mhurhangee/patent-ind-claim-en huggingface dataset:
A pipelined successive approximation register analog-to-digital converter , SAR ADC, comprising: a first SAR ADC stage comprising a first plurality of capacitors configured for successive approximation of an input voltage; a passive inter-stage amplifier for amplifying an analog residue from said successive approximation of said first SAR ADC stage; and a second SAR ADC stage input from said inter-stage amplifier and comprising a second plurality of capacitors configured for successive approximation of the amplified analog residue, wherein said passive inter-stage amplifier comprises one or more MOS transistors , wherein the source and drain terminals of each of said one or more MOS transistors are connected to each other and may be toggled between ground and a supply voltage, wherein the gates of said one or more MOS transistors are connectable to said first plurality of capacitors of said first SAR ADC stage, for passive charge sharing of said analog residue between said plurality of capacitors of said first SAR ADC stage and said one or more MOS transistors of said passive inter-stage amplifier , and the gates of said one or more MOS transistors are connected to said second plurality of capacitors of said second SAR ADC stage for passive charge sharing of the amplified analog residue voltage between said plurality of MOS transistors of said passive inter-stage amplifier and said second plurality of capacitors, and wherein said one or more MOS transistors are configured to passively amplify the voltage at their gates when their source and drain terminals are toggled between ground the supply voltage. a first SAR ADC stage comprising a first plurality of capacitors configured for successive approximation of an input voltage; a passive inter-stage amplifier for amplifying an analog residue from said successive approximation of said first SAR ADC stage; and a second SAR ADC stage input from said inter-stage amplifier and comprising a second plurality of capacitors configured for successive approximation of the amplified analog residue, wherein said passive inter-stage amplifier comprises one or more MOS transistors , wherein the source and drain terminals of each of said one or more MOS transistors are connected to each other and may be toggled between ground and a supply voltage, wherein the gates of said one or more MOS transistors are connectable to said first plurality of capacitors of said first SAR ADC stage, for passive charge sharing of said analog residue between said plurality of capacitors of said first SAR ADC stage and said one or more MOS transistors of said passive inter-stage amplifier , and the gates of said one or more MOS transistors are connected to said second plurality of capacitors of said second SAR ADC stage for passive charge sharing of the amplified analog residue voltage between said plurality of MOS transistors of said passive inter-stage amplifier and said second plurality of capacitors, and wherein said one or more MOS transistors are configured to passively amplify the voltage at their gates when their source and drain terminals are toggled between ground the supply voltage.
An implantable medical device , comprising: an elongate member , characterized in that : the elongate member is made from a material comprising a platinum-tungsten alloy having a percentage of tungsten that is about 10% to about 25% by weight, and has a cross-sectional dimension that is in a range between 0.0001 inch (0.00254 mm) and 0.0015 inch (0.0381 mm); and the implantable medical device has a longitudinal axis and a length measured in a direction of the longitudinal axis that is at least 0.4 inch (10.16 mm), wherein the implantable medical device is insertable lengthwise into an inner lumen of a tube having an inner lumen diameter not greater than 0.03 inch (0.762 mm), and wherein the implantable medical device has a column strength sufficient to allow the implantable medical device to be pushed through the lumen without undergoing buckling, kinking, or plastic deformation. an elongate member , characterized in that : the elongate member is made from a material comprising a platinum-tungsten alloy having a percentage of tungsten that is about 10% to about 25% by weight, and has a cross-sectional dimension that is in a range between 0.0001 inch (0.00254 mm) and 0.0015 inch (0.0381 mm); and the implantable medical device has a longitudinal axis and a length measured in a direction of the longitudinal axis that is at least 0.4 inch (10.16 mm), wherein the implantable medical device is insertable lengthwise into an inner lumen of a tube having an inner lumen diameter not greater than 0.03 inch (0.762 mm), and wherein the implantable medical device has a column strength sufficient to allow the implantable medical device to be pushed through the lumen without undergoing buckling, kinking, or plastic deformation. the elongate member is made from a material comprising a platinum-tungsten alloy having a percentage of tungsten that is about 10% to about 25% by weight, and has a cross-sectional dimension that is in a range between 0.0001 inch (0.00254 mm) and 0.0015 inch (0.0381 mm); and the implantable medical device has a longitudinal axis and a length measured in a direction of the longitudinal axis that is at least 0.4 inch (10.16 mm), wherein the implantable medical device is insertable lengthwise into an inner lumen of a tube having an inner lumen diameter not greater than 0.03 inch (0.762 mm), and wherein the implantable medical device has a column strength sufficient to allow the implantable medical device to be pushed through the lumen without undergoing buckling, kinking, or plastic deformation.
