mhurhangee/patent-ind-claim-en huggingface dataset:
A method of deriving a motion vector predictor, MVP, for a motion vector, MV, of a current block of a current picture in Inter mode, wherein the MV is associated with the current block and a corresponding block of a target reference picture in a given reference list, the method comprising: determining at least two co-located reference blocks of a co-located block in the target reference picture, wherein the co-located block , that is the respective area of the current block in the reference picture, is a block in the target reference picture that has the same block location as the current block in the current picture; receiving at least two reference MVs, motion vectors, associated with said at least two co-located reference blocks, respectively; determining the MVP for the current block based on a spatial/temporal MVP candidate set of MVPs, the candidate set including said at least two reference MVs as temporal MVPs; and providing the MVP for the current block, wherein said at least two co-located reference blocks in the target reference picture at least comprise a bottom-right neighboring block of the co-located block and an inside reference block of the co-located block , wherein a MVP search based on the bottom-right neighboring block and the inside reference block is performed according to a search order, and one reference MV associated with the bottom-right neighboring block is used as the MVP if the bottom-right neighboring block is selected for the current block according to the search order. determining at least two co-located reference blocks of a co-located block in the target reference picture, wherein the co-located block , that is the respective area of the current block in the reference picture, is a block in the target reference picture that has the same block location as the current block in the current picture; receiving at least two reference MVs, motion vectors, associated with said at least two co-located reference blocks, respectively; determining the MVP for the current block based on a spatial/temporal MVP candidate set of MVPs, the candidate set including said at least two reference MVs as temporal MVPs; and providing the MVP for the current block, wherein said at least two co-located reference blocks in the target reference picture at least comprise a bottom-right neighboring block of the co-located block and an inside reference block of the co-located block , wherein a MVP search based on the bottom-right neighboring block and the inside reference block is performed according to a search order, and one reference MV associated with the bottom-right neighboring block is used as the MVP if the bottom-right neighboring block is selected for the current block according to the search order.
Safety device for a motor vehicle, which has a latch holder , a pawl, an ejection spring for ejecting the latch holder and a catch , the catch having an opening direction of rotation , a closing direction of rotation , an open position and a main ratchet position, the ejection spring having a leg , and the leg directly abutting the latch holder in the main ratchet position of the catch and the leg directly abutting the catch in at least one intermediate position of the catch , in which the catch is between the main ratchet position and the open position, characterized in that the ejection spring is designed as a spiral spring.
A Controller Area Network, CAN, transceiver , comprising: a CAN BUS interface , a transmit data, TXD, interface , a receive data, RXD, interface , a receiver coupled to the CAN BUS interface and the RXD interface, and a transmitter coupled to the TXD interface and the CAN BUS interface, wherein the transceiver is configured to receive, via the TXD interface, from a CAN controller , a digital TXD transmit signal representing a frame comprising a plurality of bits, wherein the transmitter is configured to generate, at the CAN BUS interface, a BUS signal representing the bits of the frame in a sequence, wherein the transceiver is configured to measure an electrical current for powering the transmitter, referred to as a transmitter current, wherein the transceiver is configured to detect each dominant bit represented by the BUS signal based on the transmitter current, wherein the transceiver is configured to detect an error sequence of at least six consecutive dominant bits being detected based on the transmitter current, and wherein the transceiver is configured to generate a control signal representing a fault of the transmitter in response to a detected error sequence.
A drone loading/unloading device comprising: an electric reel selectively movable for releasing/winding a cable adapted to be wound around the electric reel ; a first rotation axle extending through the electric reel , a first driver operably connected to the first rotation axle to selectively drive the first rotation axle as well as the electric reel to rotate and a first locking element mounted between the electric reel and the first driver to prevent the electric reel from free rotation when the electric reel is at a first locked position; a second driver operably connected to the electric reel to selectively drive the electric reel to reciprocally and linearly move from the first locked position, an unlocked position and a second locked position; a second locking element locking the electric reel in the second locked position to disengage the electric reel from a the free-rotation status and a buffer mounted between the second driver and the electric reel to provide buffering effect to the electric reel and the second locking element when the electric reel is moved from the unlocked position to the second locked position, wherein the electric reel is movably positioned between the first locked position where the first driver drives the electric reel to rotate the cable, and the unlocked position where the electric reel is disengaged with the first driver to allow the electric reel to rotate freely so as to release the cable. an electric reel selectively movable for releasing/winding a cable adapted to be wound around the electric reel ; a first rotation axle extending through the electric reel , a first driver operably connected to the first rotation axle to selectively drive the first rotation axle as well as the electric reel to rotate and a first locking element mounted between the electric reel and the first driver to prevent the electric reel from free rotation when the electric reel is at a first locked position; a second driver operably connected to the electric reel to selectively drive the electric reel to reciprocally and linearly move from the first locked position, an unlocked position and a second locked position; a second locking element locking the electric reel in the second locked position to disengage the electric reel from a the free-rotation status and a buffer mounted between the second driver and the electric reel to provide buffering effect to the electric reel and the second locking element when the electric reel is moved from the unlocked position to the second locked position, wherein the electric reel is movably positioned between the first locked position where the first driver drives the electric reel to rotate the cable, and the unlocked position where the electric reel is disengaged with the first driver to allow the electric reel to rotate freely so as to release the cable.
