mhurhangee/patent-ind-claim-en huggingface dataset:
A system for wireless monitoring of operating and production parameters of a machine for food production, particularly a clipping machine, having a sealed housing protecting at least against moisture, comprising: - at least one measuring and control device for controlling the production process executed by the machine and measuring the operating and/or production parameters of the machine , the at least one measuring and control device being arranged inside the sealed housing ; - operating parameter determining means for determining operating parameters of the machine , wherein the operating parameter determining means are arranged in the machine and are connected to the at least one measuring and control device ; - production parameter determining means for determining production parameters of the machine , wherein the production parameter determining means are arranged in the machine and are connected to the at least one measuring and control device ; - at least one wireless communication device which is arranged inside the sealed housing and is connected with the at least one measuring and control device ; - a user interface and display device which is provided outside the sealed housing , the user interface and display device being connected to the at least one measuring and control device ; and - at least one smart device having at least an optical reading unit , wherein the at least one wireless communication device is configured to generate login details for wireless communication and encrypt the login details into a binary code which can be read by the optical reading unit of the smart device via the user interface and display device . - at least one measuring and control device for controlling the production process executed by the machine and measuring the operating and/or production parameters of the machine , the at least one measuring and control device being arranged inside the sealed housing ; - operating parameter determining means for determining operating parameters of the machine , wherein the operating parameter determining means are arranged in the machine and are connected to the at least one measuring and control device ; - production parameter determining means for determining production parameters of the machine , wherein the production parameter determining means are arranged in the machine and are connected to the at least one measuring and control device ; - at least one wireless communication device which is arranged inside the sealed housing and is connected with the at least one measuring and control device ; - a user interface and display device which is provided outside the sealed housing , the user interface and display device being connected to the at least one measuring and control device ; and - at least one smart device having at least an optical reading unit , wherein the at least one wireless communication device is configured to generate login details for wireless communication and encrypt the login details into a binary code which can be read by the optical reading unit of the smart device via the user interface and display device .
Rubber hose comprising a distinctly colored inner wear indicator integrated into its liner , wherein the inner wear indicator is disposed at a distance b from an inner surface of the liner , wherein b is less than 40% of thickness v of the liner, and wherein the height h of the wear indicator , measured perpendicularly to a longitudinal axis of the hose, falls between 1% to 90% of liner thickness v; characterised in that the inner wear indicator has profile which is: o applied in a spiral and has a triangular cross-section, o applied in a spiral and has a multiple triangular cross-section, o a triangular cross-section laid in ring-like shape, perpendicular to the longitudinal axis, o a multiple triangular cross-section laid in a ring-like shape, placed perpendicular to the longitudinal axis, or o essentially conical elements placed in a spot-like pattern. o applied in a spiral and has a triangular cross-section, o applied in a spiral and has a multiple triangular cross-section, o a triangular cross-section laid in ring-like shape, perpendicular to the longitudinal axis, o a multiple triangular cross-section laid in a ring-like shape, placed perpendicular to the longitudinal axis, or o essentially conical elements placed in a spot-like pattern.
Method of controlling an alternator for recharging an on-board network comprising a battery , for a hybrid motor vehicle equipped with a heat engine driving the alternator , and driving a transmission by a progressive coupling member , this vehicle comprising an electric traction machine powered by a traction battery , which delivers a torque to the driving wheels without passing through the coupling device , and comprising a voltage converter recharging the on-board network battery from the traction battery , characterized in that in the case where a recharging of the on-board network battery board is necessary, and the traction battery is insufficiently charged , it allows the alternator to draw torque from the heat engine when the vehicle speed (V) is less than a speed threshold, and it prohibits this taking of torque if the speed (V) is greater than this threshold and if the coupling member is completely closed.
A method comprising: detecting , by a processor at a network apparatus, a network connection request for a network connection on a platform having a hardware accelerator to process network traffic, wherein the hardware accelerator implements computing tasks related to data packets of at least part of the network traffic; intercepting , by the processor, the network traffic related to the network connection request before a start of a hardware accelerator process by the hardware accelerator; extracting , by the processor, network connection data required by a network traffic analysis function from the network traffic, wherein the network connection data comprises protocol header data including one or more data packets required for a network traffic analysis function; allowing , by the processor, the hardware accelerator to start the hardware accelerator process to process the network traffic of the network connection after the network connection data has been extracted; and analysing , by the processor, the network traffic based on the network connection data, and based on the analysing, taking further action, by the processor, to protect one or more network devices of a computer system from a security threat, wherein taking the further action comprises blocking the network connection being processed by the hardware accelerator. detecting , by a processor at a network apparatus, a network connection request for a network connection on a platform having a hardware accelerator to process network traffic, wherein the hardware accelerator implements computing tasks related to data packets of at least part of the network traffic; intercepting , by the processor, the network traffic related to the network connection request before a start of a hardware accelerator process by the hardware accelerator; extracting , by the processor, network connection data required by a network traffic analysis function from the network traffic, wherein the network connection data comprises protocol header data including one or more data packets required for a network traffic analysis function; allowing , by the processor, the hardware accelerator to start the hardware accelerator process to process the network traffic of the network connection after the network connection data has been extracted; and analysing , by the processor, the network traffic based on the network connection data, and based on the analysing, taking further action, by the processor, to protect one or more network devices of a computer system from a security threat, wherein taking the further action comprises blocking the network connection being processed by the hardware accelerator.
