mhurhangee/patent-ind-claim-en huggingface dataset:
A network communication device for communication over a communication network, comprising: a processor which is configured to detect a current value of a communication parameter of the communication over the communication network and to determine a deviation of the current value of the communication parameter from an average value of the communication parameter; and a network interface which is configured to transmit, in case the current value of the communication parameter deviates from the average value of the communication parameter, the current value of the communication parameter over the communication network to a network entity for assessing the communication parameter and detecting an unexpected communication behavior of the network communication device, wherein the processor is configured to instruct the network interface only in case the deviation reaches a predetermined threshold value to transmit the current value of the communication parameter, wherein the communication parameter is at least one of the following communication parameters: data volume received by a customer device, data volume sent by the customer device, ratio of a data volume received by a customer device and a data volume sent by a customer device, data throughput, transmission data rate, receiving data rate, ratio of transmission data rate and receiving data rate, number of transmission packets, number of receiving packets, size of a transmission packet, size of a receiving packet, start time and end time of an information flow. a processor which is configured to detect a current value of a communication parameter of the communication over the communication network and to determine a deviation of the current value of the communication parameter from an average value of the communication parameter; and a network interface which is configured to transmit, in case the current value of the communication parameter deviates from the average value of the communication parameter, the current value of the communication parameter over the communication network to a network entity for assessing the communication parameter and detecting an unexpected communication behavior of the network communication device, wherein the processor is configured to instruct the network interface only in case the deviation reaches a predetermined threshold value to transmit the current value of the communication parameter, wherein the communication parameter is at least one of the following communication parameters: data volume received by a customer device, data volume sent by the customer device, ratio of a data volume received by a customer device and a data volume sent by a customer device, data throughput, transmission data rate, receiving data rate, ratio of transmission data rate and receiving data rate, number of transmission packets, number of receiving packets, size of a transmission packet, size of a receiving packet, start time and end time of an information flow.
A radio-frequency identification,RFID, tag for semi-permanent insertion into a gap between first and second tracks in a storage grid , the RFID tag comprising: an RFID antenna; a storage medium configured to store identification data, the storage medium being connected to the RFID antenna; and an elongate case configured to house the RFID antenna and the storage medium, the case comprising: a first case member comprising an internal surface configured to support one or both of the RFID antenna and the storage medium; and one or more feet configured to limit insertion of the case into the gap in the storage grid ; and a second case member comprising one or more protrusions configured to provide resistance to movement of the case relative to the gap in the storage grid . an RFID antenna; a storage medium configured to store identification data, the storage medium being connected to the RFID antenna; and an elongate case configured to house the RFID antenna and the storage medium, the case comprising: a first case member comprising an internal surface configured to support one or both of the RFID antenna and the storage medium; and one or more feet configured to limit insertion of the case into the gap in the storage grid ; and a second case member comprising one or more protrusions configured to provide resistance to movement of the case relative to the gap in the storage grid . a first case member comprising an internal surface configured to support one or both of the RFID antenna and the storage medium; and one or more feet configured to limit insertion of the case into the gap in the storage grid ; and a second case member comprising one or more protrusions configured to provide resistance to movement of the case relative to the gap in the storage grid .
