mhurhangee/ep-ind-claims huggingface dataset:
A method for encoding a portion of a picture, the picture being from a particular view of a multi-view video sequence, comprising: determining a view level of said particular view wherein said view level is representative of the position of said particular view within a scalability hierarchy; determining a resolution for the portion responsive to the determined view level; and encoding the portion at the determined resolution. determining a view level of said particular view wherein said view level is representative of the position of said particular view within a scalability hierarchy; determining a resolution for the portion responsive to the determined view level; and encoding the portion at the determined resolution.
A fixing device comprising: a pressing member; an endless tubular fixing member disposed opposite to the pressing member; a heating source configured to heat the fixing member; a nip forming member disposed opposite to the pressing member via the fixing member to form a nip portion; and a supply unit configured to supply lubricant to a portion of an inner surface of the fixing member, the portion facing the nip forming member, wherein the nip forming member includes a contact portion (5A, 5B) that is made of woven fabric that contacts the inner surface of the fixing member, the woven fabric includes a weft and a warp as a guide portion for guiding lubricant, characterized in that the guide portion is formed by extending obliquely from opposite ends in a width direction toward a center of the fixing member as the contact portion (5A, 5B) moves from upstream to downstream in a rotational direction of the fixing member and the weft is curved upward toward the downstream. a pressing member; an endless tubular fixing member disposed opposite to the pressing member; a heating source configured to heat the fixing member; a nip forming member disposed opposite to the pressing member via the fixing member to form a nip portion; and a supply unit configured to supply lubricant to a portion of an inner surface of the fixing member, the portion facing the nip forming member, wherein the nip forming member includes a contact portion (5A, 5B) that is made of woven fabric that contacts the inner surface of the fixing member, the woven fabric includes a weft and a warp as a guide portion for guiding lubricant, characterized in that the guide portion is formed by extending obliquely from opposite ends in a width direction toward a center of the fixing member as the contact portion (5A, 5B) moves from upstream to downstream in a rotational direction of the fixing member and the weft is curved upward toward the downstream.
A listening system comprising two physically separate first and second devices (Right HI, Left HI) having separate physical housings, wherein the first device comprises a first input transducer for converting an input sound to an electrical input signal, the electrical input signal comprising a direct part and an acoustic feedback part, an output transducer for converting an electrical output signal to an output sound, a forward path being defined between the input and output transducer and comprising a signal processing unit ( Forward path), a feedback cancellation system for estimating acoustic feedback comprising an adaptive FBC filter (LMS, AFB) arranged in parallel to the forward path, the adaptive FBC filter comprising a variable FBC filter part and an FBC update algorithm part for updating the variable FBC filter part, the FBC update algorithm part receiving first and second FBC algorithm input signals derived from the electrical input and output signals, respectively, defining first and second FBC update algorithm input signal paths, the first and second FBC update algorithm input signal paths comprising first and second variable filters (Hw), respectively, wherein the second device comprises a second input transducer generating an electrical update signal, the second input transducer being located at a position where the acoustical signal from the output transducer at a given frequency is smaller than at the location of the first input transducer, characterized in that said first and second variable filters (Hw) are adapted to be updated at least partially on the basis of said electrical update signal, and wherein the listening system is adapted to provide that filter coefficients based on the electrical update signal are transmitted from the second device ( Left HI) where the second input transducer is located to the first device ( Right HI) where the first input transducer is located and used in the update process of the first and second variable filters (Hw).
Press for compacting waste material, in particular preferably urban solids, comprising a compaction tunnel in communication with a hopper through which said waste material to be compacted is received, pressing means configured to translate within a structure of said tunnel, which are configured to compress the waste material against an abutment element and to form a bale, said abutment element preferably placed at a first end of the structure and movable in vertical direction to define an opening through which the pressing means transfer said bale onto receiving means, characterized in that the structure of said tunnel comprises two translation devices arranged below and in proximity to a first end and in proximity to a second end of said structure adapted to translate the structure on a plane parallel to the ground.
