mhurhangee/patent-ind-claim-en huggingface dataset:
A prosthesis delivery device comprising: a first end and a second end , a prosthesis retention section and a prosthesis retained on the prosthesis retention section , the prosthesis having a first end disposed towards the first end of the delivery device and a second end disposed towards the second end of the delivery device, a retractable sheath slidably disposed at least partially over the prosthesis , a rotatable inner cannula having a cannula lumen , the rotatable inner cannula extending from the second end of the delivery device to the first end of the delivery device, a prosthesis first end attachment and release mechanism comprising a coil disposed on the inner cannula and rotatably coupled to the first end of the prosthesis, a positioner disposed at least partially over the inner cannula and comprising a prosthesis second end attachment and release mechanism, the prosthesis second end attachment and release mechanism comprising a capture wire and releasably engaging the second end of the prosthesis, wherein rotation of the rotatable inner cannula releases the first end of the prosthesis from the prosthesis first end attachment and release mechanism and from the delivery device , and withdrawal of the sheath from over the prosthesis second end attachment and release mechanism automatically releases the second end of the prosthesis from the second end attachment and release mechanism and from the delivery device . a first end and a second end , a prosthesis retention section and a prosthesis retained on the prosthesis retention section , the prosthesis having a first end disposed towards the first end of the delivery device and a second end disposed towards the second end of the delivery device, a retractable sheath slidably disposed at least partially over the prosthesis , a rotatable inner cannula having a cannula lumen , the rotatable inner cannula extending from the second end of the delivery device to the first end of the delivery device, a prosthesis first end attachment and release mechanism comprising a coil disposed on the inner cannula and rotatably coupled to the first end of the prosthesis, a positioner disposed at least partially over the inner cannula and comprising a prosthesis second end attachment and release mechanism, the prosthesis second end attachment and release mechanism comprising a capture wire and releasably engaging the second end of the prosthesis, wherein rotation of the rotatable inner cannula releases the first end of the prosthesis from the prosthesis first end attachment and release mechanism and from the delivery device , and withdrawal of the sheath from over the prosthesis second end attachment and release mechanism automatically releases the second end of the prosthesis from the second end attachment and release mechanism and from the delivery device .
Method for assembling a cab for a railway vehicle, comprising the following steps: - manufacturing a mecano-welded structure , the structure being adapted to form a floor and side walls of the cab , the structure defining an interior space which is to receive pieces of cab equipment , the side walls together defining at least one opening of the structure , the opening being opposite the floor in a direction (V) which is to be vertical, - fixing at least one of the pieces of cab equipment to the structure , the fixed piece of cab equipment being transported into the interior space beforehand via the opening , characterised by the method step of - fixing a roof element to the structure , the roof element closing the opening at least partially, fixing of the roof element comprising bonding a first bonding surface defined by the roof element to a second bonding surface defined by the structure . - manufacturing a mecano-welded structure , the structure being adapted to form a floor and side walls of the cab , the structure defining an interior space which is to receive pieces of cab equipment , the side walls together defining at least one opening of the structure , the opening being opposite the floor in a direction (V) which is to be vertical, - fixing at least one of the pieces of cab equipment to the structure , the fixed piece of cab equipment being transported into the interior space beforehand via the opening , - fixing a roof element to the structure , the roof element closing the opening at least partially, fixing of the roof element comprising bonding a first bonding surface defined by the roof element to a second bonding surface defined by the structure .
A resin composition comprising - a polycarbonate resin and - a fluorine-containing copolymer, which is a copolymer containing a polymerized unit based on tetrafluoroethylene (TFE) in an amount of ≥ 75 mass-% of all polymerized units and at least one selected from a polymerized unit based on hexafluoropropylene (HFP) and a polymerized unit based on a perfluoro(alkyl vinyl ether) (PAVE) in an amount of ≥ 2 mass-% of all polymerized units. - a polycarbonate resin and - a fluorine-containing copolymer, which is a copolymer containing a polymerized unit based on tetrafluoroethylene (TFE) in an amount of ≥ 75 mass-% of all polymerized units and at least one selected from a polymerized unit based on hexafluoropropylene (HFP) and a polymerized unit based on a perfluoro(alkyl vinyl ether) (PAVE) in an amount of ≥ 2 mass-% of all polymerized units.