An electronics system comprising: a board that includes: a structural material , a thermal conduit on the structural material , the thermal conduit having a thermal conductivity that is higher than a thermal conductivity of the structural material and having a first region , a second region , and a connecting portion connecting the first region to the second region ; a thermal interface on the structural material the thermal interface having a thermal heat transfer capacity that is higher than the thermal heat transfer capacity of the structural material and being attached to the first region of the thermal conduit; and an electronics device mounted to the board at the second region of the thermal conduit, the thermal conduit forming a thermal path between the surface of the thermal interface and the electronics device , characterized in that the thermal conduit includes a metal conductor made of at least two metal layers , the at least two metal layers being separated by a layer of the structural material and partially located below the electronics device and the thermal conduit includes a plurality of metal vias connecting the layers to one another and at least one of the vias below the electronics device. a structural material , a thermal conduit on the structural material , the thermal conduit having a thermal conductivity that is higher than a thermal conductivity of the structural material and having a first region , a second region , and a connecting portion connecting the first region to the second region ; a thermal interface on the structural material the thermal interface having a thermal heat transfer capacity that is higher than the thermal heat transfer capacity of the structural material and being attached to the first region of the thermal conduit; and an electronics device mounted to the board at the second region of the thermal conduit, the thermal conduit forming a thermal path between the surface of the thermal interface and the electronics device , characterized in that the thermal conduit includes a metal conductor made of at least two metal layers , the at least two metal layers being separated by a layer of the structural material and partially located below the electronics device and the thermal conduit includes a plurality of metal vias connecting the layers to one another and at least one of the vias below the electronics device.
A method for controlling a generator connected to a load comprising: adjusting an output of the generator, wherein, in response to adjusting the output, a first measured value (M1) related to a forward power calculated with respect to a reference impedance ( Z c ) tends to a first setpoint (S1) for the first measured value (M1); and adjusting the first setpoint (S1) in order to adjust a second measured value (M2) of the generator output towards a second setpoint (S2) for the second measured value (M2), wherein the second measured value (M2) of the generator output is one or more of voltage, current, delivered power, or forward power calculated with respect to 50 Ω or 75 Ω. adjusting an output of the generator, wherein, in response to adjusting the output, a first measured value (M1) related to a forward power calculated with respect to a reference impedance ( Z c ) tends to a first setpoint (S1) for the first measured value (M1); and adjusting the first setpoint (S1) in order to adjust a second measured value (M2) of the generator output towards a second setpoint (S2) for the second measured value (M2), wherein the second measured value (M2) of the generator output is one or more of voltage, current, delivered power, or forward power calculated with respect to 50 Ω or 75 Ω.
An antifouling coating composition comprising a hydrolyzable resin (A), a first non-hydrolyzable resin (B), a second non-hydrolyzable resin (C), and an antifouling agent (D), wherein the hydrolyzable resin (A) is a resin having at least one hydrolyzable group selected from the group consisting of a group represented by formula , a group represented by formula , and a group represented by formula : wherein R 1 , R 2 , and R 3 each independently represent a C1 to C6 hydrocarbon group, wherein M represents a divalent metal atom, and R 4 represents an organic acid residue or an alcohol residue, wherein M represents a divalent metal atom, the first non-hydrolyzable resin (B) and the second non-hydrolyzable resin (C) are each a resin that does not have a group represented by formula , a group