A device for generating a response to an attack in a communication network, comprising at least one processor and at least one memory including computer program code, the at least one memory and the computer program code being configured to, with the at least one processor, cause the device at least to: - generate a graph representation of network data received from the communication network, based on a predefined schema, - predict attacks from the received data based on the graph representation by using a graph neural network trained with subgraphs representing candidate attacks, characterised in that the computer program code is further configured to - detect attacks from the received data by applying inference rules to the graph representation, - launch an attack response upon prediction of an attack, and - obtain a prediction confidence level by comparing the result of predicting the attack and the result of detecting the attack, wherein the attack response is launched upon prediction of an attack depending on the prediction confidence level. - generate a graph representation of network data received from the communication network, based on a predefined schema, - predict attacks from the received data based on the graph representation by using a graph neural network trained with subgraphs representing candidate attacks, characterised in that the computer program code is further configured to - detect attacks from the received data by applying inference rules to the graph representation, - launch an attack response upon prediction of an attack, and - obtain a prediction confidence level by comparing the result of predicting the attack and the result of detecting the attack, wherein the attack response is launched upon prediction of an attack depending on the prediction confidence level.
An antenna comprising: an insulating substrate ; a plurality of conductive patches provided on a top surface of the insulating substrate; a ground plane provided below the insulating substrate, the ground plane comprising apertures therein, the apertures being registered to be aligned below the conductive patches; contacts ; a plurality of delay lines provided below the conductive patches and connected to the conductive patches via the contacts ; a variable dielectric constant , VDC, layer (344, 444, 544. 644, 744) provided between the conductive patches and the ground plane; and, feed lines having terminus ends thereof registered to be aligned below the apertures, so as to capacitively couple an RF signal to the delay lines through the apertures. an insulating substrate ; a plurality of conductive patches provided on a top surface of the insulating substrate; a ground plane provided below the insulating substrate, the ground plane comprising apertures therein, the apertures being registered to be aligned below the conductive patches; contacts ; a plurality of delay lines provided below the conductive patches and connected to the conductive patches via the contacts ; a variable dielectric constant , VDC, layer (344, 444, 544. 644, 744) provided between the conductive patches and the ground plane; and, feed lines having terminus ends thereof registered to be aligned below the apertures, so as to capacitively couple an RF signal to the delay lines through the apertures.
A refrigeration system for operating a refrigeration circuit having a refrigerant, comprising: - a first compressor ; - a condenser or gas cooler arranged behind the first compressor in the refrigeration circuit; - at least one evaporator which is arranged behind the condenser or gas cooler in the refrigeration circuit and which has a respective first expansion valve connected upstream; - a first container for collecting refrigerant arranged between the at least one evaporator and the compressor ; - a filling level sensor for measuring the filling level of the refrigerant in the first container ; and - a regulation device which is configured such that it sets a desired overheating value in dependence on the filling level of the refrigerant in the first container measured by the filling level sensor and such that it controls a degree of opening of the respective first expansion valve such that the at least one evaporator overheats the refrigerant to the desired overheating value, characterized by a second container for collecting refrigerant arranged between the condenser or gas cooler and the respective first expansion valve ; and by at least one ejector connected upstream of the second container , with a suction connector of the at least one ejector being connected to the first container and the at least one ejector being configured to convey refrigerant from the first container to the second container . - a first compressor ; - a condenser or gas cooler arranged behind the first compressor in the refrigeration circuit; - at least one evaporator which is arranged behind the condenser or gas cooler in the refrigeration circuit and which has a respective first expansion valve connected upstream; - a first container for collecting refrigerant arranged between the at least one evaporator and the compressor ; - a filling level sensor for measuring the filling level of the refrigerant in the first container ; and - a regulation device which is configured such that it sets a desired overheating value in dependence on the filling level of the refrigerant in the first container measured by the filling level sensor and such that it controls a degree of opening of the respective first expansion valve such that the at least one evaporator overheats the refrigerant to the desired overheating value,
