mhurhangee/ep-ind-claims huggingface dataset:
A multi-transducer earpiece for an audio reproduction apparatus, the earpiece including: a sound delivery member with an acoustic delivery channel, a first end of the sound delivery member being for placement of an ear bud, the ear bud being locatable at an entrance of an ear canal of a user; a sound damper for mounting the sound delivery member, the sound damper having a perpendicular flange perpendicular to a cross sectional area of the acoustic delivery channel for partitioning the cross sectional area of the acoustic delivery channel when the sound delivery member is mounted onto the sound damper; an enclosure encasing the sound damper; a high frequency transducer located within the enclosure, with a first output of the high frequency transducer aligned with a first sound delivery tube located in the sound damper; and a mid/low frequency transducer located within the enclosure, with a second output of the mid/low frequency transducer aligned with a second sound delivery tube located in the sound damper; wherein the flange partitions the cross sectional area of the acoustic delivery channel in a manner where mixing of signals from both the high frequency transducer and the mid/low frequency transducer is carried out in the ear canal of a user during reproduction of audio signals; characterised in that the acoustic delivery channel includes slots for fitment of the flange. a sound delivery member with an acoustic delivery channel, a first end of the sound delivery member being for placement of an ear bud, the ear bud being locatable at an entrance of an ear canal of a user; a sound damper for mounting the sound delivery member, the sound damper having a perpendicular flange perpendicular to a cross sectional area of the acoustic delivery channel for partitioning the cross sectional area of the acoustic delivery channel when the sound delivery member is mounted onto the sound damper; an enclosure encasing the sound damper; a high frequency transducer located within the enclosure, with a first output of the high frequency transducer aligned with a first sound delivery tube located in the sound damper; and a mid/low frequency transducer located within the enclosure, with a second output of the mid/low frequency transducer aligned with a second sound delivery tube located in the sound damper; wherein the flange partitions the cross sectional area of the acoustic delivery channel in a manner where mixing of signals from both the high frequency transducer and the mid/low frequency transducer is carried out in the ear canal of a user during reproduction of audio signals; characterised in that the acoustic delivery channel includes slots for fitment of the flange.
A method of determining a pushback direction of an aircraft, comprising: receiving a video image of an aircraft during a pushback of the aircraft; determining a motion flow map associated with the video image during the pushback, wherein determining the motion flow map includes: grouping a first portion of optical flow vectors into a first motion blob associated with the aircraft; and grouping a second portion of optical flow vectors into a second motion blob associated with the aircraft, wherein the direction of motion of the second motion blob opposes the direction of motion of the first motion blob; determining a motion orientation histogram associated with the video image during the pushback; and determining a direction of the pushback based on the motion flow map and the motion orientation histogram, wherein determining the direction includes determining a disappearance of one of the first motion blob and the second motion blob. receiving a video image of an aircraft during a pushback of the aircraft; determining a motion flow map associated with the video image during the pushback, wherein determining the motion flow map includes: grouping a first portion of optical flow vectors into a first motion blob associated with the aircraft; and grouping a second portion of optical flow vectors into a second motion blob associated with the aircraft, wherein the direction of motion of the second motion blob opposes the direction of motion of the first motion blob; grouping a first portion of optical flow vectors into a first motion blob associated with the aircraft; and grouping a second portion of optical flow vectors into a second motion blob associated with the aircraft, wherein the direction of motion of the second motion blob opposes the direction of motion of the first motion blob; determining a motion orientation histogram associated with the video image during the pushback; and determining a direction of the pushback based on the motion flow map and the motion orientation histogram, wherein determining the direction includes determining a disappearance of one of the first motion blob and the second motion blob.
A system comprising: a fuel cell stack having an exit fluid flow; a first conduit for the exit fluid flow; a valve disposed within the first conduit; a turbine assembly to receive a bypass portion of the exit fluid flow based on an orientation of the valve with respect to the first conduit, wherein the turbine assembly comprises: a turbine (122; 226) having an inlet coupled to the first conduit upstream of the valve to receive the bypass portion of the exit fluid flow; and a generator coupled to the turbine to generate electrical energy resulting from the bypass portion; and a compressor assembly provided upstream of the fuel cell stack to receive intake air and compress the air to achieve the desired input airflow to the fuel cell stack, the compressor assembly comprising a compressor and a motor coupled to the compressor, wherein: the turbine and the motor are not mechanically coupled via a common rotary shaft. a fuel cell stack having an exit fluid flow; a first conduit for the exit fluid flow; a valve disposed within the first conduit; a turbine assembly to receive a bypass portion of the exit fluid flow based on an orientation of the valve with respect to the first conduit, wherein the turbine assembly comprises: a turbine (122; 226) having an inlet coupled to the first conduit upstream of the valve to receive the bypass portion of the exit fluid flow; and a generator coupled to the turbine to generate electrical energy resulting from the bypass portion; and a turbine (122; 226) having an inlet coupled to the first conduit upstream of the valve to receive the bypass portion of the exit fluid flow; and a generator coupled to the turbine to generate electrical energy resulting from the bypass portion; and a compressor assembly provided upstream of the fuel cell stack to receive intake air and compress the air to achieve the desired input airflow to the fuel cell stack, the compressor assembly comprising a compressor and a motor coupled to the compressor, wherein: the turbine and the motor are not mechanically coupled via a common rotary shaft.