Method for controlling a building water supply system which, in the installed state, is connected to a water supply network of a building , wherein the building water supply system has multiple sanitary fittings (4-7), wherein the sanitary fittings (4-7) are each assigned a fitting actuator (8-11), in particular a fitting valve, with an electronic fitting controller (12-15), which fitting actuator is activated by the fitting controller (12-15) for flushing at least a part of the water supply network during flushing activities, wherein the building water supply system has an electronic central controller which, via, in particular bidirectional, data connections , forms a data network with the fitting controllers (12-15), characterized in that , during normal operation, the fitting controllers (12-15) and thus the fitting actuators (8-11) are activated by the central controller according to a global flushing strategy, and in that , during a fault operation with at least partial drop-out of the central controller , at least some of the fitting actuators (8-11) are activated autonomously by the assigned fitting controllers (12-15) according to an in each case local flushing strategy.
A water-soluble packaging film comprising: a modified polyvinyl alcohol; a plasticizer; and an alkali metal derived from an alkali metal salt, the alkali metal salt being hydride, halide, oxygenate, sulfide, oxoate, or organic acid salt, wherein the water-soluble packaging film contains 3 to 13 parts by weight of the plasticizer based on 100 parts by weight of the modified polyvinyl alcohol, the water-soluble packaging film contains 0.3 to 5% by weight of the alkali metal based on 100% by weight of the water-soluble packaging film as measured according to the method in the description, the alkali metal content per unit area as measured according to the method in the description is 0.06 to 10 g/m 2 , characterized in that the modified polyvinyl alcohol is prepared by modification by a hydrophilic group, wherein the hydrophilic group is a sulfonic acid group. a modified polyvinyl alcohol; a plasticizer; and an alkali metal derived from an alkali metal salt, the alkali metal salt being hydride, halide, oxygenate, sulfide, oxoate, or organic acid salt, wherein the water-soluble packaging film contains 3 to 13 parts by weight of the plasticizer based on 100 parts by weight of the modified polyvinyl alcohol, the water-soluble packaging film contains 0.3 to 5% by weight of the alkali metal based on 100% by weight of the water-soluble packaging film as measured according to the method in the description, the alkali metal content per unit area as measured according to the method in the description is 0.06 to 10 g/m 2 , characterized in that the modified polyvinyl alcohol is prepared by modification by a hydrophilic group, wherein the hydrophilic group is a sulfonic acid group.
An arrangement of a heat dissipating structure , a heat source and a cooling member , the heat dissipating structure being provided between the heat source and the cooling member and enabling heat dissipation from the heat source by conducting heat from the heat source to the cooling member , said heat dissipating structure comprising: a thermally conductive sheet comprising at least one of metal, carbon, and ceramic and settable between the heat source and the cooling member ; and a cushion member at least partially covered with the thermally conductive sheet , wherein the thermally conductive sheet has a downward-C-shaped cross section with an opening facing the cooling member in a part disposed between the heat source and the cooling member , and the cushion member is arranged inside the thermally conductive sheet . a thermally conductive sheet comprising at least one of metal, carbon, and ceramic and settable between the heat source and the cooling member ; and a cushion member at least partially covered with the thermally conductive sheet , wherein the thermally conductive sheet has a downward-C-shaped cross section with an opening facing the cooling member in a part disposed between the heat source and the cooling member , and the cushion member is arranged inside the thermally conductive sheet .
A method for processing plastic waste pyrolysis gas, the method comprising a) providing o a plastic waste pyrolysis gas stream wherein temperature of the plastic waste pyrolysis gas stream is 300-650 °C, preferably 450-500 °C and o a hydrocarbonaceous liquid stream wherein temperature of the hydrocarbonaceous liquid stream is below temperature of the plastic waste pyrolysis gas stream, b) admixing in an ejecting means the plastic waste pyrolysis gas stream and the hydrocarbonaceous liquid stream to form an admixture, c) ejecting through a spray nozzle , the admixture to a chamber to produce a condensed fraction and a gaseous fraction, and d) separating the gaseous fraction and the condensed fraction to yield a first liquid product stream and a gaseous product stream. a) providing o a plastic waste pyrolysis gas stream wherein temperature of the plastic waste pyrolysis gas stream is 300-650 °C, preferably 450-500 °C and o a hydrocarbonaceous liquid stream wherein temperature of the hydrocarbonaceous liquid stream is below temperature of the plastic waste pyrolysis gas stream, o a plastic waste pyrolysis gas stream wherein temperature of the plastic waste pyrolysis gas stream is 300-650 °C, preferably 450-500 °C and o a hydrocarbonaceous liquid stream wherein temperature of the hydrocarbonaceous liquid stream is below temperature of the plastic waste pyrolysis gas stream, b) admixing in an ejecting means the plastic waste pyrolysis gas stream and the hydrocarbonaceous liquid stream to form an admixture, c) ejecting through a spray nozzle , the admixture to a chamber to produce a condensed fraction and a gaseous fraction, and d) separating the gaseous fraction and the condensed fraction to yield a first liquid product stream and a gaseous product stream.