A method for determining a search range value for an adaptive motion vector in a video encoder, the video encoder arranged to receive input image signals representing a continuity of images, and divide images of the input image signals into a plurality of macro blocks (MBs), the method comprising the steps of: (a) determining the number of available neighboring blocks adjacent to a current macro block, wherein an available neighbouring block has been previously encoded and has an associated motion vector, and, if the number of the available neighboring blocks is equal to or greater than 2: (b) determining, in each dimension, a magnitude which is the maximum magnitude of the components of the motion vectors of the available neighbouring blocks in said dimension; (c) defining a minimum search range value for the adaptive motion vector of the current macro block; (d) comparing, in each dimension, a double of the magnitude determined at step (b) with the minimum search range value for the adaptive motion vector found at step (c) so as to define the larger of the double of the magnitude determined at step (b) and the minimum search range value for the adaptive motion vector found at step (c) as the search range value for the adaptive motion vector in that dimension; and (e) comparing, in each dimension, the search range value for the adaptive motion vector found at step (d) with a search range value for the adaptive motion vector defined by a user so as to define the smaller of the search range value for the adaptive motion vector found at step (d) and the search range value for the adaptive motion vector defined by the user as a search range value of a final adaptive motion vector. (a) determining the number of available neighboring blocks adjacent to a current macro block, wherein an available neighbouring block has been previously encoded and has an associated motion vector, and, if the number of the available neighboring blocks is equal to or greater than 2: (b) determining, in each dimension, a magnitude which is the maximum magnitude of the components of the motion vectors of the available neighbouring blocks in said dimension; (c) defining a minimum search range value for the adaptive motion vector of the current macro block; (d) comparing, in each dimension, a double of the magnitude determined at step (b) with the minimum search range value for the adaptive motion vector found at step (c) so as to define the larger of the double of the magnitude determined at step (b) and the minimum search range value for the adaptive motion vector found at step (c) as the search range value for the adaptive motion vector in that dimension; and (e) comparing, in each dimension, the search range value for the adaptive motion vector found at step (d) with a search range value for the adaptive motion vector defined by a user so as to define the smaller of the search range value for the adaptive motion vector found at step (d) and the search range value for the adaptive motion vector defined by the user as a search range value of a final adaptive motion vector.
A method for positioning a component on a receiver substrate, comprising the steps of: - providing a donor substrate; - producing a blister forming layer on the donor substrate, wherein said blister forming layer may be a single layer or a stack of sublayers, said blister forming layer comprising at least a dynamic release layer; - attaching the component to the donor substrate by adhering the component to the blister forming layer either directly or through an adhesive layer, so that the component is in direct contact with the blister forming layer or via the adhesive layer across a contact area, said contact area covering the whole or a portion of the dynamic release layer; - positioning the donor substrate substantially parallel to the receiver substrate, with the component facing the receiver substrate, the receiver substrate comprising on its surface facing the donor substrate an adhesive receiving layer; and - directing a pulsed laser beam to the side of the donor substrate facing away from the receiver substrate, with a footprint of the pulsed laser beam at a location within the contact area between the component and the blister forming layer, the pulsed laser beam causing vaporization of at least part of the dynamic release layer, thereby creating a blister containing vaporized material of the dynamic release layer, characterized in that the blister expands until at least one nozzle is created at a predefined location within the contact area, the at least one nozzle allowing the vaporized material of the dynamic release layer to exit the blister, thereby producing a jet of vaporized material and causing the release of the component and its propulsion towards the receiver substrate, thereby positioning the component on the receiver substrate and attaching the component to the receiver substrate by adhesion to the adhesive receiving layer. - providing a donor substrate; - producing a blister forming layer on the donor substrate, wherein said blister forming layer may be a single layer or a stack of sublayers, said blister forming layer comprising at least a dynamic release layer; - attaching the component to the donor substrate by adhering the component to the blister forming layer either directly or through an adhesive layer, so that the component is in direct contact with the blister forming layer or via the adhesive layer across a contact area, said contact area covering the whole or a portion of the dynamic release layer; - positioning the donor substrate substantially parallel to the receiver substrate, with the component facing the receiver substrate, the receiver substrate comprising on its surface facing the donor substrate an adhesive receiving layer; and - directing a pulsed laser beam to the side of the donor substrate facing away from the receiver substrate, with a footprint of the pulsed laser beam at a location within the contact area between the component and the blister forming layer, the pulsed laser beam causing vaporization of at least part of the dynamic release layer, thereby creating a blister containing vaporized material of the dynamic release layer,
Concrete floor comprising at least one beam having a main axis, a concrete slab which is cast so as to rest on an upper face of the beam, a metal reinforcement which is set in the slab, the beam being connected to the concrete slab by at least one inserted connecting element which is fastened to the beam and at least a portion of which is set in the concrete slab, the beam and the connecting element being made of wood, the connecting element being formed of a wooden strip which extends along a main longitudinal axis and which has a lower face for fastening with the beam and an upper face for contact with the concrete slab, the concrete floor being characterised in that the wooden strip comprises cavities produced by removing material in its upper face in which the concrete of the slab is cast, the mainly transverse walls delimiting the cavities being capable of transmitting shearing forces exerted mainly longitudinally by the slab on the wooden strip during a bending of the floor.