A battery cover assembly, comprising: a cover plate body formed with at least a via hole penetrating therethrough; a cover plate connecting member hermetically connected with the cover plate body at the via hole, which is formed with an electrode receiving hole therein; and an electrode terminal penetrating through the electrode receiving hole to be hermetically connected with and insulated from the cover plate connecting member for leading out a current; wherein the battery cover assembly further comprises a ceramic sealing member sandwiched between the electrode terminal and the cover plate connecting member, which is hermetically connected with and insulated from the electrode terminal and welded with the cover plate connecting member, characterized in that the cover plate connecting member comprises: a mounting groove, with the electrode receiving hole penetrating through a bottom portion of the mounting groove; a flanging portion formed at a periphery of the mounting groove, which is connected with the cover plate body, and wherein the via hole is configured as a stepped hole, and the flanging portion is disposed on a step portion of the stepped hole and stationarily connected with the cover plate body. a cover plate body formed with at least a via hole penetrating therethrough; a cover plate connecting member hermetically connected with the cover plate body at the via hole, which is formed with an electrode receiving hole therein; and an electrode terminal penetrating through the electrode receiving hole to be hermetically connected with and insulated from the cover plate connecting member for leading out a current; wherein the battery cover assembly further comprises a ceramic sealing member sandwiched between the electrode terminal and the cover plate connecting member, which is hermetically connected with and insulated from the electrode terminal and welded with the cover plate connecting member, characterized in that the cover plate connecting member comprises: a mounting groove, with the electrode receiving hole penetrating through a bottom portion of the mounting groove; a flanging portion formed at a periphery of the mounting groove, which is connected with the cover plate body, and wherein the via hole is configured as a stepped hole, and the flanging portion is disposed on a step portion of the stepped hole and stationarily connected with the cover plate body. a mounting groove, with the electrode receiving hole penetrating through a bottom portion of the mounting groove; a flanging portion formed at a periphery of the mounting groove, which is connected with the cover plate body, and wherein the via hole is configured as a stepped hole, and the flanging portion is disposed on a step portion of the stepped hole and stationarily connected with the cover plate body.
Method for sorting waste, in which method the waste or recycleable material intended for sorting is brought in waste bags to a sorting apparatus, which comprises a conveyor, from which the waste bags belonging to different waste components are separated from each other by guiding them into the containers according to the waste components or to further processing, and in the method a waste bag, an identifier arranged in connection with it and/or the content of the waste bag is identified with a sensor system, which comprises a number of sensors (S1, S2, S3) monitoring different properties, which sensors essentially simultaneously read and/or identify a waste bag, an identifier arranged in connection with it and/or the content of the waste bag when the waste bag is transferred on the conveyor via the reading area of the sensors (S1, S2, S3),, and in which method on the basis of information coming from the sensors (S1, S2, S3) the waste bags are sorted into different waste components (F1...Fn) using one or more handling devices (R1, R2, R3) of the sorting apparatus, characteriz ed in that of the many sensors (S1, S2, S3) of the sensor system at least one is a material detector which identifies content of the waste bag.
A window comprising a casement frame and a window frame, wherein the casement frame is in fluid communication with the window frame when the window is in a closed state and a drainage opening is provided on the underside of the window frame for drainage of water within the frame, wherein the drainage opening has a first region (104.I) for the draining of water from within the frame as well as a second region (104.II) for equalizing pressure, characterized in that a chute element (110a, 110b) is provided over the second region of the drainage opening (104.II) which is designed to at least partially enclose the second region of the drainage opening (104.II) to shield against the water within the frame.