A POGO effect correcting system for a system for supplying liquid propellant of a rocket engine, comprising: a liquid propellant supply line portion , a hydraulic accumulator , comprising a tank connected to the supply line portion through at least one withdrawal passage , the tank comprising at least a first and a second cavity , each closed by an upper wall , characterized in that the upper wall of the first cavity extends to a level higher than that of the upper wall of the second cavity , in that the first and second cavities are each provided with a separate gas supply , at least the gas supply to the second cavity being controllable, in that the second cavity comprises at its upper end at least one communication passage connecting it to the first cavity , and in that each cavity is connected to the supply line portion through at least one discharge passage opening out into said cavity at an intermediate level comprised between said at least one withdrawal passage and the upper wall of said cavity , the discharge passage of the second cavity opening out into the second cavity at a level lower than the level at which the discharge passage of the first cavity opens out into the first cavity . a liquid propellant supply line portion , a hydraulic accumulator , comprising a tank connected to the supply line portion through at least one withdrawal passage , the tank comprising at least a first and a second cavity , each closed by an upper wall , characterized in that the upper wall of the first cavity extends to a level higher than that of the upper wall of the second cavity , in that the first and second cavities are each provided with a separate gas supply , at least the gas supply to the second cavity being controllable, in that the second cavity comprises at its upper end at least one communication passage connecting it to the first cavity , and in that each cavity is connected to the supply line portion through at least one discharge passage opening out into said cavity at an intermediate level comprised between said at least one withdrawal passage and the upper wall of said cavity , the discharge passage of the second cavity opening out into the second cavity at a level lower than the level at which the discharge passage of the first cavity opens out into the first cavity .
A package on package device, hereinafter called PoP device, comprising: a first package comprising a first electronic package component ; a second package coupled to the first package by a plurality of interconnects; at least one gap controller located between the first electronic package component and the second package, wherein the at least one gap controller is configured to provide a minimum gap between the first package and the second package, the at least one gap controller comprising: a spacer; and an adhesive layer at least partially surrounding the spacer that couples the spacer to the first package, wherein the adhesive layer is free of contact with the second package; and a first encapsulation layer formed between the first electronic package component and the second package, the first encapsulation layer at least partially surrounding the adhesive layer and/or the spacer such that at least some of the first encapsulation layer is located about a center of the electronic package component to provide structural support to the PoP device. a first package comprising a first electronic package component ; a second package coupled to the first package by a plurality of interconnects; at least one gap controller located between the first electronic package component and the second package, wherein the at least one gap controller is configured to provide a minimum gap between the first package and the second package, the at least one gap controller comprising: a spacer; and an adhesive layer at least partially surrounding the spacer that couples the spacer to the first package, wherein the adhesive layer is free of contact with the second package; and a spacer; and an adhesive layer at least partially surrounding the spacer that couples the spacer to the first package, wherein the adhesive layer is free of contact with the second package; and a first encapsulation layer formed between the first electronic package component and the second package, the first encapsulation layer at least partially surrounding the adhesive layer and/or the spacer such that at least some of the first encapsulation layer is located about a center of the electronic package component to provide structural support to the PoP device.
