mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus configured to code video information, the apparatus comprising: a memory unit configured to store video information associated with a reference layer (RL) and an enhancement layer (EL), the EL comprising an EL video unit and the RL comprising a RL video unit corresponding to the EL video unit; and a processor in communication with the memory unit, the processor configured to: perform spatial upsampling and bit-depth conversion on pixel information of the RL video unit in a single process to determine predicted pixel information of the EL video unit, wherein the single process comprises a set of operations performed in connection with the spatial upsampling, wherein one of the operations comprises an upsampling process in which a right-shift of a right-bit-shift is reduced by a bit-depth difference between a bit-depth of the BL and a bit-depth of the EL so as to also accomplish the bit-depth conversion wherein the right-bit-shift is by T-K bits where T is a left-bit-shift parameter of the upsampling process and K is the bit depth difference between the base layer and enhancement layer; and determine the EL video unit using the predicted pixel information. a memory unit configured to store video information associated with a reference layer (RL) and an enhancement layer (EL), the EL comprising an EL video unit and the RL comprising a RL video unit corresponding to the EL video unit; and a processor in communication with the memory unit, the processor configured to: perform spatial upsampling and bit-depth conversion on pixel information of the RL video unit in a single process to determine predicted pixel information of the EL video unit, wherein the single process comprises a set of operations performed in connection with the spatial upsampling, wherein one of the operations comprises an upsampling process in which a right-shift of a right-bit-shift is reduced by a bit-depth difference between a bit-depth of the BL and a bit-depth of the EL so as to also accomplish the bit-depth conversion wherein the right-bit-shift is by T-K bits where T is a left-bit-shift parameter of the upsampling process and K is the bit depth difference between the base layer and enhancement layer; and determine the EL video unit using the predicted pixel information.
Wind-up system for winding-up a strip, wherein the wind-up system comprises a first work station and a first supply member for supplying the strip to said first work station in a supply direction, wherein the first work station comprises: a first collection area for holding a first collection reel that is arranged to collect and wind-up the strip over a plurality of windings; a first liner area for holding a first liner reel that is arranged to unwind a liner; and a first guide area extending from the first liner area into the first collection area, wherein the unwound liner is arranged to be unwound from the first liner reel at the first liner area through the first guide area onto the first collection reel at the first collection area; characterized in that the wind-up system further comprises a pick-and-place member for picking-up a leading end of the strip from the first supply member at a pick-up position and for placing the picked-up leading end of the strip onto the liner at a placement position within the first guide area. a first collection area for holding a first collection reel that is arranged to collect and wind-up the strip over a plurality of windings; a first liner area for holding a first liner reel that is arranged to unwind a liner; and a first guide area extending from the first liner area into the first collection area, wherein the unwound liner is arranged to be unwound from the first liner reel at the first liner area through the first guide area onto the first collection reel at the first collection area; characterized in that the wind-up system further comprises a pick-and-place member for picking-up a leading end of the strip from the first supply member at a pick-up position and for placing the picked-up leading end of the strip onto the liner at a placement position within the first guide area.
Combustion chamber assembly for an engine with - a combustion chamber , which defines a combustion space edged by a combustion chamber wall and extending along a main flow direction (s) from a combustion chamber head to a combustion chamber outlet , and - a fuel injection system that has at least one fuel supply line for the fuel to be injected into the combustion space, wherein a head part is provided on the combustion chamber head for supplying a fuel/air mixture, the head part having, on an end face facing the combustion space, a plurality of first outflow openings for fuel and a plurality of second outflow openings for air, characterised in that the head part integrates heat exchanger ducts for transferring heat between fuel flowing to the first outflow openings in the head part and air flowing to the second outflow openings in the head part . - a combustion chamber , which defines a combustion space edged by a combustion chamber wall and extending along a main flow direction (s) from a combustion chamber head to a combustion chamber outlet , and - a fuel injection system that has at least one fuel supply line for the fuel to be injected into the combustion space, wherein a head part is provided on the combustion chamber head for supplying a fuel/air mixture, the head part having, on an end face facing the combustion space, a plurality of first outflow openings for fuel and a plurality of second outflow openings for air, characterised in that the head part integrates heat exchanger ducts for transferring heat between fuel flowing to the first outflow openings in the head part and air flowing to the second outflow openings in the head part . wherein a head part is provided on the combustion chamber head for supplying a fuel/air mixture, the head part having, on an end face facing the combustion space, a plurality of first outflow openings for fuel and a plurality of second outflow openings for air, characterised in that the head part integrates heat exchanger ducts for transferring heat between fuel flowing to the first outflow openings in the head part and air flowing to the second outflow openings in the head part .