A robot comprising: a memory storing first map data corresponding to a first region of a specific space; a distance sensor; and a processor configured to: based on acquiring second map data on the basis of distance data acquired by the distance sensor while the robot is travelling in the specific space, compare the first map data and the second map data, and based on identifying, as a result of the comparison, that an error does not exist in the second map data and information on a second region other than the first region is included in the second map data, update the first map data on the basis of the second map data, characterized in that the second region is a region comprising a plurality of sub regions clustered in a specific form and the size of the second region is greater than or equal to a threshold size. a memory storing first map data corresponding to a first region of a specific space; a distance sensor; and a processor configured to: based on acquiring second map data on the basis of distance data acquired by the distance sensor while the robot is travelling in the specific space, compare the first map data and the second map data, and based on identifying, as a result of the comparison, that an error does not exist in the second map data and information on a second region other than the first region is included in the second map data, update the first map data on the basis of the second map data, characterized in that the second region is a region comprising a plurality of sub regions clustered in a specific form and the size of the second region is greater than or equal to a threshold size. based on acquiring second map data on the basis of distance data acquired by the distance sensor while the robot is travelling in the specific space, compare the first map data and the second map data, and based on identifying, as a result of the comparison, that an error does not exist in the second map data and information on a second region other than the first region is included in the second map data, update the first map data on the basis of the second map data, characterized in that the second region is a region comprising a plurality of sub regions clustered in a specific form and the size of the second region is greater than or equal to a threshold size.
Particle board comprising a) a wood particle base layer having a first side and a reverse side, the wood particle base layer comprising i) wood particles in an amount from 60.0 to 97.5 parts by weight (d/d) and at least one particulate calcium carbonate-containing material in an amount from 2.5 to 40.0 parts by weight (d/d), based on the total dry weight of the wood particles and at least one particulate calcium carbonate-containing material of the wood particle base layer, and b) at least one wood particle surface layer being in contact with the first and/or reverse side of the wood particle base layer, the at least one wood particle surface layer comprising ii) wood particles in an amount from 70.0 to 97.5 parts by weight (d/d) and at least one particulate calcium carbonate-containing material in an amount from 2.5 to 30.0 parts by weight (d/d), based on the total dry weight of the wood particles and the at least one particulate calcium carbonate-containing material of the at least one wood particle surface layer, wherein the at least one particulate calcium carbonate-containing material of the wood particle base layer and/or the at least one wood particle surface layer has a) a weight median particle size d 50 from 1.0 μm to 1 000.0 μm, and wherein the sum of the amount of the wood particles and the at least one particulate calcium carbonate-containing material in each of the wood particle base layer and the at least one wood particle surface layer is 100.0 parts by weight (d/d), based on the total dry weight of the wood particles and the at least one particulate calcium carbonate-containing material in the layer. a) a wood particle base layer having a first side and a reverse side, the wood particle base layer comprising i) wood particles in an amount from 60.0 to 97.5 parts by weight (d/d) and at least one particulate calcium carbonate-containing material in an amount from 2.5 to 40.0 parts by weight (d/d), based on the total dry weight of the wood particles and at least one particulate calcium carbonate-containing material of the wood particle base layer, and i) wood particles in an amount from 60.0 to 97.5 parts by weight (d/d) and at least one particulate calcium carbonate-containing material in an amount from 2.5 to 40.0 parts by weight (d/d), based on the total dry weight of the wood particles and at least one particulate calcium carbonate-containing material of the wood particle base layer, and b) at least one wood particle surface layer being in contact with the first and/or reverse side of the wood particle base layer, the at least one wood particle surface layer comprising ii) wood particles in an amount from 70.0 to 97.5 parts by weight (d/d) and at least one particulate calcium carbonate-containing material in an amount from 2.5 to 30.0 parts by weight (d/d), based on the total dry weight of the wood particles and the at least one particulate calcium carbonate-containing material of the at least one wood particle surface layer,
An ionically conductive material for electrochemical generator characterised in that it comprises: - 1. at least one polymer A, distinct from B, having an ionic conductivity comprised between 10 -5 and 10 -3 S/cm, the ionic conductivity being measured by electrochemical impedance spectrometry at 25°C, - 2. at least one polymer B having a mechanical strength characterised by a storage module ≥ 200 MPa, for example comprised between 200 and 5000 MPa or between 350 and 1500 MPa, the storage module being measured by Dynamic Mechanical Analysis at 30°C, - 3. at least one reinforcing filler C. - 1. at least one polymer A, distinct from B, having an ionic conductivity comprised between 10 -5 and 10 -3 S/cm, the ionic conductivity being measured by electrochemical impedance spectrometry at 25°C, - 2. at least one polymer B having a mechanical strength characterised by a storage module ≥ 200 MPa, for example comprised between 200 and 5000 MPa or between 350 and 1500 MPa, the storage module being measured by Dynamic Mechanical Analysis at 30°C, - 3. at least one reinforcing filler C.