An electrode array comprising: a first insulating layer; a first plurality of electrical traces on one surface of the first insulating layer, wherein the electrical traces in the first plurality are electrically separated from one another; a second insulating layer, substantially covering the first plurality of electrical traces; a second plurality of electrical traces on the second insulating layer, wherein the second plurality of electrical traces is on an opposite side of the second insulating layer relative to the first plurality of electrical traces; and a third insulating layer, substantially covering the second plurality of electrical traces, wherein when any first trace of the first plurality of electrical traces is overlapped by any second trace of the second plurality of electrical traces, the first trace and the second trace run overlapping in parallel for a portion of their respective lengths; and at least one first trace from the first plurality of electrical traces is overlapped by at least one second trace from the second plurality of electrical traces, characterized in that: the first trace and the second trace form a Y crossover at the beginning of the overlap. a first insulating layer; a first plurality of electrical traces on one surface of the first insulating layer, wherein the electrical traces in the first plurality are electrically separated from one another; a second insulating layer, substantially covering the first plurality of electrical traces; a second plurality of electrical traces on the second insulating layer, wherein the second plurality of electrical traces is on an opposite side of the second insulating layer relative to the first plurality of electrical traces; and a third insulating layer, substantially covering the second plurality of electrical traces, wherein when any first trace of the first plurality of electrical traces is overlapped by any second trace of the second plurality of electrical traces, the first trace and the second trace run overlapping in parallel for a portion of their respective lengths; and at least one first trace from the first plurality of electrical traces is overlapped by at least one second trace from the second plurality of electrical traces, characterized in that: the first trace and the second trace form a Y crossover at the beginning of the overlap.
Underwater mining device having - a submersible working platform which can be placed onto a bed of a body of water, - a stripping means for stripping ground material from the bed of the body of water, - an adjustment means for adjusting and introducing the stripping means into the bed of the body of water and - a conveying line for conveying stripped ground material away from the stripping means, characterized in - that on the working platform a receiving part for a conveying container is designed, - that the conveying container is supported and retained in a releasable manner in the receiving part, and - that the conveying line leads into the conveying container, wherein stripped ground material can be received in the conveying container. - a submersible working platform which can be placed onto a bed of a body of water, - a stripping means for stripping ground material from the bed of the body of water, - an adjustment means for adjusting and introducing the stripping means into the bed of the body of water and - a conveying line for conveying stripped ground material away from the stripping means, - that on the working platform a receiving part for a conveying container is designed, - that the conveying container is supported and retained in a releasable manner in the receiving part, and - that the conveying line leads into the conveying container, wherein stripped ground material can be received in the conveying container.
A method for configured maximum output power reporting, comprising: first judging, by user equipment, whether for a current subframe the user equipment has an uplink grant for new data transmission on each activated serving cell configured with an uplink carrier, if the result of the first judging is positive, second judging, by the user equipment, whether the uplink grant is capable of containing a power headroom report; for each activated serving cell for which the first judging is positive, if the result of the second judging is positive, obtaining from a physical layer, by the user equipment, a value of a configured maximum output power corresponding to the respective activated serving cell for the current subframe; characterised in that if the result of the second judging is positive, third judging by the user equipment whether for the current subframe there exists non-adaptive retransmission of uplink data on each activated serving cell configured with an uplink carrier, when a power headroom report has been triggered at the current subframe; for an activated serving cell for which the first judging is negative and the result of the third judging is that for the current subframe there exists non-adaptive retransmission of uplink data on the serving cell, obtaining from a physical layer, by the user equipment, a value of a configured maximum output power corresponding to the respective activated serving cell for the current subframe; and reporting the obtained configured maximum output power from the physical layer to the base station. first judging, by user equipment, whether for a current subframe the user equipment has an uplink grant for new data transmission on each activated serving cell configured with an uplink carrier, if the result of the first judging is positive, second judging, by the user equipment, whether the uplink grant is capable of containing a power headroom report; for each activated serving cell for which the first judging is positive, if the result of the second judging is positive, obtaining from a physical layer, by the user equipment, a value of a configured maximum output power corresponding to the respective activated serving cell for the current subframe; characterised in that if the result of the second judging is positive, third judging by the user equipment whether for the current subframe there exists non-adaptive retransmission of uplink data on each activated serving cell configured with an uplink carrier, when a power headroom report has been triggered at the current subframe; for an activated serving cell for which the first judging is negative and the result of the third judging is that for the current subframe there exists non-adaptive retransmission of uplink data on the serving cell, obtaining from a physical layer, by the user equipment, a value of a configured maximum output power corresponding to the respective activated serving cell for the current subframe; and reporting the obtained configured maximum output power from the physical layer to the base station.