Connector comprising a hook-shaped body , a finger connected to the hook-shaped body and oscillating between a closed condition, in which it is engaged with one end of the body , and an open condition, in which it is separate from the same, in opposition to the elastic action of a spring , a screwgate coupled with the oscillating finger for locking the latter in the closed position, a proximity communication element or tag associated with the screwgate , characterized in that the proximity communication element or tag is substantially configured as a ring , wherein the ring is housed in an annular groove formed inside or outside the screwgate , having a depth substantially equal to the radial thickness of the ring , so that the latter can be housed inside the groove .
An apparatus for transmitting or receiving data between an Internet of Things, IoT, device and an external server , on an IP network, comprising: a first server configured to receive signaling data including a message transmitted to the first server over a cellular circuit switched network from the IoT device, the signaling data having been transmitted to a telephone number of the first server, a second server configured to receive the signaling data from the first server and identify a destination of the message or data corresponding to the message based on the signaling data, wherein the signaling data includes a destination identifier as a part of the message, the destination identifier being a numeral or symbol with predetermined digits or digits less than the predetermined digits, different from the telephone number, wherein the destination is specified by a destination identifier with reference to a correspondence between destination identifiers includable in the signaling data and URLs of external servers and wherein the second server is configured to communicate with the destination over the IP network. a first server configured to receive signaling data including a message transmitted to the first server over a cellular circuit switched network from the IoT device, the signaling data having been transmitted to a telephone number of the first server, a second server configured to receive the signaling data from the first server and identify a destination of the message or data corresponding to the message based on the signaling data, wherein the signaling data includes a destination identifier as a part of the message, the destination identifier being a numeral or symbol with predetermined digits or digits less than the predetermined digits, different from the telephone number, wherein the destination is specified by a destination identifier with reference to a correspondence between destination identifiers includable in the signaling data and URLs of external servers and wherein the second server is configured to communicate with the destination over the IP network.
A resin composition for a modeling material for shaping a modeling material by a manufacturing method for light curing molding with an ink-jet scheme, comprising: (A) an ethylenic unsaturated monomer as a photocuring component, (B) a photopolymerization initiator, and (C) a surface adjusting agent, wherein the (A) component comprises 20 to 70 parts by weight of a polyfunctional ethylenic unsaturated monomer, based on 100 parts by weight of the whole resin composition for a modeling material, wherein the resin composition for a modeling material has surface tension at a temperature of 25 °C Mt of 26.0 to 33.0 mN/m, determined as described in the specification, and the resin composition for a modeling material has surface tension Mst represented by the following (i) expression of 33.0 mN/m or more. Mst = ∑ Surface tension of each photocuring component × content of each photocuring component Total content of photocuring components (A) an ethylenic unsaturated monomer as a photocuring component, (B) a photopolymerization initiator, and (C) a surface adjusting agent, wherein the (A) component comprises 20 to 70 parts by weight of a polyfunctional ethylenic unsaturated monomer, based on 100 parts by weight of the whole resin composition for a modeling material, wherein the resin composition for a modeling material has surface tension at a temperature of 25 °C Mt of 26.0 to 33.0 mN/m, determined as described in the specification, and the resin composition for a modeling material has surface tension Mst represented by the following (i) expression of 33.0 mN/m or more. Mst = ∑ Surface tension of each photocuring component × content of each photocuring component Total content of photocuring components wherein the (A) component comprises 20 to 70 parts by weight of a polyfunctional ethylenic unsaturated monomer, based on 100 parts by weight of the whole resin composition for a modeling material, wherein the resin composition for a modeling material has surface tension at a temperature of 25 °C Mt of 26.0 to 33.0 mN/m, determined as described in the specification, and the resin composition for a modeling material has surface tension Mst represented by the following (i) expression of 33.0 mN/m or more. Mst = ∑ Surface tension of each photocuring component × content of each photocuring component Total content of photocuring components