represented by formula , and a group represented by formula , a glass transition temperature Tg B in °C and a solubility parameter SP B of the first non-hydrolyzable resin (B), and a glass transition temperature Tg C in °C and a solubility parameter SP C of the second non-hydrolyzable resin (C) satisfy following expressions to : Tg B − Tg C ≥ 60 ° C SP B ≥ 9.5 SP C ≥ 9.5 SP B − SP C ≤ 1.0 and 40 ° C ≤ Tg B ≤ 80 ° C the hydrolyzable resin (A) is a resin having at least one hydrolyzable group selected from the group consisting of a group represented by formula , a group represented by formula , and a group represented by formula : wherein R 1 , R 2 , and R 3 each independently represent a C1 to C6 hydrocarbon group, wherein M represents a divalent metal atom, and R 4 represents an organic acid residue or an alcohol residue, wherein M represents a divalent metal atom, the first non-hydrolyzable resin (B) and the second non-hydrolyzable resin (C) are each a resin that does not have a group represented by formula , a group represented by formula , and a group represented by formula , a glass transition temperature Tg B in °C and a solubility parameter SP B of the first non-hydrolyzable resin (B), and a glass transition temperature Tg C in °C and a solubility parameter SP C of the second non-hydrolyzable resin (C) satisfy following expressions to : Tg B − Tg C ≥ 60 ° C SP B ≥ 9.5 SP C ≥ 9.5 SP B − SP C ≤ 1.0 and 40 ° C ≤ Tg B ≤ 80 ° C
An image formation device , comprising: a recording head which has a plurality of nozzles for discharging a discharge liquid onto a conveyed recording medium (P), and an inlet through which the discharge liquid is supplied to an inside of the recording head ; a flow channel member which is connected to the inlet and forms a flow channel for supplying the discharge liquid to the recording head ; and a heating section (H) which is configured to heat the flow channel member , wherein the flow channel member includes: a first flow channel section one end of which is inserted into the inlet ; and a second flow channel section that is a cylindrical member inside of which the first flow channel section passes through and that externally covers a connection part between the one end of the first flow channel section and the inlet , and the second flow channel section is connected with each of the first flow channel section and the inlet via an elastic member , thereby connecting the one end of the first flow channel section and the inlet to each other. a recording head which has a plurality of nozzles for discharging a discharge liquid onto a conveyed recording medium (P), and an inlet through which the discharge liquid is supplied to an inside of the recording head ; a flow channel member which is connected to the inlet and forms a flow channel for supplying the discharge liquid to the recording head ; and a heating section (H) which is configured to heat the flow channel member , wherein the flow channel member includes: a first flow channel section one end of which is inserted into the inlet ; and a second flow channel section that is a cylindrical member inside of which the first flow channel section passes through and that externally covers a connection part between the one end of the first flow channel section and the inlet , and a first flow channel section one end of which is inserted into the inlet ; and a second flow channel section that is a cylindrical member inside of which the first flow channel section passes through and that externally covers a connection part between the one end of the first flow channel section and the inlet , and the second flow channel section is connected with each of the first flow channel section and the inlet via an elastic member , thereby connecting the one end of the first flow channel section and the inlet to each other.
A magnesium oxide powder comprising a magnesium oxide particle, wherein the number of an open pore communicating with a surface of the magnesium oxide particle measured by the following measurement method is 3.0 × 10 -4 μm 2 or less: (Measurement method) The magnesium oxide powder is embedded in an epoxy resin and cured to prepare an embedded sample, the embedded sample is cut and an exposed cross section is subjected to polishing, the cross section subjected to the polishing is observed by using a scanning electron microscope at a magnification of 200 times, and at this time, a pore through which the resin has penetrated into the magnesium oxide particle is regarded as the open pore to count the number of the open pore per μm 2 of the cross section of the magnesium oxide particle.
