Abstract: A computer-implemented method for configuring one or more systems related to the operation of a vehicle includes: in response to receiving input data indicative of a user being about to initiate an operation of the vehicle: determining an identity of the user, loading first data representative of one or more mapping rules from a first memory device, selecting and loading second data representative of one or more generic settings from a second memory device, wherein selecting the data is based on the identity of the user, transforming, based on the mapping rules, the generic settings into vehicle-specific settings, and configuring, based on the vehicle-specific settings, the one or more systems related to the operation of the vehicle.

Abstract: A method and an apparatus for generating a 3D face comprising at least one region deformed according to a deformation style are provided. 3D data representative of at least one region of a first 3D face is provided as input to a neural network-based geometry deformation generator. Data representative of the deformation style is provided as input to the neural network-based geometry deformation generator. The 3D face comprising the at least one deformed region is obtained from the neural network-based geometry deformation generator, wherein the at least one deformed region includes geometry deformations representative of the deformation style.

Abstract: A method and an apparatus for generating a 3D face comprising at least one deformed region are disclosed. A curvature exaggeration face is obtained from at least one region of a first 3D face, and a proportion exaggeration deformation is obtained for said least one region of said first 3D face. The curvature exaggeration face and the proportion exaggeration deformation for obtaining said at least one deformed region of said 3D face are combined.

Abstract: A computer-implemented method for configuring one or more systems related to the operation of a vehicle includes: in response to receiving input data indicative of a user being about to initiate an operation of the vehicle: determining an identity of the user, loading first data representative of one or more mapping rules from a first memory device, selecting and loading second data representative of one or more generic settings from a second memory device, wherein selecting the data is based on the identity of the user, transforming, based on the mapping rules, the generic settings into vehicle-specific settings, and configuring, based on the vehicle-specific settings, the one or more systems related to the operation of the vehicle.

Abstract: An optoelectronic light emitting device includes a light emitting diode configured to emit a first radiation, a conversion layer including at least one planar quantum well configured to convert the first radiation into a second radiation, by photoluminescence, a grating for extracting the second radiation being etched on an upper face of the layer, and a lateral reflector having a reflective surface which extends facing part at least of a lateral surface of the conversion layer.

Abstract: A laser diode of the VC SEL type includes, superimposed on top of a substrate, a bottom Bragg mirror, a region of one or more quantum wells, and a top Bragg mirror. A section of the bottom Bragg mirror has an area that is less than that of a section of the top Bragg mirror, the sections being defined in planes parallel to the plane of the substrate. The laser diode further includes a peripheral region, constituted by a confinement material, situated between the substrate and the top Bragg mirror, and surrounding at least the bottom Bragg mirror. The laser diode is devoid of any laterally-oxidized layer. Thanks to the specific geometrical configuration of the laser diode, the charge carriers are confined, during operation, to the center of the laser diode.

Abstract: Embodiments are directed to monitoring vehicle operations. If sensor information based on sensor data captured by a sensor computer installed in a vehicle is provided to a server by a client computer. An analysis engine may compare the sensor information to vehicle models associated with the vehicle. One or more reports based on the comparison may be distributed registered subscribers. A modeling engine may be employed to update the vehicle models based on the sensor information. The one or more updated vehicle models may be communicated to one or more client computers that may be associated with one or more users. The sensor information may be obtained from the sensor computer. Sensor information may include metrics associated with the operation of the vehicle. Metrics may include timestamps, road shocks, straight line driving, harshness, acceleration, deceleration, trip length, travel speeds, or the like.

Abstract: A nonlinear optical microscope is provided, including source of a pulsed laser beam; a spatial light modulator for modulating the spatial profile of the pulsed laser beam; an objective for guiding the modulated beam towards a slide intended to carry a specimen; and a detector for collecting signals originating from the specimen, wherein the spatial light modulator is designed to modulate the intensity and/or the phase of the pulsed laser beam on the rear pupil of the objective to produce a beam that is axially extended and confined in one or two lateral directions after focusing by the objective, and wherein the slide is placed on a motorized stage of a histology slide scanner assembly.

Abstract: Embodiments are directed to monitoring vehicle operations. If sensor information based on sensor data captured by a sensor computer installed in a vehicle is provided to a server by a client computer. An analysis engine may compare the sensor information to vehicle models associated with the vehicle. One or more reports based on the comparison may be distributed registered subscribers. A modeling engine may be employed to update the vehicle models based on the sensor information. The one or more updated vehicle models may be communicated to one or more client computers that may be associated with one or more users. The sensor information may be obtained from the sensor computer. Sensor information may include metrics associated with the operation of the vehicle. Metrics may include timestamps, road shocks, straight line driving, harshness, acceleration, deceleration, trip length, travel speeds, or the like.