A display device , comprising: a rectangular display part that extends in a longitudinal direction (X) and a transverse direction (Y) and that includes a display region configured to display image; a light source part including a plurality of LEDs ; a lens mounted to cover the light source part and to refract and reflect a light of the light source part ; a reflection sheet provided on a rear surface side opposite to the display surface of the display part and configured to reflect the light refracted and reflected by the lens ; an optical sheet disposed between the display part and the reflection sheet and parallel to the display part ; and a rear frame covering the reflection sheet on the rear surface side, wherein the light source part is disposed in an upper portion (A) of the display device with respect to the transverse direction (Y), wherein a hollow light-guiding region is provided between the reflection sheet and the optical sheet , and wherein the distance between the reflection sheet and the optical sheet in the thickness direction (Z) of the display device is less in a lower portion (B) than in the upper portion (A) with respect to the transverse direction (Y), the display device being characterized in that the distance between the reflection sheet and the optical sheet in the thickness direction (Z) of the display device is less at both ends (D) of the reflection sheet in the longitudinal direction (X) than in a middle portion (E) of the reflection sheet in the longitudinal direction (X). a rectangular display part that extends in a longitudinal direction (X) and a transverse direction (Y) and that includes a display region configured to display image; a light source part including a plurality of LEDs ; a lens mounted to cover the light source part and to refract and reflect a light of the light source part ; a reflection sheet provided on a rear surface side opposite to the display surface of the display part and configured to reflect the light refracted and reflected by the lens ; an optical sheet disposed between the display part and the reflection sheet and parallel to the display part ; and a rear frame covering the reflection sheet on the rear surface side, wherein the light source part is disposed in an upper portion (A) of the display device with respect to the transverse direction (Y), wherein a hollow light-guiding region is provided between the reflection sheet and the optical sheet , and wherein the distance between the reflection sheet and the optical sheet in the thickness direction (Z) of the display device is less in a lower portion (B) than in the upper portion (A) with respect to the transverse direction (Y), the display device being characterized in that the distance between the reflection sheet and the optical sheet in the thickness direction (Z) of the display device is less at both ends (D) of the reflection sheet in the longitudinal direction (X) than in a middle portion (E) of the reflection sheet in the longitudinal direction (X).
An outer space deployable antenna comprising: a waveguide antenna feed section comprising a first plurality of wires and a first plurality of biased hinges coupling the first plurality of wires together to be self-biased to move between a collapsed stored configuration and an extended deployed configuration; a horn antenna section coupled to the waveguide antenna feed section and comprising a second plurality of wires and a second plurality of biased hinges coupling the second plurality of wires together to be self-biased to move between the collapsed stored configuration and the extended deployed configuration; and a flexible electrically conductive layer covering the waveguide antenna feed section and the horn antenna section in at least the extended deployed configuration. a waveguide antenna feed section comprising a first plurality of wires and a first plurality of biased hinges coupling the first plurality of wires together to be self-biased to move between a collapsed stored configuration and an extended deployed configuration; a horn antenna section coupled to the waveguide antenna feed section and comprising a second plurality of wires and a second plurality of biased hinges coupling the second plurality of wires together to be self-biased to move between the collapsed stored configuration and the extended deployed configuration; and a flexible electrically conductive layer covering the waveguide antenna feed section and the horn antenna section in at least the extended deployed configuration.
A rotor, comprising: a rotor core provided with a plurality of magnet implantable holes arranged in a circumferential direction of the rotor core ; and a permanent magnet buried in each of the magnet implantable holes , wherein the rotor core is further provided with a gap formed of base holes extending to an outer side of the rotor core from both ends, in the circumferential direction, of each of the magnet implantable holes , and a projecting hole which projects in the circumferential direction of the rotor core from at least one of peripheral portions , opposed to each other, of the base holes provided at both of the ends of each of the magnet implantable holes , when viewed in an axial direction, the projecting hole is located closer to the magnet implantable hole than to an outer peripheral side end of the base hole , characterized in that the rotor core is made of a magnetic material of which saturated magnetic flux density is greater than or equal to 2.3 T, and the projecting hole is in a semicircular shape when viewed in the axial direction. a rotor core provided with a plurality of magnet implantable holes arranged in a circumferential direction of the rotor core ; and a permanent magnet buried in each of the magnet implantable holes , wherein the rotor core is further provided with a gap formed of base holes extending to an outer side of the rotor core from both ends, in the circumferential direction, of each of the magnet implantable holes , and a projecting hole which projects in the circumferential direction of the rotor core from at least one of peripheral portions , opposed to each other, of the base holes provided at both of the ends of each of the magnet implantable holes , when viewed in an axial direction, the projecting hole is located closer to the magnet implantable hole than to an outer peripheral side end of the base hole , characterized in that the rotor core is made of a magnetic material of which saturated magnetic flux density is greater than or equal to 2.3 T, and the projecting hole is in a semicircular shape when viewed in the axial direction.