A surgical thread , comprising a surface, a cell-retaining structure and cells , wherein the cell-retaining structure comprises cell-retaining elements which protrude from the surface of the thread , characterized in that the thread is only partially colonized by the cells and the cells are present onto surface areas of the thread , which are underneath the cell-retaining elements , or that the cells only colonize the cell-retaining elements of the cell-retaining structure .
Electronic device for an at least partially electrically driven vehicle having an electrical energy store , which is provided for the drive system of the vehicle and comprises a plurality of series-connected energy storage cells, and a voltage converter coupled to the energy store for the supply of at least one further electrical load of the vehicle, and wherein the device is designed to supply current to at least one of the further electrical loads of the vehicle, from a number of series-connected energy storage cells of the electrical energy store which is smaller than the maximum number of series-connected energy storage cells of the energy store in the event that a maximum current for the at least one further electrical load exceeds the maximum current available from the voltage converter , wherein the device is also designed to provide the maximum current in response to the state of charge or discharge of the energy store from a first number and a second number of series-connected energy storage cells, wherein the first number is different to the second number and wherein the first and the second number are each lower than the maximum number of series-connected energy storage cells of the energy store , wherein the device is designed to switch over the voltage or current supply of the at least one further electrical load from the first number of series-connected energy storage cells to the second and larger number of series-connected energy storage cells if a voltage across the first number of series-connected energy storage cells has reached or falls below a lower limiting value, wherein the device is designed to switch over the voltage or current supply of the at least one further electrical load from the second number of series-connected energy storage cells to the first and smaller number of series-connected energy storage cells if a voltage across the second number of series-connected energy storage cells has reached or exceeds an upper limiting value, characterized in that the upper limiting value is at least in a significant proportion defined by a nominal output voltage of the voltage converter .
An inflatable penile prosthesis comprising: a fluid reservoir configured to hold fluid; an inflatable member ; and a pump assembly configured to transfer the fluid between the fluid reservoir and the inflatable member , the pump assembly including: a valve body having one or more valves; and an outer protective casing disposed over the valve body , wherein the pump assembly includes a pump bulb , a plurality of fluid ports , and a deflation mode actuator , the outer protective casing including a first end portion defining a first opening , and a second end portion defining a second opening , the outer protective casing defining a third opening , the pump bulb extending through the first opening , the plurality of fluid ports extending through the second opening , the deflation mode actuator extending through the third opening , characterized in that the outer protective casing includes a protruded side portion having a three-dimensional shape, the protruded side portion having a surface that defines at least one ridge . a fluid reservoir configured to hold fluid; an inflatable member ; and a pump assembly configured to transfer the fluid between the fluid reservoir and the inflatable member , the pump assembly including: a valve body having one or more valves; and an outer protective casing disposed over the valve body , a valve body having one or more valves; and an outer protective casing disposed over the valve body , wherein the pump assembly includes a pump bulb , a plurality of fluid ports , and a deflation mode actuator , the outer protective casing including a first end portion defining a first opening , and a second end portion defining a second opening , the outer protective casing defining a third opening , the pump bulb extending through the first opening , the plurality of fluid ports extending through the second opening , the deflation mode actuator extending through the third opening , characterized in that the outer protective casing includes a protruded side portion having a three-dimensional shape, the protruded side portion having a surface that defines at least one ridge .