A mineral oil free lubricant formulation, wherein the lubricant comprises: • polyol complex ester selected from the group consisting of 2,2-diethyl-1,3-propane-diazelaic-2-ethyl-1-hexanoate (DEAZEH), 2,2-dimethyl-1,3-propane-diadipic-2-ethyl-1-hexanoate (DMADEH), and a mixture thereof; and • an antioxidant; and • an additive. wherein the polyol complex ester(s) is at least 94 wt%; the antioxidant is in the range of 1-2 wt%; and the additive is in the range of 1.5 to 4 wt%. wherein the antioxidant is selected from the group consisting of 2,6-di-tertiary-butyl-4-methyl-phenol (BHT), alkylated diphenylamine, 3,7-di-t-octylphenothiazine, alkylated PANA, and di-t-butyl-p-cresol (DBPC), and wherein the additive is selected from the group consisting of Zinc dialkyl dithio phosphate (ZDDP), 5,5-dithiobis-(1,3,4-thiadiazole-2 -thione), di-methylhydrogen-phosphite, di-butyl-hydrogen-phosphite, di-n-octyl hydrogen phosphite, di-2-ethylhexyl hydrogen phosphite, di-oleyl-hydrogen-phosphite, di-lauryl-hydrogen-phosphite, tri-lauryl-tri-thiophosphite, tri-lauryl-phosphite and tri-C 12 -C 14 -phosphite. • polyol complex ester selected from the group consisting of 2,2-diethyl-1,3-propane-diazelaic-2-ethyl-1-hexanoate (DEAZEH), 2,2-dimethyl-1,3-propane-diadipic-2-ethyl-1-hexanoate (DMADEH), and a mixture thereof; and • an antioxidant; and • an additive. the polyol complex ester(s) is at least 94 wt%; the antioxidant is in the range of 1-2 wt%; and the additive is in the range of 1.5 to 4 wt%. wherein the antioxidant is selected from the group consisting of 2,6-di-tertiary-butyl-4-methyl-phenol (BHT), alkylated diphenylamine, 3,7-di-t-octylphenothiazine, alkylated PANA, and di-t-butyl-p-cresol (DBPC), and wherein the additive is selected from the group consisting of Zinc dialkyl dithio phosphate (ZDDP), 5,5-dithiobis-(1,3,4-thiadiazole-2 -thione), di-methylhydrogen-phosphite, di-butyl-hydrogen-phosphite, di-n-octyl hydrogen phosphite, di-2-ethylhexyl hydrogen phosphite, di-oleyl-hydrogen-phosphite, di-lauryl-hydrogen-phosphite, tri-lauryl-tri-thiophosphite, tri-lauryl-phosphite and tri-C 12 -C 14 -phosphite.
A compound of formula (I), or stereoisomer, enantiomer, tautomer or a pharmaceutically acceptable salt thereof for use in treating a pulmonary disease: wherein: the A, B, C, D and E ring are each independently fully saturated or partially saturated; R 1 is a carbohydrate residue; C2, C11, C12, and C19 are each independently substituted with hydrogen or -OH; R 2a and R 2b together form -CO 2 -; R 3a and R 3b together form =CH 2 , or are each independently selected from -CH 3 or -CH 2 -OH. the A, B, C, D and E ring are each independently fully saturated or partially saturated; R 1 is a carbohydrate residue; C2, C11, C12, and C19 are each independently substituted with hydrogen or -OH; R 2a and R 2b together form -CO 2 -; R 3a and R 3b together form =CH 2 , or are each independently selected from -CH 3 or -CH 2 -OH.
A cooling compressor comprising an oil pump assembly, which comprises a housing within which it is arranged an electric engine which includes a stator carrying a plurality of coils circumferentially spaced apart from each other and a rotor associated to a driving shaft and a pin internally and concentrically arranged with respect to said driving shaft ; the driving shaft cooperating with the pin , so as to define helical channels which delineate the lubricating oil path , when it is pumped due to the relative revolution between the driving shaft and the pin ; and a fastening rod able to anchor said pin in a fixed portion of the electric engine ; wherein said fastening rod is supported, in the median portion thereof, to the pin and, in the ends thereof , in respective cribs defined in the fixed portion of the electric engine ; said compressor being CHARACTERIZED by the fact that: the fastening rod extends through free spaces arranged in the fixed portion of the electric engine , longitudinally aligned with gaps defined between adjacent coils ; and ends of the fastening rod are housed in the cribs by the inner sides thereof . the fastening rod extends through free spaces arranged in the fixed portion of the electric engine , longitudinally aligned with gaps defined between adjacent coils ; and ends of the fastening rod are housed in the cribs by the inner sides thereof .