Communication node for a communication system , comprising: - a communication module , and - at least one application module , - wherein the communication module is configured to transfer data signals (D2) received from another communication node of the communication system, or the contents of these data signals, to the application module, and to send data signals (D1) based on data received from the application module to said other communication node or to at least one other communication node of the communication system, and - wherein the communication module is configured to evaluate the received data signals and to generate a quality value (Q1(T1), Q2(T2)) that describes the current and/or future quality of the data connection with respect to a previously defined maximum latency (T1, T2) that is assigned to the application module, and characterized in that - the communication module is further configured to send a control signal (QS) to the application module if the quality value is below a given quality threshold (Q1min, Q2min) regarding the respective maximum latency that is assigned to the application module, and - said at least one application module is configured to send a parameter request to the communication module in response to receiving said control signal, - wherein said parameter request indicates to the communication module that the communication module is instructed to proceed with exchanging data signals with other communication modules based on a modified parameter set that includes a modified quality threshold (Q2min') and/or a modified maximum latency value (T2'). - a communication module , and - at least one application module , - wherein the communication module is configured to transfer data signals (D2) received from another communication node of the communication system, or the contents of these data signals, to the application module, and to send data signals (D1) based on data received from the application module to said other communication node or to at least one other communication node of the communication system, and - wherein the communication module is configured to evaluate the received data signals and to generate a quality value (Q1(T1), Q2(T2)) that describes the current and/or future quality of the data connection with respect to a previously defined maximum latency (T1, T2) that is assigned to the application module, and - the communication module is further configured to send a control signal (QS) to the application module if the quality value is below a given quality threshold (Q1min, Q2min) regarding the respective maximum latency that is assigned to the application module, and - said at least one application module is configured to send a parameter request to the communication module in response to receiving said control signal, - wherein said parameter request indicates to the communication module that the communication module is instructed to proceed with exchanging data signals with other communication modules based on a modified parameter set that includes a modified quality threshold (Q2min') and/or a modified maximum latency value (T2').
An energy monitoring system for a power conductor , said energy monitoring system comprising: a base unit including a first indicator circuit having a first indicator ; a current sensor ; a sensor cable including a first conductor and a second conductor ; and the current sensor including a secondary winding inductively coupled to the power conductor and electrically connected to the base unit by the second conductor ; the current sensor further including a second indicator , wherein the first indicator circuit is electrically connected to the second indicator by the first conductor ; wherein the first indicator circuit is structured to control the first indicator and the second indicator to turn on simultaneously. a base unit including a first indicator circuit having a first indicator ; a current sensor ; a sensor cable including a first conductor and a second conductor ; and the current sensor including a secondary winding inductively coupled to the power conductor and electrically connected to the base unit by the second conductor ; the current sensor further including a second indicator , wherein the first indicator circuit is electrically connected to the second indicator by the first conductor ; wherein the first indicator circuit is structured to control the first indicator and the second indicator to turn on simultaneously.
A counter-rotating fan , comprising: two impellers axially spaced apart from each other and divided into a first stage impeller and a second stage impeller , wherein when the counter-rotating fan operates, airflow is blown in a direction from the first stage impeller toward the second stage impeller , at least one impeller of the two impellers is provided with multiple annular arrays of blades arranged in a radial direction of the impeller, a plurality of blades in each array are disposed around a hub of the impeller and spaced apart from each other, and a spacer ring is arranged between two adjacent arrays of blades to connect the two adjacent arrays with each other; and at least one motor configured for driving the two impellers into rotation; characterised in that a thickness of the spacer ring is less than or equal to a maximum thickness of each of the plurality of blades. two impellers axially spaced apart from each other and divided into a first stage impeller and a second stage impeller , wherein when the counter-rotating fan operates, airflow is blown in a direction from the first stage impeller toward the second stage impeller , at least one impeller of the two impellers is provided with multiple annular arrays of blades arranged in a radial direction of the impeller, a plurality of blades in each array are disposed around a hub of the impeller and spaced apart from each other, and a spacer ring is arranged between two adjacent arrays of blades to connect the two adjacent arrays with each other; and at least one motor configured for driving the two impellers into rotation; characterised in that a thickness of the spacer ring is less than or equal to a maximum thickness of each of the plurality of blades.