A treatment device using a magnetic field, comprising: a magnetic field generating coil disposed below a contact surface that closely contacts a portion of a body; a cooling unit configured to supply a fluid that cools the magnetic field generating coil ; and a duct configured to guide the fluid between the cooling unit and the magnetic field generating coil , wherein the cooling unit is disposed below the magnetic field generating coil and disposed so that an angle between a fluid supply direction from the cooling unit and a central axis of the magnetic field generating coil is equal to or less than the right angle, wherein the cooling unit comprises an inlet cooling unit configured to supply a fluid from the outside to the inside of the treatment device to the magnetic field generating coil and an outlet cooling unit configured to exhaust a fluid passed through the magnetic field generating coil to the outside; and characterized in that : the treatment device comprises a housing enclosing the inlet cooling unit and the outlet cooling unit , wherein the inlet cooling unit is selected from a fan, a blower, a compressor, and a pump, and wherein the outlet cooling unit is selected from a fan, a blower, a compressor, and a pump. a magnetic field generating coil disposed below a contact surface that closely contacts a portion of a body; a cooling unit configured to supply a fluid that cools the magnetic field generating coil ; and a duct configured to guide the fluid between the cooling unit and the magnetic field generating coil , wherein the cooling unit is disposed below the magnetic field generating coil and disposed so that an angle between a fluid supply direction from the cooling unit and a central axis of the magnetic field generating coil is equal to or less than the right angle, wherein the cooling unit comprises an inlet cooling unit configured to supply a fluid from the outside to the inside of the treatment device to the magnetic field generating coil and an outlet cooling unit configured to exhaust a fluid passed through the magnetic field generating coil to the outside; and characterized in that : the treatment device comprises a housing enclosing the inlet cooling unit and the outlet cooling unit , wherein the inlet cooling unit is selected from a fan, a blower, a compressor, and a pump, and wherein the outlet cooling unit is selected from a fan, a blower, a compressor, and a pump.
A vacuum cleaner comprising: a cleaner body including a suction motor for generating suction force; and a suction part communicating with the cleaner body to suck in air and dust, wherein the cleaner body includes a main body ; wheels for moving the main body ; and a battery detachably provided at a back side of the main body to supply power to the main body , wherein the main body is capable of rotating about a rotation center of the wheels , and wherein, when the battery is detached from the cleaner body , a center of gravity of the main body is located at a front side of a vertical line passing through the rotation center of the wheels, wherein a bottom of the cleaner body includes a first bottom (B) and a second bottom (C) forming a predetermined angle with respect to the first bottom (B), characterised in that when the battery is detached from the cleaner body , the first bottom (B) contacts a floor and the second bottom (C) is separated from the floor, and in that , when the battery is mounted in the battery attachment part , the first bottom (B) is separated from the floor and the second bottom (C) contacts the floor. a cleaner body including a suction motor for generating suction force; and a suction part communicating with the cleaner body to suck in air and dust, wherein the cleaner body includes a main body ; wheels for moving the main body ; and a battery detachably provided at a back side of the main body to supply power to the main body , wherein the main body is capable of rotating about a rotation center of the wheels , and wherein, when the battery is detached from the cleaner body , a center of gravity of the main body is located at a front side of a vertical line passing through the rotation center of the wheels, wherein a bottom of the cleaner body includes a first bottom (B) and a second bottom (C) forming a predetermined angle with respect to the first bottom (B), characterised in that when the battery is detached from the cleaner body , the first bottom (B) contacts a floor and the second bottom (C) is separated from the floor, and in that , when the battery is mounted in the battery attachment part , the first bottom (B) is separated from the floor and the second bottom (C) contacts the floor.