Robotic lawnmower comprising: - a frame ; - moving means carried by said frame and configured to determine the movement of said robotic lawnmower; - receiving means configured to receive at least one position signal, said receiving means comprising a first antenna configured to receive a first position signal, said first antenna being arranged in a first region of said frame ; wherein a control unit is operatively connected to said receiving means so as to determine the position of said robotic lawnmower starting from the position signal received from said receiving means, said control unit being further operatively connected to said moving means so as to drive said moving means according to the position of said robotic lawnmower; wherein said receiving means comprise a second antenna configured to receive a second position signal, said second antenna being arranged in a second region of said frame , said first region of said frame being distinct from said second region of said frame , characterised in that said control unit is configured to estimate the uncertainty in the position of said robotic lawnmower according to said first position signal and to said second position signal, wherein said control unit is configured to determine a measured value of the distance between said first antenna and said second antenna starting from said first position signal and from said second position signal and wherein said control unit is configured to compare said measured value with the actual distance (d) between said first antenna and said second antenna . - a frame ; - moving means carried by said frame and configured to determine the movement of said robotic lawnmower; - receiving means configured to receive at least one position signal, said receiving means comprising a first antenna configured to receive a first position signal, said first antenna being arranged in a first region of said frame ; wherein said receiving means comprise a second antenna configured to receive a second position signal, said second antenna being arranged in a second region of said frame , said first region of said frame being distinct from said second region of said frame , characterised in that said control unit is configured to estimate the uncertainty in the position of said robotic lawnmower according to said first position signal and to said second position signal, wherein said control unit is configured to determine a measured value of the distance between said first antenna and said second antenna starting from said first position signal and from said second position signal and wherein said control unit is configured to compare said measured value with the actual distance (d) between said first antenna and said second antenna .
A compound of formula (A) wherein R 1 is selected from C 1 -C 8 -alkyl, and C 2 -C 8 -alkenyl, and esters of the compound of formula (A), and ketones of the compound of formula (A), with the proviso that R 1 can also be hydrogen, if compound (A) is an ester of formula (A); and with the proviso that compound 1-(1,2,2,6-tetramethylcyclohexyl)ethanone is excluded. wherein R 1 is selected from C 1 -C 8 -alkyl, and C 2 -C 8 -alkenyl, and esters of the compound of formula (A), and ketones of the compound of formula (A), with the proviso that R 1 can also be hydrogen, if compound (A) is an ester of formula (A); and with the proviso that compound 1-(1,2,2,6-tetramethylcyclohexyl)ethanone is excluded.
A lanyard connector having an anchor connection aperture being elongate along a strain absorbing axis through proximal and distal ends of the lanyard connector, and wherein the anchor connection aperture has an anchor bolt accommodation portion and a primary curved frail web adjacent to the anchor bolt accommodation portion and across the strain absorbing axis , and characterized in that the frail web is orientated with an apex thereof towards the anchor bolt accommodation portion .
A support cushion , comprising: a body supporting layer having a first surface and a second surface opposite the first surface ; a pocketed coil layer adjacent the second surface of the body supporting layer comprising a first group of pocketed coils defining a perimeter of the pocketed coil layer and a second group of pocketed coils positioned within the perimeter; a base layer positioned adjacent the pocketed coil layer ; a fan operably connected through a conduit to an inlet hole of the base layer , the fan for providing air flow into the inlet hole of the base layer , wherein the air flow is directed from the inlet hole of the base layer into the pocketed coil layer , through the second group of pocketed coils , and into and through the body support layer, wherein the first group of pocketed coils includes a first fabric that is air impermeable, and wherein the second group of pocketed coils includes a second fabric that is air permeable. a body supporting layer having a first surface and a second surface opposite the first surface ; a pocketed coil layer adjacent the second surface of the body supporting layer comprising a first group of pocketed coils defining a perimeter of the pocketed coil layer and a second group of pocketed coils positioned within the perimeter; a base layer positioned adjacent the pocketed coil layer ; a fan operably connected through a conduit to an inlet hole of the base layer , the fan for providing air flow into the inlet hole of the base layer , wherein the air flow is directed from the inlet hole of the base layer into the pocketed coil layer , through the second group of pocketed coils , and into and through the body support layer, wherein the first group of pocketed coils includes a first fabric that is air impermeable, and wherein the second group of pocketed coils includes a second fabric that is air permeable.