A gas hob comprising a top sheet, a connection rail having a plurality of ports and a plurality of gas burners arranged on the top sheet and releasably connected to the ports, the ports being configured to supply the gas burners with fuel gas, and an extraction unit configured to extract fumes, the extraction unit being retractable into the top sheet, characterised in that the extraction unit is arranged on top of and/or at least partially inside the connection rail.
A method for controlling an electric appliance in a personalized way, characterized by comprising: detecting whether a wireless signal carrying Subscriber Identity Module, SIM, card information exists in a preset range; in a case that the wireless signal carrying the SIM card information exists, determining a user identity of a SIM card according to the SIM card information; and controlling an electric appliance according to the determined user identity, wherein, the step of detecting whether a wireless signal carrying SIM card information exists in a preset range comprises: detecting whether the wireless signal carrying the SIM card information exists in the preset range by communicating with a base station of a cell; or when a user makes or answers calls, detecting whether the wireless signal carrying the SIM card information exists in the preset range by detecting a communication message transmitted in a wireless channel. detecting whether a wireless signal carrying Subscriber Identity Module, SIM, card information exists in a preset range; in a case that the wireless signal carrying the SIM card information exists, determining a user identity of a SIM card according to the SIM card information; and controlling an electric appliance according to the determined user identity, wherein, the step of detecting whether a wireless signal carrying SIM card information exists in a preset range comprises: detecting whether the wireless signal carrying the SIM card information exists in the preset range by communicating with a base station of a cell; or when a user makes or answers calls, detecting whether the wireless signal carrying the SIM card information exists in the preset range by detecting a communication message transmitted in a wireless channel. detecting whether the wireless signal carrying the SIM card information exists in the preset range by communicating with a base station of a cell; or when a user makes or answers calls, detecting whether the wireless signal carrying the SIM card information exists in the preset range by detecting a communication message transmitted in a wireless channel.
Hydrostatic transmission device for a mobile vehicle comprising: - a pump the main orifices of which are connected to a "reverse travel" high-pressure pipe and a "forward travel" high-pressure pipe, - a first (Marg) and a second (Mard) "reverse" motor able to be connected to the "reverse travel" high-pressure pipe, and a first (Mavg) and a second (Mavd) "forward" motor able to be connected to the "reverse travel" high-pressure pipe or to the "forward travel" high-pressure pipe, each said "reverse" motor being connected to one said "forward" motor by a series pipe (3g, 3d) thus constituting a closed transmission circuit, - at least one pressure-control valve (V, Vg, Vd) connected to the series pipes (3g, 3d), characterized in that the pressure-control valve (V, Vg, Vd) is connected to a selector (Se) operated as a function of the difference in pressure between the "forward travel" high-pressure pipe and the "reverse travel" high-pressure pipe so as selectively to connect the series pipes (3g, 3d) to said "reverse travel" high-pressure pipe or to said "forward travel" high-pressure pipe. - a pump the main orifices of which are connected to a "reverse travel" high-pressure pipe and a "forward travel" high-pressure pipe, - a first (Marg) and a second (Mard) "reverse" motor able to be connected to the "reverse travel" high-pressure pipe, and a first (Mavg) and a second (Mavd) "forward" motor able to be connected to the "reverse travel" high-pressure pipe or to the "forward travel" high-pressure pipe, each said "reverse" motor being connected to one said "forward" motor by a series pipe (3g, 3d) thus constituting a closed transmission circuit, - at least one pressure-control valve (V, Vg, Vd) connected to the series pipes (3g, 3d), characterized in that the pressure-control valve (V, Vg, Vd) is connected to a selector (Se) operated as a function of the difference in pressure between the "forward travel" high-pressure pipe and the "reverse travel" high-pressure pipe so as selectively to connect the series pipes (3g, 3d) to said "reverse travel" high-pressure pipe or to said "forward travel" high-pressure pipe.
Safety device for a kite, with a loop which is releasably connectable to a trapeze hook and with a release mechanism which in a closed position locks an end portion of the loop, wherein in this closed position a retaining region of a pivot lever abuts the loop end portion, wherein the pivot lever is locked in the closed position by means of a grip sleeve guided in an axially adjustable manner on a(n) (elongated) main body, and wherein after displacement of the grip sleeve from a base position into an open position the pivot lever can be pivoted into a release position in which the loop end portion releases from the release mechanism so that the loop opens, characterised in that the pivot lever or a pivot lever portion is elastically pretensioned towards an operative position and is displaceably or moveably mounted against the pretension in such a way that an insertion path is formed for the loop end portion and the latter can, for reinsertion, be brought out of the release position into the closed position when the grip sleeve is in the base position.