Abstract: The present invention relates to a color control system for controlling, in real time, the color of an article positioned on a moving carrier. The system comprises: an illuminating device configured to illuminate the moving article in successive illuminating cycles, each illuminating cycle comprising successively generating, at a given rate, a given number of lines of light having distinct spectral bands the lines of light being substantially perpendicular to the direction of movement; a detecting device configured to detect the light back scattered by the article successively illuminated by each of the lines of light, such as to generate for each dot of a given number of dots of an observation strip perpendicular to the direction of movement, a number of signals corresponding to the light back scattered by the dot; and a processing unit configured to determine at least one value representative of the color of the dot.

Abstract: A capsule configured for collecting samples in the intestine, comprising a body delimiting at least one compartment for receiving samples and comprising at least one opening for samples intake, and a mobile mechanism for opening and/or closing the opening controlled by the dissolution of a material which is dissolvable in the intestine.

Abstract: A method comprising: obtaining (601) a syntax element associated with video data, wherein said syntax element specifies that a cross-color component transform process in which at least one second color component is transformed based on at least one first color component different from the second color component is to be applied to the video data as a post processing process following a decoding process to be applied to the video data.

Abstract: The invention relates to an assembly for a turbomachine, comprising: —a nacelle comprising an inlet lip which defines an air inlet, and—a device for modifying the geometry of the air inlet, comprising: —a first spout, and—a second spout, the first spout and the second spout being translatably movable in relation the nacelle between: —a first configuration, in which the first spout forms the inlet lip and the second spout extends inside the nacelle, and—a second configuration, in which the first spout extends away from the inlet lip, and the second spout forms the inlet lip so as to define an air flow channel between a downstream surface of the first spout and an upstream surface of the second spout.

Abstract: A hand-held housing for a multi-purpose food preparation appliance, has at least one first drive output configured to drive a removable rotary work tool, an opening configured for mounting a removable work accessory, retaining members configured to engage with a connecting element of the work accessory mounted in the opening, and a second drive output configured to drive a rotary drive unit of the work accessory mounted in the opening. The retaining members are arranged on an outer part of a protrusion arranged inside the housing around the second drive output, the retaining members being configured to engage with an inner part of the connecting element.

Abstract: An aircraft radome includes a composite structure including, or according to the circumstances configured to define, at least one housing extending along the radome from a base of the radome. The housing receives an electrically conductive strip in contact with an inner surface of an outer wall, or according to the circumstances flush with the outer wall, of the composite structure. A conductive base is situated in the region of the radome base and connected to a ground of the aircraft. The composite structure of the radome is devoid of any perforations or through-passages in the region of the electrically conductive strip, and a first end of the electrically conductive strip is in contact with the conductive base.

Abstract: A variable speed drive includes an output terminal for delivering a drive voltage; a power inverter for generating the drive voltage; a drive controller for controlling the generation of the drive voltage; and a current sensor for providing a drive current intensity signal to the drive controller. The drive controller includes a PWM generator; a control law module; and a state variable estimator estimating a state variable of the controlled AC electric motor.

Abstract: A helmet is disclosed. The helmet comprises an outer shell defining a cavity to receive a head when worn. The outer shell includes a domed inner surface facing towards the cavity and an opposite outer surface. A liner is disposed in the cavity, the liner having a head facing surface and an outer surface opposite the head facing surface, the outer surface facing towards the domed inner surface of the outer shell. The liner comprises a three-dimensional lattice formed of a plurality of cells and at least one liner skin integrally formed with the three-dimensional lattice, the liner skin forming part of the head facing surface of the liner, the liner skin covering less than an entirety of the three-dimensional lattice so as to define a skinless surface area on the head facing surface of the liner.

Abstract: Embodiments of the invention are directed to enabling access transaction systems to accept different communication protocols. In some embodiment, an access device receives, from a portable device, an indication that a transaction is to be performed by exchanging transaction information between the portable device and a remote computer, wherein the remote computer is configured to communicate using a first communication protocol. Next, the access device determines that the portable device is configured to communicate using a second communication protocol. The access device then converts communications between the portable device and the remote computer from the second communication protocol to the first communication protocol to assist the portable device and the remote computer in exchanging the transaction information.

Abstract: A thin client may be utilized to facilitate data exchanges between two devices (e.g., a remote computer and a portable device). In some embodiments, the two devices may utilize differing communications protocols. The thin client may further be configured with a rules engine that determines one or more actions to be performed in response to one or more stimuli. The thin client may manage the processing flow between the two devices according to one or more predefined rules that are interpretable by the rules engine. The rules may be pushed to the thin client via any suitable device enabling the functionality of the thin client to be configured and/or modified without having to update the hardware and/or software of the thin client.

Abstract: The disclosed antenna includes: a radiating element disposed in a radiating plane transverse to an axis of the antenna; a reflecting plane, which is transverse to the axis, the radiating plane being located at a predetermined height above the reflecting plane; and a substrate, interposed between the radiating plane and the reflecting plane, and having a constant thickness. This antenna is characterized by a local relative electrical permittivity of the substrate that is a function of the radius, i.e. the distance to the axis, and a height, i.e. a distance to the reflecting plane, the local relative electrical permittivity being, at constant height, increasing as a function of the radius, and, at constant radius, increasing as a function of the height at least for a portion of the substrate in the vicinity of the reflecting plane.