A method performed by a computing device for matrix downmixing an audio signal having N channels, comprising: selecting which of the N channels are surviving channels and which are non-surviving channels such that the surviving channels total M channels, where N and M are non-zero positive integers, M is equal to or greater than four and N is greater than M; downmixing each of the non-surviving channels onto multiplets of the surviving channels using the computing device and multiplet pan laws to obtain panning weights, downmixing further comprising: downmixing some non-surviving channels onto surviving channel doublets using a doublet pan law; downmixing some non-surviving channels onto surviving channel triplets using a triplet pan law; downmixing some non-surviving channels onto surviving channel quadruplets using a quadruplet pan law; and encoding and multiplexing the surviving channel doublets, triplets, and quadruplets into a bitstream having M channels and transmitting the bitstream for rendering in a playback environment. selecting which of the N channels are surviving channels and which are non-surviving channels such that the surviving channels total M channels, where N and M are non-zero positive integers, M is equal to or greater than four and N is greater than M; downmixing each of the non-surviving channels onto multiplets of the surviving channels using the computing device and multiplet pan laws to obtain panning weights, downmixing further comprising: downmixing some non-surviving channels onto surviving channel doublets using a doublet pan law; downmixing some non-surviving channels onto surviving channel triplets using a triplet pan law; downmixing some non-surviving channels onto surviving channel quadruplets using a quadruplet pan law; and downmixing some non-surviving channels onto surviving channel doublets using a doublet pan law; downmixing some non-surviving channels onto surviving channel triplets using a triplet pan law; downmixing some non-surviving channels onto surviving channel quadruplets using a quadruplet pan law; and encoding and multiplexing the surviving channel doublets, triplets, and quadruplets into a bitstream having M channels and transmitting the bitstream for rendering in a playback environment.
A fluid processing assembly configured for use in combination with a fluid processing system , comprising: a separation chamber configured to separate a fluid into two or more fluid components and including an inlet flow path and an outlet flow path; a draw line in fluid communication with the inlet flow path and configured for direct connection to a source to draw a fluid from the source into the fluid processing assembly ; and a return line in fluid communication with the outlet flow path and configured for direct connection to the source to convey a replacement fluid and/or at least a portion of a separated fluid component to the source, wherein the draw line includes a first connector , the return line includes a second connector configured to be connected to the first connector , and connecting the first and second connectors removes one of the draw and return lines from direct connection to the source while placing the other one of the draw and return lines into condition for drawing fluid from the source into the fluid processing assembly and conveying a replacement fluid and/or at least a portion of a separated fluid component to the source. a separation chamber configured to separate a fluid into two or more fluid components and including an inlet flow path and an outlet flow path; a draw line in fluid communication with the inlet flow path and configured for direct connection to a source to draw a fluid from the source into the fluid processing assembly ; and a return line in fluid communication with the outlet flow path and configured for direct connection to the source to convey a replacement fluid and/or at least a portion of a separated fluid component to the source, wherein the draw line includes a first connector , the return line includes a second connector configured to be connected to the first connector , and connecting the first and second connectors removes one of the draw and return lines from direct connection to the source while placing the other one of the draw and return lines into condition for drawing fluid from the source into the fluid processing assembly and conveying a replacement fluid and/or at least a portion of a separated fluid component to the source. the draw line includes a first connector , the return line includes a second connector configured to be connected to the first connector , and connecting the first and second connectors removes one of the draw and return lines from direct connection to the source while placing the other one of the draw and return lines into condition for drawing fluid from the source into the fluid processing assembly and conveying a replacement fluid and/or at least a portion of a separated fluid component to the source.