A method comprising: receiving data as to a required time of arrival, RTA, for an aircraft during flight; and determining, via a processor, RTA limits for the aircraft based on the RTA, wherein the RTA limits comprise both of the following: one or more limits for aircraft speed based on the RTA; and one or more limits for aircraft arrival time based on the RTA; and displaying, via a display device in accordance with instructions provided by the processor: the RTA and the RTA limits on a RTA summary tab, wherein display of the RTA summary tab is selectable by a user; and wherein display of an edit RTA tab is also selectable by a user, the edit RTA tab allowing for the user to manually edit, via a user interface: (i) the RTA; and (ii) a RTA constraint selected from: arrival before an entered RTA; arrival at an entered RTA; and arrival after an entered RTA, wherein, after selection of a RTA constraint, the processor determines a recommended speed for the aircraft for compliance with the selected RTA constraint; and the recommended speed for the aircraft for compliance with the RTA constraint is displayed on the RTA summary tab of the display device. receiving data as to a required time of arrival, RTA, for an aircraft during flight; and determining, via a processor, RTA limits for the aircraft based on the RTA, wherein the RTA limits comprise both of the following: one or more limits for aircraft speed based on the RTA; and one or more limits for aircraft arrival time based on the RTA; and one or more limits for aircraft speed based on the RTA; and one or more limits for aircraft arrival time based on the RTA; and displaying, via a display device in accordance with instructions provided by the processor: the RTA and the RTA limits on a RTA summary tab, wherein display of the RTA summary tab is selectable by a user; and wherein display of an edit RTA tab is also selectable by a user, the edit RTA tab allowing for the user to manually edit, via a user interface: (i) the RTA; and (ii) a RTA constraint selected from: arrival before an entered RTA; arrival at an entered RTA; and arrival after an entered RTA, wherein, after selection of a RTA constraint, the processor determines a recommended speed for the aircraft for compliance with the selected RTA constraint; and the recommended speed for the aircraft for compliance with the RTA constraint is displayed on the RTA summary tab of the display device. (i) the RTA; and (ii) a RTA constraint selected from: arrival before an entered RTA; arrival at an entered RTA; and arrival after an entered RTA,
Locking and compression device suitable for a bone plate having an elongated slippery hole, wherein two concave-shaped diametrically opposed inner sides of said elongated slippery hole are the longer sides of said elongated slippery hole and are straight and in parallel to the longitudinal axis of said elongated slippery hole, said locking and compression device comprising: - a locking slider having a notch in the middle of said locking slider and a screw hole, wherein two diametrically opposed outer sides of the locking slider are convex-shaped corresponding to said concave-shaped inner sides of said elongated slippery hole, wherein said two concave-shaped diametrically opposed inner sides of said elongated slippery hole hold said locking slider slidably in said elongated slippery hole, wherein said locking slider is slidable along said longitudinal axis; - a cone-head screw for fixing said locking slider to a bone; characterized in that said locking slider can sway about said longitudinal axis; and in that said screw hole is cone-shaped; and in that said two convex-shaped diametrically opposed outer sides of said locking slider are straight and in parallel to said longitudinal axis. - a locking slider having a notch in the middle of said locking slider and a screw hole, wherein two diametrically opposed outer sides of the locking slider are convex-shaped corresponding to said concave-shaped inner sides of said elongated slippery hole, wherein said two concave-shaped diametrically opposed inner sides of said elongated slippery hole hold said locking slider slidably in said elongated slippery hole, wherein said locking slider is slidable along said longitudinal axis; - a cone-head screw for fixing said locking slider to a bone;