AWA Sweden AB

A tracked state of a tracked object in a sequence of images is determined. A region of interest, ROI, is determined (210) in a current image. Based on at least one previous image from the sequence of images, motion information data of the current image is aggregated (220) to obtain an estimated current motion of the ROI. A predicted current state of the ROI is predicted, based on a previous state of the ROI, a plurality of object tracking models, and the estimated current motion of the ROI. The predicting (230) comprises selecting (232) at least one of the plurality of object tracking models to be used for predicting the predicted current state. The predicted current state of the ROI is associated (240) with the observed current state of the ROI to determine the tracked state of the tracked object.

A system and a method are disclosed including a dual-mode, single-action convertible knife external housing that provides structural support for maintaining the blade orientation and integrity in various states of the knife and its operational modes. The convertible knife may have two modes of operation, cutting and scraping, which may transition from one mode to the other by a single uniform action of a user. The blades usable with the convertible knife include a trapezoidal cut-out held firmly in place by a trapezoidal protrusion of a blade clamp assembly and other structural elements. The convertible knife scraping mode provides an asymmetrical front-end configuration that allows the blade to get closer to the scraped surface compared with a symmetrical configuration to allow a shallower and more effective scraping angle.

There is disclosed herein a fuse arrangement (1) for a transmission line (4) of a high voltage direct current, HVDC, grid. The fuse arrangement comprises a plurality of fuse units (10) connected in series. Each fuse unit comprises a plurality of fuse devices (20) connected in parallel to each other, and a non-linear resistor (30) connected in parallel to said plurality of fuse devices. Said plurality of fuse devices are configured to conduct at the same time. The present disclosure further relates to an HVDC grid system.

An erosion protection laminate (10), comprising a first layer (11) and a second layer (12) arranged over the first layer (11),the first layer (11) comprising an auxetic material;the second layer (12) comprising a polymer.

There is disclosed herein an insert (1) for a bottle (2). The bottle comprises a neck (3) with a mouth (4) and an annular protrusion (5) arranged proximal to the mouth on an outside surface (3a) of the neck so as to form an annular groove (6) distal to the mouth. The insert comprises a fitment portion (10) configured to be fitted inside the neck of the bottle. The fitment portion comprises a skirt (12). The insert further comprises a tamper ring (20) connected to the skirt of the fitment portion through a plurality of connecting pins (30). The tamper ring comprises one or more protrusions (22) that is structured and arranged to be non-removably snap-fitted into the annular groove of the bottle when inserting the fitment portion into the neck of the bottle. The disclosure further relates to a cap system (100), an arrangement (200) and a method (300).

The present inventive concept relates to a method (30) for training a machine learning model to construct an image of a sample. The method (30) comprises: acquiring (S300) a training set of images of a training sample (142) by: illuminating (S302) the training sample (142) with a plurality of illumination patterns formed by a first set of light-emitting elements (112) and a second set of light-emitting elements (114), wherein the first set of light-emitting elements (112) is configured to emit light having a first optical bandwidth and the second set of light-emitting elements (114) is configured to emit light having a second optical bandwidth narrower than the first optical bandwidth, and capturing (S304), for each illumination pattern of the plurality of illumination patterns, an image of the training sample (142); receiving (S310) a ground truth comprising one or more images of the training sample (142); and training (S320) the machine learning model to construct the image of a sample using the training set of images and the ground truth.

This disclosure relates to methods 900, software, devices and systems for encoding an image frame in a video stream, such that a decoded version of the encoded image frame is provided with a first masked region. A block-aligned mask is applied S906 to the image frame being encoded and a pre-generated encoded image frame is used to transform the block-aligned masked region during decoding. The pre-generated encoded image frame contains motion vectors but no residual data, allowing for efficient transformation of a block-aligned masked region into the first masked region having an edge that cuts through coding blocks.

A temperature control apparatus (1) comprising: a chamber (11) for housing an object to be measured; heating units (25, 26, 27, 28); a chamber window unit (18) positioned opposite the object to be measured; a central temperature measurement unit (21) for measuring a temperature of a central portion (14c) of the object to be measured; a peripheral temperature measurement unit (22) for measuring a temperature of a peripheral portion (14e) of the object to be measured; an identification unit (30) provided in the peripheral temperature measurement unit (22) for identifying a position of the peripheral portion (14e) of the object to be measured; an adjustment unit (110) that adjusts a measurement direction of the peripheral temperature measurement unit (22), a calculation unit (120) that calculates the central temperature and peripheral temperature, and an output control unit (130) that controls outputs of the plurality of heating units (25, 26, 27, 28) based on both the central temperature and peripheral temperature is provided.

The disclosure relates to a microscopy system, a method of moving a microscope slide in a microscopy system, and to a transport unit. The microscopy system (1) comprising an image data capturing unit (6) configured to capture image data of the sample on the microscope slide (60) at the analysis position (AP), and a transport unit (2) configured to move the microscope slide (60) between a receiving position (RP) and the analysis position (AP), wherein the transport unit (2) comprises; a first and a second opposing gripper member (10, 20) having a respective gripping portion (11, 21) being reciprocally movable relative to each other along a first direction (A) to selectively grip the microscope slide (60), and a manoeuvring unit (30) configured to reciprocally move along a second direction (B) between a first, a second, and a third position (P1, P2, P3) such that the transport unit (2) assumes a gripping mode (GM), an open mode (OM), and an ejection mode (EM), respectively.

Procedures, methods, architectures, apparatuses, systems, devices, and computer program products for sensing processing mobility with computing-aware traffic steering. A wireless transmit-receive unit (WTRU) in a network discovers candidate points of attachment (PoAs), in the network for a distributed task where one or more functions hosted by one or more second WTRUs. The WTRU transmits one or more computing-aware traffic steering (CATS) query messages to the one or more candidate PoAs, and receives one or more replies. The WTRU determines a PoA from the one or more candidate PoAs, for attachment of the first WTRU. The WTRU operates a change of the PoA of the first WTRU to the determined PoA and obtains an IP address from the determined PoA. The WTRU signals the obtained IP address to the one or more second WTRUs, and signals that handover of the first WTRU to the determined PoA has been completed.