Use of a low-temperature-curable material as a cross-section repair material, wherein the low-temperature-curable material comprises: 100 parts by mass of a radical polymerizable resin composition (A) ; 0.1 to 10 parts by mass of hydroxyl group-containing aromatic tertiary amine (C-1) represented by the following general formula (I), wherein R 1 is H, CH 3 or OCH 3 , R 2 is a hydroxyalkyl group and R 3 is an alkyl group or a hydroxyalkyl group; 0.1 part by mass to 10 parts by mass of the organic peroxide (D); and 1.0 to 500 parts by mass of an inorganic filler (E), wherein the radical polymerizable resin composition (A) comprises at least one radical polymerizable resin (A-1) selected from the group consisting of a vinyl ester resin, a urethane (meth)acrylate resin and a polyester (meth)acrylate resin; and a radical polymerizable unsaturated monomer (A-2) having at least two or more (meth)acryloyl groups per molecule, and a content of the radical polymerizable unsaturated monomer (A-2) having at least two (meth)acryloyl groups per molecule in the radical polymerizable resin composition (A) is 35 % to 95 % by mass. 100 parts by mass of a radical polymerizable resin composition (A) ; 0.1 to 10 parts by mass of hydroxyl group-containing aromatic tertiary amine (C-1) represented by the following general formula (I), wherein R 1 is H, CH 3 or OCH 3 , R 2 is a hydroxyalkyl group and R 3 is an alkyl group or a hydroxyalkyl group; 0.1 part by mass to 10 parts by mass of the organic peroxide (D); and 1.0 to 500 parts by mass of an inorganic filler (E), wherein the radical polymerizable resin composition (A) comprises at least one radical polymerizable resin (A-1) selected from the group consisting of a vinyl ester resin, a urethane (meth)acrylate resin and a polyester (meth)acrylate resin; and a radical polymerizable unsaturated monomer (A-2) having at least two or more (meth)acryloyl groups per molecule, and at least one radical polymerizable resin (A-1) selected from the group consisting of a vinyl ester resin, a urethane (meth)acrylate resin and a polyester (meth)acrylate resin; and a radical polymerizable unsaturated monomer (A-2) having at least two or more (meth)acryloyl groups per molecule, and a content of the radical polymerizable unsaturated monomer (A-2) having at least two (meth)acryloyl groups per molecule in the radical polymerizable resin composition (A) is 35 % to 95 % by mass.
A composition for controlling arthropods comprising: (i) Geraniol, in an amount of from 5% to 26% by weight; (ii) Benzyl alcohol, in an amount of from 10% to 48% by weight; (iii) Isopropyl myristate, in an amount of from 10% to 30% by weight; and (iv) Butyl lactate, in an amount of from 20% to 40% by weight; wherein each of the amounts is relative to the sum of the stated components in the composition. (i) Geraniol, in an amount of from 5% to 26% by weight; (ii) Benzyl alcohol, in an amount of from 10% to 48% by weight; (iii) Isopropyl myristate, in an amount of from 10% to 30% by weight; and (iv) Butyl lactate, in an amount of from 20% to 40% by weight;
A method used to gather together and package an article group (4-n, 18-n) of at least two articles , wherein a bottle clip is disposed on at least one article , which bottle clip is designed in the form of a perforated plate or as a multiply connected cap, and which serves for the purpose of connecting a plurality of containers to an article group (4-n, 18-n, 44-n) or to a bundle, as applicable, and for the purpose of carrying this article group (4-n, 18-n, 44-n) or these bundles, as applicable, or for the purpose of carrying individual articles or containers, as applicable, wherein the articles are moved in a continuous article flow of at least one row on at least one transport means in a transport direction (TR) to a grouping device for the dividing into article groups (4-n, 18-n, 44-n), wherein the grouping device comprises a retaining device with a circulating conveyor chain and divider fingers disposed thereon, or with circulating endless traction means and divider bars guided thereon, wherein the divider fingers or the divider bars serve as retaining means for the separation of a specified number of articles forming an article group (4-n, 18-n, 44-n), thereby forming a space between the article groups (4-n, 18-n, 44-n), wherein the application of the bottle clip on the at least one article is carried out within the area defined by the extension of the retaining device , while a speed of the at least two articles forming an article group (4-n, 18-n, 44-n) is reduced in the area of the retaining device by the retaining means , at least temporarily and in some areas, in relation to the speed of the transport means , and wherein an outer packaging is applied by means of an outer packaging module onto and/or to and/or around the articles of the article groups (4-n, 18-n, 44-n).
A sensor package (200; 310) comprising: a sensor (202; 316); at least one external wall (213; 313); an interposer (206; 300), arranged between the sensor (202; 316) and the at least one external wall (213; 313); wherein the interposer (206; 300) comprises conductive tracking (210; 302); wherein the sensor (202; 316) is wire bonded (208; 318) to the conductive tracking (210; 302); wherein the at least one external wall (213; 313) is made from a first material, the interposer (206; 300) is made from a second material, and the first and second materials are different; characterized in that the conductive tracking (210; 302) is wire bonded (208; 320) to the at least one external wall (213; 313) and in that the second material is plastic. a sensor (202; 316); at least one external wall (213; 313); an interposer (206; 300), arranged between the sensor (202; 316) and the at least one external wall (213; 313); wherein the interposer (206; 300) comprises conductive tracking (210; 302); wherein the sensor (202; 316) is wire bonded (208; 318) to the conductive tracking (210; 302); wherein the at least one external wall (213; 313) is made from a first material, the interposer (206; 300) is made from a second material, and the first and second materials are different; characterized in that the conductive tracking (210; 302) is wire bonded (208; 320) to the at least one external wall (213; 313) and in that the second material is plastic.