Abstract: Embodiments are directed to monitoring vehicle operations. If sensor information based on sensor data captured by a sensor computer installed in a vehicle is provided to a server by a client computer. An analysis engine may compare the sensor information to vehicle models associated with the vehicle. One or more reports based on the comparison may be distributed registered subscribers. A modeling engine may be employed to update the vehicle models based on the sensor information. The one or more updated vehicle models may be communicated to one or more client computers that may be associated with one or more users. The sensor information may be obtained from the sensor computer. Sensor information may include metrics associated with the operation of the vehicle. Metrics may include timestamps, road shocks, straight line driving, harshness, acceleration, deceleration, trip length, travel speeds, or the like.

Abstract: A system for communicating via a wireless link is disclosed. The system may include a watch movement, a wristband, or an appliance. The system may also include a microprocessor having a Bluetooth® low energy radio. The microprocessor may be configured to receive a notification of an event from a Bluetooth® device and, in response to receiving the notification, activate an indicator on the watch movement, wristband, or appliance. Furthermore, the microprocessor may be configured to receive user input and transmit data via a Bluetooth® link to a smartphone or tablet where it may be received by an application.

Abstract: The laser device includes an amplifier including a III-V heterostructure arranged to generate photons, and a waveguide which forms a loop and is optically coupled to the amplifier. The amplifier is arranged facing the waveguide only in the region of a first section of the waveguide.

Abstract: A nonlinear optical microscope is provided, including source of a pulsed laser beam; a spatial light modulator for modulating the spatial profile of the pulsed laser beam; an objective for guiding the modulated beam towards a slide intended to carry a specimen; and a detector for collecting signals originating from the specimen, wherein the spatial light modulator is designed to modulate the intensity and/or the phase of the pulsed laser beam on the rear pupil of the objective to produce a beam that is axially extended and confined in one or two lateral directions after focusing by the objective, and wherein the slide is placed on a motorized stage of a histology slide scanner assembly.

Abstract: Systems and methods for providing notifications to a user include a first computing device associated with a user and having one or more event indicators that present notifications of events to a user, a second computing device in wireless communication with the first computing device, the second computing device including information about a current status of the user; and a notification filtering engine in communication with the first computing device to modify the notifications of the events presented by the first computing device in response to the current status of the user.

Abstract: The laser includes an amplifier with III-V heterostructure, designed to generate an optical wave, and a waveguide coupled optically to the amplifier, said waveguide having a hat-shaped cross section, the top of which is proximal to the amplifier. The top of the hat and the lateral sides of the hat are covered with a layer of a dielectric material in the vicinity of the amplifier. The hat is formed by a base and a protrusion of the waveguide, the material forming the base being distinct from the material forming the protrusion.

Abstract: The laser device includes an amplifier including a III-V heterostructure arranged to generate photons, and a waveguide which forms a loop and is optically coupled to the amplifier. The amplifier is arranged facing the waveguide only in the region of a first section of the waveguide.

Abstract: A system for communicating via a wireless link is disclosed. The system may include a watch movement, a wristband, or an appliance. The system may also include a microprocessor having a Bluetooth® low energy radio. The microprocessor may be configured to receive a notification of an event from a Bluetooth® device and, in response to receiving the notification, activate an indicator on the watch movement, wristband, or appliance. Furthermore, the microprocessor may be configured to receive user input and transmit data via a Bluetooth® link to a smartphone or tablet where it may be received by an application.

Abstract: The laser includes an amplifier with III-V heterostructure, designed to generate an optical wave, and a waveguide coupled optically to the amplifier, said waveguide having a hat-shaped cross section, the top of which is proximal to the amplifier. The top of the hat and the lateral sides of the hat are covered with a layer of a dielectric material in the vicinity of the amplifier. The hat is formed by a base and a protrusion of the waveguide, the material forming the base being distinct from the material forming the protrusion.

Abstract: A method for acquiring signals in laser scanning microscopy, includes the steps of: moving a focused optical excitation beam relative to an object to be measured so that the focus point of the beam follows a predetermined path in the space of the object; and acquiring optical measurement signals along the path according to at least one acquisition parameter; characterized in that the path of the excitation beam is determined so as to substantially minimize the variations of the optical properties of at least one portion of the environments crossed by the excitation beam between consecutive acquisitions, and in that at least one acquisition parameter among the acquisition parameters is modulated during the movement of the excitation beam. A device for implementing the method is also described.

Abstract: A method for the dimensional characterization of a structured material, in which method: an excitation laser beam suitable for coherent nonlinear microscopy is generated, this excitation laser beam being focused in a focal volume within the structured material; signals emitted by the structured material are detected; a plurality of emission patterns, each corresponding to one particular shape of the focal volume, is produced, the particular shapes being obtained for various non-Gaussian spatial profiles of the excitation laser beam wavefront; and on the basis of the emission patterns thus produced, dimensional characteristics of the structured material are deduced therefrom.