Abstract: A method conducted using a mobile device is disclosed. The mobile device comprises a contactless application including a bridging module, a computer readable medium comprising a contactless kernel, wherein the contactless kernel includes a transceiver interface coupled to a processor. The mobile device includes a contactless element coupled to the processor. The method includes receiving a trigger signal indicative of a transaction to be executed. In response to receiving the trigger signal, the contactless kernel transmits first data to the bridging module. The contactless kernel is operable in a first mode of communication. The bridging module transforms the first data in the first mode of communication to first data in a second mode of communication and passes the first data to the contactless element. The contactless element transmits the first data to a user device, and thereafter receives second data from the user device to execute the transaction.

Abstract: A thin client may be utilized to facilitate data exchanges between two devices (e.g., a remote computer and a portable device). In some embodiments, the two devices may utilize differing communications protocols. The thin client may further be configured with a rules engine that determines one or more actions to be performed in response to one or more stimuli. The thin client may manage the processing flow between the two devices according to one or more predefined rules that are interpretable by the rules engine. The rules may be pushed to the thin client via any suitable device enabling the functionality of the thin client to be configured and/or modified without having to update the hardware and/or software of the thin client.

Abstract: A method includes receiving, by a server computer, a thin client identifier from a thin client on a communication device. The server computer can then retrieve an encrypted first cryptographic key based on the thin client identifier. The encrypted first cryptographic key is a first cryptographic key that is encrypted with a second cryptographic key. The server computer can initiate the sending of the encrypted first cryptographic key to the thin client. The server computer then receives an encrypted secret from the thin client, the encrypted secret being a secret encrypted with the first cryptographic key.

Abstract: Embodiments of the invention are directed to enabling access transaction systems to accept different communication protocols. In some embodiment, an access device receives, from a portable device, an indication that a transaction is to be performed by exchanging transaction information between the portable device and a remote computer, wherein the remote computer is configured to communicate using a first communication protocol. Next, the access device determines that the portable device is configured to communicate using a second communication protocol. The access device then converts communications between the portable device and the remote computer from the second communication protocol to the first communication protocol to assist the portable device and the remote computer in exchanging the transaction information.

Abstract: A protective helmet including an outer shell, and a liner assembly received in the outer shell and connected to the outer shell, the liner assembly defining a front portion configured to overlay a front of a head of a wearer, a rear portion configured to overlay a rear of the head of the wearer, a top portion disposed above and out of contact with a top of the head of the wearer when the helmet is worn, and two opposed side portions each configured to overlay a respective side of the head of the wearer. Each of the front, rear, side and top portions includes at least one zone where the liner assembly includes a plurality of overlapping layers.

Abstract: Embodiments of the invention are directed to enabling access transaction systems to accept different communication protocols. In some embodiment, an access device receives, from a portable device, an indication that a transaction is to be performed by exchanging transaction information between the portable device and a remote computer, wherein the remote computer is configured to communicate using a first communication protocol. Next, the access device determines that the portable device is configured to communicate using a second communication protocol. The access device then converts communications between the portable device and the remote computer from the second communication protocol to the first communication protocol to assist the portable device and the remote computer in exchanging the transaction information.

Abstract: A sport helmet has an outer shell including a first shell and a second shell movable relative to the first shell; levers hingedly connected to the first shell on left and right sides of the sport helmet for adjustably securing the first and second shells together; and finger-engageable locking actuators for selectively allowing movement of the levers from the engaged position to the disengaged position, the finger-engageable locking actuators being engaged to anchoring projections receivable within anchoring apertures, the finger-engageable locking actuators movable between a locked position and an unlocked position, wherein in the locked position movements of the levers relative to the first shell are limited via the anchoring projections, and wherein in the unlocked position the anchoring projections are disengaged from the anchoring apertures such that the levers are pivotable between the engaged position and the disengaged position.

Abstract: A protective sport helmet includes an outer shell, and an inner padding mounted within the outer shell for at least partially covering the wearer's head, the inner padding defining a base face oriented toward the wearer's head and at least one pedestal extending from the base face away from the outer shell, the pedestal defining a pedestal face facing the wearer's head. At least one tangential shock absorber has a first face at least partially covering the pedestal face and a second face opposed the first face and configured for contacting the wearer's head. The tangential shock absorber includes a shearable member that is deformable such that the first face is movable relative to the second face in a direction having a radial component relative to an axis normal to the pedestal face.

Abstract: Systems and methods are disclosed for performing a secure exchange of encryption keys (e.g., public keys) between two devices. One or more initialization keys are stored at both devices. In some embodiments, at least one device (e.g., a reader device) stores the initialization key(s) (e.g., a symmetric key, an asymmetric key pair) in local memory as part of performance of a manufacturing process for the device. The second device (e.g., a thin client device) may receive the initialization key(s) from an acceptance cloud (e.g., a server computer configured to perform terminal processing). The initialization key(s) are utilized to perform a secure exchange of the devices' respective public keys. Once these public keys are exchanged, the devices may proceed to establishing a secure connection with which subsequent operations may be performed.