for each entry node to the network among the one or more nodes, a label distribution sequence indicating one or more label distributions with associated activation timing information so as to reduce jitter or packet loss; and a transceiver configured to transmit the new configurations to respective nodes, and to transmit the label distribution sequences to respective entry nodes.

Abstract: The disclosed computer-implemented method may include receiving an indication that a transportation application has been initialized on a computing device and analyzing current dispatch conditions affecting the dispatch of transportation provider devices to the computing device. The method may also include determining, based on the analysis, that the current dispatch conditions allow for an ephemeral ride mode to be offered on the transportation application. The method may further include instructing, based on the determination, the computing device to at least temporarily present the ephemeral ride mode within the transportation application as a selectable option. Various other methods, systems, and computer-readable media are also disclosed.

Abstract: The invention relates to an ophthalmic lens (1) for a pair of sunglasses, said ophthalmic lens including at least one substrate (13), the lens (1) having a transmission spectrum such that: the transmittance at wavelengths shorter than 380 nm is lower than 1%; the spectrum includes a first transmittance maximum (MAX-1) having a transmittance higher than 8% between 390 nm and 420 nm; the spectrum includes a first transmittance minimum (MIN-1) between 426 nm and 440 nm; the transmittance between 450 nm and 500 nm is higher than 10%; the spectrum includes between 570 nm and 595 nm a second transmittance minimum (MIN-2); the spectrum includes between 590 nm and 620 nm a second transmittance maximum (MAX-2); the spectrum includes in the wavelength range comprised between 620 nm and 640 nm a third transmittance minimum (MIN-3); the transmittance at wavelengths longer than 640 nm is higher than 14%.

Abstract: The invention relates to an ophthalmic lens (1) for a pair of sunglasses, said ophthalmic lens including at least one substrate (13), the lens (1) having a transmission spectrum such that: the transmittance at wavelengths shorter than 380 nm is lower than 1%; the spectrum includes a first transmittance maximum (MAX-1) having a transmittance higher than 8% between 390 nm and 420 nm; the spectrum includes a first transmittance minimum (MIN-1) between 426 nm and 440 nm; the transmittance between 450 nm and 500 nm is higher than 10%; the spectrum includes between 570 nm and 595 nm a second transmittance minimum (MIN-2); the spectrum includes between 590 nm and 620 nm a second transmittance maximum (MAX-2); the spectrum includes in the wavelength range comprised between 620 nm and 640 nm a third transmittance minimum (MIN-3); the transmittance at wavelengths longer than 640 nm is higher than 14%.

Abstract: The invention relates to an ophthalmic lens (1) for a pair of sunglasses, said ophthalmic lens including at least one substrate (13), the lens (1) having a transmission spectrum such that: the transmittance at wavelengths shorter than 380 nm is lower than 1%; the spectrum includes a first transmittance maximum (MAX-1) having a transmittance higher than 8% between 390 nm and 420 nm; the spectrum includes a first transmittance minimum (MIN-1) between 426 nm and 440 nm; the transmittance between 450 nm and 500 nm is higher than 10%; the spectrum includes between 570 nm and 595 nm a second transmittance minimum (MIN-2); the spectrum includes between 590 nm and 620 nm a second transmittance maximum (MAX-2); the spectrum includes in the wavelength range comprised between 620 nm and 640 nm a third transmittance minimum (MIN-3); the transmittance at wavelengths longer than 640 nm is higher than 14%.

Abstract: A device for coordinated movement and/or orientation of a tracking tool relative to a portable tool handled by an operator on a production station allows a tracking tool to track the movements of a portable tool handled by an operator, without the intervention of an additional operator. Also described is a smoothing method using the device, as well as a smoothing station for implementing the method.

Abstract: Installation of transport by overhead cable including at least one chair configured to be suspended on the overhead cable and including a pivoting seat surface, a back rest and a pivoting mechanism to modify the inclination of the seat surface with respect to the back rest, the installation including an actuator configured to cooperate with the pivoting mechanism so as to control pivoting of the seat surface, the actuator being mounted movable between a raised position in which the actuator controls raising of the seat surface in the direction of the back rest and a lowered position in which the actuator controls lowering of the seat surface.

Abstract: An ophthalmic lens comprising a substrate is provided with the lens having a transmission spectrum such that the mean transmission value in the wavelength range between 380 nm inclusive and 780 nm inclusive is less than 60%, the mean transmission value at wavelengths less than or equal to 400 nm is less than 1%, the mean transmission value at wavelengths greater than 400 nm inclusive and less than 500 nm inclusive is less than 30% with a transmission minimum of less than 10% between 425 nm and 445 nm inclusive and the mean transmission value in the wavelength range between 400 nm and 500 nm has a first transmission maximum located between 405 nm and 425 nm.

Abstract: Cableway installation including at least one vehicle designed to be hauled by the cable, a loading terminal including a boarding area where passengers are positioned to board the vehicle, a drive motor of the vehicle in the boarding area, image acquisition device generating at least one image representative of the vehicle and of the passengers in the boarding area, and an electronic control unit configured to determine a surveillance area around the vehicle and the positions of the passengers, in the at least one representative image, and to generate a speed setpoint for the motor according to the positions of the passengers in the surveillance area.

Abstract: An ophthalmic lens comprising a substrate is provided with the lens having a transmission spectrum such that the mean transmission value in the wavelength range between 380 nm inclusive and 780 nm inclusive is less than 60%, the mean transmission value at wavelengths less than or equal to 400 nm is less than 1%, the mean transmission value at wavelengths greater than 400 nm inclusive and less than 500 nm inclusive is less than 30% with a transmission minimum of less than 10% between 425 nm and 445 nm inclusive and the mean transmission value in the wavelength range between 400 nm and 500 nm has a first transmission maximum located between 405 nm and 425 nm.

Abstract: An ophthalmic lens comprising a substrate is provided with the lens having a transmission spectrum such that the mean transmission value in the wavelength range between 380 nm inclusive and 780 nm inclusive is less than 60%, the mean transmission value at wavelengths less than or equal to 400 nm is less than 1%, the mean transmission value at wavelengths greater than 400 nm inclusive and less than 500 nm inclusive is less than 30% with a transmission minimum of less than 10% between 425 nm and 445 nm inclusive and the mean transmission value in the wavelength range between 400 nm and 500 nm has a first transmission maximum located between 405 nm and 425 nm.

Abstract: An elevator system includes an elevator car movable along a hoistway, a traveling cable operably connected to the elevator car and movable along the hoistway with the elevator car, and a traveling cable support positioned in the hoistway and operably connected to the traveling cable to prevent sway of the traveling cable. A traveling cable and traveling cable support arrangement for an elevator system includes a traveling cable positioned in a hoistway and movable in the hoistway during elevator system operation, and a traveling cable support positioned in the hoistway and operably connected to the traveling cable to prevent sway of the traveling cable, the traveling cable support operably connected to the traveling cable via a plurality of guide frames.