An operation circuit comprising: a data conversion unit to convert data into first data sequences that are pseudo-random number sequences; a coefficient storage unit to store a weighting coefficient that is a value weighted for each of the first data sequences; a coefficient conversion unit to convert the weighting coefficient into a weighting coefficient sequence that is a pseudo-random number sequence; a plurality of first weighted addition units (200-1, 200-2) to generate a second data sequence obtained by weighting and adding up the first data sequences with use of the first data sequences and the weighting coefficient sequences; and at least one second weighted addition unit (200-3) to generate a third data sequence obtained by weighting and adding up the second data sequences with use of the second data sequences and the weighting coefficient sequence; characterised by a control unit to select the first data sequences to be inputted to the first weighted addition units (200-1, 200-2) such that operation error levels in the first weighted addition units and the second weighted addition unit become smaller than a predetermined value, wherein the weighting coefficient has a value of 0 or more and 1 or less, and the control unit is configured to reduce the operation error level by minimizing a maximum value of a product of a value obtained by subtracting the weighting coefficient from 1 and the weighting coefficient; or the control unit is configured to reduce the operation error level by minimizing a difference between the weighting coefficient and 0. a data conversion unit to convert data into first data sequences that are pseudo-random number sequences; a coefficient storage unit to store a weighting coefficient that is a value weighted for each of the first data sequences; a coefficient conversion unit to convert the weighting coefficient into a weighting coefficient sequence that is a pseudo-random number sequence; a plurality of first weighted addition units (200-1, 200-2) to generate a second data sequence obtained by weighting and adding up the first data sequences with use of the first data sequences and the weighting coefficient sequences; and at least one second weighted addition unit (200-3) to generate a third data sequence obtained by weighting and adding up the second data sequences with use of the second data sequences and the weighting coefficient sequence; characterised by a control unit to select the first data sequences to be inputted to the first weighted addition units (200-1, 200-2) such that operation error levels in the first weighted addition units and the second weighted addition unit become smaller than a predetermined value, wherein the weighting coefficient has a value of 0 or more and 1 or less, and the control unit is configured to reduce the operation error level by minimizing a maximum value of a product of a value obtained by subtracting the weighting coefficient from 1 and the weighting coefficient; or the control unit is configured to reduce the operation error level by minimizing a difference between the weighting coefficient and 0.
A data transmission device, wherein the device comprises: a bus ; a processor connected to the bus ; a transmitter connected to the bus ; and a receiver connected to the bus , wherein the processor calls, by using the bus , a program stored in a memory , so as to: control the receiver to receive information that is about an sparse code multiple access ,SCMA, codebook used by the device and that is sent by a destination node, wherein the SCMA codebook comprises two or more codewords, the codeword is a multi-dimensional complex vector and is used to represent a mapping relationship between data and at least two modulation symbols, and the at least two modulation symbols comprise at least one zero modulation symbol and at least one non-zero modulation symbol; and control the receiver to receive two or more source signals sent by two or more source nodes; the processor is further configured to perform network coding on the received two or more source signals, and perform, by using the SCMA codebook indicated by the information about the SCMA codebook, SCMA codebook mapping on a signal obtained after the network coding, so as to obtain a relay signal; and the processor calls, by using the bus , the program stored in the memory , so as to control the transmitter to send, to the destination node, the relay signal obtained after the SCMA codebook mapping. a bus ; a processor connected to the bus ; a transmitter connected to the bus ; and a receiver connected to the bus , wherein the processor calls, by using the bus , a program stored in a memory , so as to: control the receiver to receive information that is about an sparse code multiple access ,SCMA, codebook used by the device and that is sent by a destination node, wherein the SCMA codebook comprises two or more codewords, the codeword is a multi-dimensional complex vector and is used to represent a mapping relationship between data and at least two modulation symbols, and the at least two modulation symbols comprise at least one zero modulation symbol and at least one non-zero modulation symbol; and control the receiver to receive two or more source signals sent by two or more source nodes; the processor is further configured to perform network coding on the received two or more source signals, and perform, by using the SCMA codebook indicated by the information about the SCMA codebook, SCMA codebook mapping on a signal obtained after the network coding, so as to obtain a relay signal; and the processor calls, by using the bus , the program stored in the memory , so as to control the transmitter to send, to the destination node, the relay signal obtained after the SCMA codebook mapping.