Method for manufacturing a battery, in particular a button cell battery, comprising a casing which defines a first pole and a second pole of the battery, the general alignment of these first and second poles defining a general axis of the battery; the method including the following steps: - providing at least three parts, with a first part intended to form the first pole , a second part and a third part intended to form together the second pole , - assembling the first and second parts with the interposition of an electrically isolating joint between a first surface of the first part and a second surface of the second part, the first and second parts being formed and assembled such that a first portion of the first part, at least partially defining the first surface, and a second portion of the second part, at least partially defining the second surface, each extend in a surface non-parallel to said general axis and one opposite the other; - welding the third part to the second part so as to form together a cup , these second and third parts thus having therebetween a welded joint; said assembly of the first and second parts being performed by bonding the first and second surfaces to provide a structure formed of the first and second parts with an adhesive joint therebetween forming said electrically isolating joint; said step of assembling the first and second parts occurring before said step of welding the third part to the second part; said second portion forming a stop, in the direction of said general axis, for the first portion, which is located inside the cup relative to this stop, the second surface being an inner surface of the cup against which said adhesive joint is disposed, the first part closing the cup in a sealed manner with the aid of the adhesive joint; the manufacturing method comprising, before said step of welding the third part to the second part, a step of at least partially filling said structure and/or said third part with at least one solid active material; characterised in that a minimum thickness of the adhesive joint is guaranteed by a separator incorporated in the adhesive of this adhesive joint. - providing at least three parts, with a first part intended to form the first pole , a second part and a third part intended to form together the second pole , - assembling the first and second parts with the interposition of an electrically isolating joint between a first surface of the first part and a second surface of the second part, the first and second parts being formed and assembled such that a first portion of the first part, at least partially defining the first surface, and a second portion of the second part, at least partially defining the second surface, each extend in a surface non-parallel to said general axis and one opposite the other; - welding the third part to the second part so as to form together a cup , these second and third parts thus having therebetween a welded joint;
Building with a de-icing device for applying de-icing agent to the building , the de-icing device having spray outlet openings which are arranged in such a way that de-icing agent can be applied, in particular directly, - onto the roof, - onto a roof edge, - onto a chimney edge, - onto a gutter , - on a facade, - on a solar cell of the building, and/or - on a parabolic antenna of a building, or sprayed, wherein the de-icing device comprises a first hollow profile , wherein the de-icing agent is supplied to the first hollow profile via a supply line , wherein the supply line is a second hollow profile, characterised in that the first and/or second hollow profile is a hollow structural profile of the building . the de-icing device having spray outlet openings which are arranged in such a way that de-icing agent can be applied, in particular directly, - onto the roof, - onto a roof edge, - onto a chimney edge, - onto a gutter , - on a facade, - on a solar cell of the building, and/or - on a parabolic antenna of a building, or - onto the roof, - onto a roof edge, - onto a chimney edge, - onto a gutter , - on a facade, - on a solar cell of the building, - on a parabolic antenna of a building, sprayed, wherein the de-icing device comprises a first hollow profile , wherein the de-icing agent is supplied to the first hollow profile via a supply line , wherein the supply line is a second hollow profile, characterised in that the first and/or second hollow profile is a hollow structural profile of the building .
A method of manufacturing a suction anchor , comprising: depositing layers of flowable cementitious material on top of each other to form at least part of a tubular body , the flowable cementitious material capable of hardening into solidified cementitious material, the tubular body comprising: a closed end and an open end , an edge defining an opening for the open end and configured to penetrate an underwater floor, and a port configured to fluidly-couple at least part of a cavity within the tubular body to an exterior of the tubular body ; securing a pad eye to an exterior wall of the tubular body , the pad eye configured to couple to a mooring line; wherein the portion of the tubular body formed by the layers of flowable cementitious material comprises a first portion and a second portion; and wherein depositing the layers of flowable cementitious material comprises: depositing first layers of flowable cementitious material on top of each other to form the first portion, hardening the first layers of flowable cementitious material to solidify the first portion, and depositing second layers of flowable cementitious material on the solidified first portion to form the second portion, the second layers deposited on top of each other. a closed end and an open end , an edge defining an opening for the open end and configured to penetrate an underwater floor, and a port configured to fluidly-couple at least part of a cavity within the tubular body to an exterior of the tubular body ; securing a pad eye to an exterior wall of the tubular body , the pad eye configured to couple to a mooring line; wherein the portion of the tubular body formed by the layers of flowable cementitious material comprises a first portion and a second portion; and wherein depositing the layers of flowable cementitious material comprises: depositing first layers of flowable cementitious material on top of each other to form the first portion, hardening the first layers of flowable cementitious material to solidify the first portion, and depositing first layers of flowable cementitious material on top of each other to form the first portion, hardening the first layers of flowable cementitious material to solidify the first portion, and depositing second layers of flowable cementitious material on the solidified first portion to form the second portion, the second layers deposited on top of each other.
A blow-by heater , comprising: a tube member allowing a blow-by gas to flow therethrough, and opening in a downstream side, characterized in that the tube member is formed such that a thickness of a whole circumferential edge of the downstream side decreases toward the opening end, wherein the tube member is formed by a metal pipe including a portion wherein a cross-sectional area decreases toward the downstream side, and a slope face portion is formed in an inner circumferential side in a vicinity of the opening end of the metal pipe such that a thickness in the vicinity of the opening end decreases toward the opening end.