An apparatus for the treatment of wastewater comprising the following elements: (i) a primary treatment module comprising at least one solids separation filter ; (ii) a secondary treatment module comprising at least one microflotation unit and at least one oxidation treatment unit placed downstream of said at least one microflotation unit , wherein said at least one oxidation treatment unit comprises an advanced oxidation process module for performing chemical processes, said advanced oxidation process module performing an ozone and hypochlorite treatment; (iii) a tertiary treatment module including at least one membrane filtration unit ; said apparatus being provided with means for sequentially flowing wastewater from element (i) to (iii). (i) a primary treatment module comprising at least one solids separation filter ; (ii) a secondary treatment module comprising at least one microflotation unit and at least one oxidation treatment unit placed downstream of said at least one microflotation unit , wherein said at least one oxidation treatment unit comprises an advanced oxidation process module for performing chemical processes, said advanced oxidation process module performing an ozone and hypochlorite treatment; (iii) a tertiary treatment module including at least one membrane filtration unit ;
A motor for a household appliance comprising: a rotating shaft ; a rotor connected to the rotating shaft; an impeller connected to the rotating shaft; a bearing comprising an inner ring , an outer ring , and a rolling member disposed between the inner ring and the outer ring , an inner diameter (D1) of the inner ring being larger than an outer diameter (D2) of the rotating shaft ; characterised by a spring connected to the outer ring ; and a pusher connected to the spring , the pusher being configured to: based on force applied by the spring , move away from the inner ring to a first position (P1) spaced apart from the inner ring , and based on an air pressure applied to a pressure surface of the pusher by air blown by the impeller , move to a second position (P2) facing the inner ring , wherein the inner ring is configured to: based on the pusher being at the first position (P1), rotate with the rotating shaft by friction with the rotating shaft , and based on the pusher being at the second position (P2), become detached from the rotating shaft to thereby define a gap (G) between the inner ring and the rotating shaft . a rotating shaft ; a rotor connected to the rotating shaft; an impeller connected to the rotating shaft; a bearing comprising an inner ring , an outer ring , and a rolling member disposed between the inner ring and the outer ring , an inner diameter (D1) of the inner ring being larger than an outer diameter (D2) of the rotating shaft ; characterised by a spring connected to the outer ring ; and a pusher connected to the spring , the pusher being configured to: based on force applied by the spring , move away from the inner ring to a first position (P1) spaced apart from the inner ring , and based on an air pressure applied to a pressure surface of the pusher by air blown by the impeller , move to a second position (P2) facing the inner ring , based on force applied by the spring , move away from the inner ring to a first position (P1) spaced apart from the inner ring , and based on an air pressure applied to a pressure surface of the pusher by air blown by the impeller , move to a second position (P2) facing the inner ring , wherein the inner ring is configured to: based on the pusher being at the first position (P1), rotate with the rotating shaft by friction with the rotating shaft , and based on the pusher being at the second position (P2), become detached from the rotating shaft to thereby define a gap (G) between the inner ring and the rotating shaft . based on the pusher being at the first position (P1), rotate with the rotating shaft by friction with the rotating shaft , and based on the pusher being at the second position (P2), become detached from the rotating shaft to thereby define a gap (G) between the inner ring and the rotating shaft .
An isolated nucleic acid molecule that encodes a cytochrome P450 polypeptide wherein said nucleic acid molecule comprises or consists of a nucleotide sequence selected from the group consisting of: i) a nucleotide sequence as represented by the sequence in Figure 1a or 3a; ii) a nucleotide sequence wherein said sequence is degenerate as a result of the genetic code to the nucleotide sequence defined in (i); iii) a nucleic acid molecule the complementary strand of which hybridizes to nucleotide sequences with at least 90% identity under very stringent hybridization conditions to the sequence in Figure 1a or 3a wherein said nucleic acid molecule encodes a cytochrome P450 polypeptide; iv) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence as represented in Figure 4a; v) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence wherein said amino acid sequence is modified by addition deletion or substitution of at least one amino acid residue as represented in iv) above and has at least 85 % sequence identity to the full length sequence represented in figure 4a which has retained cytochrome P450 activity. i) a nucleotide sequence as represented by the sequence in Figure 1a or 3a; ii) a nucleotide sequence wherein said sequence is degenerate as a result of the genetic code to the nucleotide sequence defined in (i); iii) a nucleic acid molecule the complementary strand of which hybridizes to nucleotide sequences with at least 90% identity under very stringent hybridization conditions to the sequence in Figure 1a or 3a wherein said nucleic acid molecule encodes a cytochrome P450 polypeptide; iv) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence as represented in Figure 4a; v) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence wherein said amino acid sequence is modified by addition deletion or substitution of at least one amino acid residue as represented in iv) above and has at least 85 % sequence identity to the full length sequence represented in figure 4a which has retained cytochrome P450 activity.
A method in a first network node configured as control plane function, CPF, the first network node is coupled to a second network node configured as user plane function, UPF, via an Sx interface, the method comprising: - transmitting (S501) a message associated with a Packet Detection Rule, PDR, to the second network node via the Sx interface, characterized in that the PDR is applicable to more than one Sx session, wherein the PDR is a node PDR, and the message is an Sx Node PDR Management Request message; wherein the node PDR includes an indication to identify a session group to which the node PDR is applicable. - transmitting (S501) a message associated with a Packet Detection Rule, PDR, to the second network node via the Sx interface, wherein the PDR is a node PDR, and the message is an Sx Node PDR Management Request message; wherein the node PDR includes an indication to identify a session group to which the node PDR is applicable.