A cutting machine comprising: a cutting portion comprising: a motor ; a motor housing (50; 150) accommodating the motor ; an output shaft configured to be rotated upon rotation of the motor , a cutting blade being configured to be detachably attached to the output shaft ; a battery pack serving as a power source of the motor ; and a battery pack attaching portion disposed in the motor housing and including a pair of rail portions with which the battery pack is engageable; a base having a contact surface suitable for a workpiece (W) to be placed thereon; and a swing support mechanism connected to the base and the cutting portion and including a swing shaft extending in parallel to the output shaft , the swing support mechanism supporting the cutting portion such that the cutting portion is swingable about the swing shaft between a top dead center and a bottom dead center in a direction parallel to a side surface of the cutting blade ; wherein each of the motor and the battery pack attaching portion is positioned in a direction perpendicular to output shaft , characterized in that the motor housing (50; 150) is constituted by at least two split pieces each having a mating surface , the at least two split pieces (51, 52; 151, 152) contacting with each other at the mating surfaces , the pair of rail portions having one rail and another rail those individually positioned at different ones of the at least two split pieces (51, 52; 151, 152), and in that the battery pack attaching portion and the motor are disposed radially outward of the cutting blade . a motor ; a motor housing (50; 150) accommodating the motor ; an output shaft configured to be rotated upon rotation of the motor , a cutting blade being configured to be detachably attached to the output shaft ; a battery pack serving as a power source of the motor ; and a battery pack attaching portion disposed in the motor housing and including a pair of rail portions with which the battery pack is engageable; a base having a contact surface suitable for a workpiece (W) to be placed thereon; and a swing support mechanism connected to the base and the cutting portion and including a swing shaft extending in parallel to the output shaft , the swing support mechanism supporting the cutting portion such that the cutting portion is swingable about the swing shaft between a top dead center and a bottom dead center in a direction parallel to a side surface of the cutting blade ; wherein each of the motor and the battery pack attaching portion is positioned in a direction perpendicular to output shaft , characterized in that the motor housing (50; 150) is constituted by at least two split pieces each having a mating surface , the at least two split pieces (51, 52; 151, 152) contacting with each other at the mating surfaces , the pair of rail portions having one rail and another rail those individually positioned at different ones of the at least two split pieces (51, 52; 151, 152), and in that the battery pack attaching portion and the motor are disposed radially outward of the cutting blade .
A learning method for detecting a specific object based on convolutional neural network (CNN), wherein the specific object is at least one lane on a road, comprising steps of: (a) a learning device, if an input image is obtained, performing (i) a process of applying (S01) one or more convolution operations to the input image to thereby obtain at least one specific feature map and (ii) a process of obtaining (S10) an edge image by extracting at least one edge part from the input image, and obtaining (S20) at least one guide map including information on at least one specific edge part having a specific shape similar to that of the specific object from the obtained edge image, wherein the at least one guide map is generated by applying a straight line algorithm or a curved line algorithm to the edge image and giving a large weight to a shape similar to one of the lanes when detecting the lanes; and (b) the learning device reflecting (S30) the guide map on the specific feature map to thereby obtain a segmentation result for detecting the specific object in the input image, wherein, at the step of (b), the learning device performs pixel-wise multiplication between the guide map and the specific feature map to thereby generate at least one edge-reinforced feature map and obtain the segmentation result using the at least one edge-reinforced feature map, wherein in the generated at least one edge-reinforced feature map, a large weight is given to only the at least one edge part having the specific shape similar to that of the specific object desired to be detected, or the at least one edge part having the specific shape similar to that of the specific object desired to be detected remains in the at least one edge-reinforced feature map and the other edge parts are removed from the at least one edge-reinforced feature map. (a) a learning device, if an input image is obtained, performing (i) a process of applying (S01) one or more convolution operations to the input image to thereby obtain at least one specific feature map and (ii) a process of obtaining (S10) an edge image by extracting at least one edge part from the input image, and obtaining (S20) at least one guide map including information on at least one specific edge part having a specific shape similar to that of the specific object from the obtained edge image, wherein the at least one guide map is generated by applying a straight line algorithm or a curved line algorithm to the edge image and giving a large weight to a shape similar to one of the lanes when detecting the lanes; and (b) the learning device reflecting (S30) the guide map on the specific feature map to thereby obtain a segmentation result for detecting the specific object in the input image,
Vehicle having an internal combustion engine operated by means of a gas, wherein the gas is stored under pressure in a gas tank and is capable of being fed to the internal combustion engine as needed for the operation of the internal combustion engine, and a safety device having a pressure relief valve for the release of gas from the gas tank is provided, which safety device becomes active when a specified discharge gas pressure is exceeded in the gas tank , wherein the safety device includes a burner for flaring the released gas, characterized in that a control unit for operating the burner is provided, wherein the control unit can be activated depending on a gas pressure prevailing inside the gas tank , wherein at least signals from two light sensors are supplied to the control unit .