A power factor correction (PFC) circuit , comprising: - an inductor which is configured to provide a discharge current, - a capacitor which is connected to the inductor via a connection point of a switch and which can be charged with said discharge current, - a control unit which is configured to alternately switch the switch on and off based on a feedback control, - wherein the control unit has an input interface for receiving a feedback signal (ZXCS) which represents a discharge voltage of the inductor, - wherein the control unit , in a DCM mode, is further configured to calculate a switch on time T on of the switch which is after a first local minimum of the discharge voltage, and - wherein, after switching off the switch , the control unit is configured to: a) either switch on the switch at a next or closest local minimum of the discharge voltage after T on , in case T on is less than a directly or indirectly set reference time T ref , b) or close the switch at T on , in case T on is equal to or exceeds said directly or indirectly set reference time T ref . - an inductor which is configured to provide a discharge current, - a capacitor which is connected to the inductor via a connection point of a switch and which can be charged with said discharge current, - a control unit which is configured to alternately switch the switch on and off based on a feedback control, - wherein the control unit has an input interface for receiving a feedback signal (ZXCS) which represents a discharge voltage of the inductor, - wherein the control unit , in a DCM mode, is further configured to calculate a switch on time T on of the switch which is after a first local minimum of the discharge voltage, and - wherein, after switching off the switch , the control unit is configured to: a) either switch on the switch at a next or closest local minimum of the discharge voltage after T on , in case T on is less than a directly or indirectly set reference time T ref , b) or close the switch at T on , in case T on is equal to or exceeds said directly or indirectly set reference time T ref . a) either switch on the switch at a next or closest local minimum of the discharge voltage after T on , in case T on is less than a directly or indirectly set reference time T ref , b) or close the switch at T on , in case T on is equal to or exceeds said directly or indirectly set reference time T ref .
A method for producing an active-form mutant enzyme comprising: expressing, in a heterologous expression system, a gene that codes for an amino acid sequence in which at least one hydrophilic amino acid that is present in a hydrophobic domain of an α-helix structure region is substituted, wherein the amino acid to be substituted is substituted to an amino acid with higher hydrophobicity or lower hydrophilicity; and selecting a protein (hereinafter "an active-form mutant enzyme") that exhibits the same sort of activity as that obtained in the native form; or expressing, in a heterologous expression system, a gene that codes for an amino acid sequence in which at least one hydrophobic amino acid that is present in a hydrophilic domain of an α-helix structure region is substituted, wherein the amino acid to be substituted is substituted to an amino acid with higher hydrophilicity or lower hydrophobicity, and at least one hydrophilic amino acid that is present in a hydrophobic domain of an α-helix structure region is substituted, wherein the amino acid to be substituted is substituted to an amino acid with higher hydrophobicity or lower hydrophilicity; and selecting an active-form mutant enzyme; wherein the α-helix structure region is in a protein of which native form exhibits an enzyme activity but which exhibits no enzyme activity or a feeble enzyme activity when expressing a gene of the protein in a heterologous expression system (hereinafter "an inactive-form enzyme"). expressing, in a heterologous expression system, a gene that codes for an amino acid sequence in which at least one hydrophilic amino acid that is present in a hydrophobic domain of an α-helix structure region is substituted, wherein the amino acid to be substituted is substituted to an amino acid with higher hydrophobicity or lower hydrophilicity; and selecting a protein (hereinafter "an active-form mutant enzyme") that exhibits the same sort of activity as that obtained in the native form; or expressing, in a heterologous expression system, a gene that codes for an amino acid sequence in which at least one hydrophobic amino acid that is present in a hydrophilic domain of an α-helix structure region is substituted, wherein the amino acid to be substituted is substituted to an amino acid with higher hydrophilicity or lower hydrophobicity, and at least one hydrophilic amino acid that is present in a hydrophobic domain of an α-helix structure region is substituted, wherein the amino acid to be substituted is substituted to an amino acid with higher hydrophobicity or lower hydrophilicity; and selecting an active-form mutant enzyme; wherein the α-helix structure region is in a protein of which native form exhibits an enzyme activity but which exhibits no enzyme activity or a feeble enzyme activity when expressing a gene of the protein in a heterologous expression system (hereinafter "an inactive-form enzyme").