mhurhangee/patent-ind-claim-en huggingface dataset:
Hand-held implement having an internal combustion engine for driving a tool, wherein the internal combustion engine has an ignition device, a device for supplying fuel, and a control device , wherein the control device when reaching an intervention rotating speed (n E1 , n E2 ) intervenes so as to delimit the rotating speed (n) of the internal combustion engine , the power tool possesses means for setting the intervention rotating speed (n E2 ) by the operator, and the means for setting the intervention rotating speed (n E2 ) are activatable during the operation of the internal combustion engine , characterized in that , when activating the means for setting the intervention rotating speed (n E2 ), the momentary rotating speed is established as the intervention rotating speed (n E2 ). the control device when reaching an intervention rotating speed (n E1 , n E2 ) intervenes so as to delimit the rotating speed (n) of the internal combustion engine , the power tool possesses means for setting the intervention rotating speed (n E2 ) by the operator, and the means for setting the intervention rotating speed (n E2 ) are activatable during the operation of the internal combustion engine , characterized in that , when activating the means for setting the intervention rotating speed (n E2 ), the momentary rotating speed is established as the intervention rotating speed (n E2 ).
A rubber composition, comprising i) an ethylene-α-olefin-non-conjugated-diene copolymer having - a Mooney viscosity ML (1+8) at 150 °C ≥ 85 MU and - an ethylene content ≤ 63 wt.% - the diene content is 4 to 8 % by weight of the ethylene-α-olefin-non-conjugated-diene copolymer i), - the non-conjugated diene is a combination of 5-ethylidene-2-norbornene (ENB) and 5-vinylnorbornene (VNB), - the ethylene-α-olefin-non-conjugated-diene copolymer i) has an amount of VNB between 0.05 and 1 wt.%, and has a Mw of at least 400,000 g/mol and, ii) an extender oil of 10 to 40 phr based on the copolymer i) with the sum of the EPDM copolymer i) and the oil ii) amounting to at least 95 wt.% of the composition. i) an ethylene-α-olefin-non-conjugated-diene copolymer having - a Mooney viscosity ML (1+8) at 150 °C ≥ 85 MU and - an ethylene content ≤ 63 wt.% - the diene content is 4 to 8 % by weight of the ethylene-α-olefin-non-conjugated-diene copolymer i), - the non-conjugated diene is a combination of 5-ethylidene-2-norbornene (ENB) and 5-vinylnorbornene (VNB), - the ethylene-α-olefin-non-conjugated-diene copolymer i) has an amount of VNB between 0.05 and 1 wt.%, and has a Mw of at least 400,000 g/mol and, - a Mooney viscosity ML (1+8) at 150 °C ≥ 85 MU and - an ethylene content ≤ 63 wt.% - the diene content is 4 to 8 % by weight of the ethylene-α-olefin-non-conjugated-diene copolymer i), - the non-conjugated diene is a combination of 5-ethylidene-2-norbornene (ENB) and 5-vinylnorbornene (VNB), - the ethylene-α-olefin-non-conjugated-diene copolymer i) has an amount of VNB between 0.05 and 1 wt.%, and has a Mw of at least 400,000 g/mol and, ii) an extender oil of 10 to 40 phr based on the copolymer i)
A portion for use in textile treatment, comprising at least two chambers having walls made of water-soluble material, characterized in that a) at least one of said chambers contains a liquid composition containing, in each case based on the total weight of the liquid composition, a total amount of - 25 to 60 wt.% of at least one anionic surfactant and - 2 to 35 wt.% of at least one non-ionic surfactant, and b) at least one other of said chambers contains a solid composition containing, in each case based on the total weight of the solid composition, a total amount of - 25 to 55 wt.% of at least one peroxide compound, - 2 to 25 wt.% of at least one organic bleach activator, - 0 to 5 wt.% surfactant. a) at least one of said chambers contains a liquid composition containing, in each case based on the total weight of the liquid composition, a total amount of - 25 to 60 wt.% of at least one anionic surfactant and - 2 to 35 wt.% of at least one non-ionic surfactant, and - 25 to 60 wt.% of at least one anionic surfactant and - 2 to 35 wt.% of at least one non-ionic surfactant, b) at least one other of said chambers contains a solid composition containing, in each case based on the total weight of the solid composition, a total amount of - 25 to 55 wt.% of at least one peroxide compound, - 2 to 25 wt.% of at least one organic bleach activator, - 0 to 5 wt.% surfactant. - 25 to 55 wt.% of at least one peroxide compound, - 2 to 25 wt.% of at least one organic bleach activator, - 0 to 5 wt.% surfactant.
Method for enhanced load balancing in a mobile communication network , wherein a user equipment is connected or requests to be connected to the mobile communication network using an access point name identifier and a packet data network, wherein a mobility management entity and a home subscriber server are involved in providing communication services of the mobile communication network to the user equipment and/or connecting the user equipment to the mobile communication network , wherein a packet data network gateway is to be selected for providing the communications services of the mobile communication network , the method comprising: indicating, by the home subscriber server , an allocation type information and an allocation mode information to the mobility management entity , wherein the allocation type information transmitted by the home subscriber server indicates that the packet data network gateway is to be statically allocated, and wherein the allocation mode information indicates that the allocation mode of the packet data network gateway to be used corresponds to indicating a plurality of identifiers of packet data network gateways in order for the respective mobility management entity to be able to provide load balancing among the plurality of packet data network gateways specified. indicating, by the home subscriber server , an allocation type information and an allocation mode information to the mobility management entity , wherein the allocation type information transmitted by the home subscriber server indicates that the packet data network gateway is to be statically allocated, and wherein the allocation mode information indicates that the allocation mode of the packet data network gateway to be used corresponds to indicating a plurality of identifiers of packet data network gateways in order for the respective mobility management entity to be able to provide load balancing among the plurality of packet data network gateways specified.
A method for selective aluminide diffusion coating removal, the method comprising: diffusing aluminum into a substrate surface of a component to form a diffusion coating , the diffusion coating comprising an aluminum-infused additive layer and an interdiffusion zone ; solution heat treating the diffusion coating at a temperature and for a time sufficient to dissolve at least a portion of the interdiffusion zone into the substrate ; and thereafter selectively removing the aluminum-infused additive layer ; wherein the solution heat treatment includes heating the diffusion coating to a temperature of 1093°C to 1260°C (2000°F to 2300°F) for a time between 1 to 4 hours. diffusing aluminum into a substrate surface of a component to form a diffusion coating , the diffusion coating comprising an aluminum-infused additive layer and an interdiffusion zone ; solution heat treating the diffusion coating at a temperature and for a time sufficient to dissolve at least a portion of the interdiffusion zone into the substrate ; and thereafter selectively removing the aluminum-infused additive layer ; wherein the solution heat treatment includes heating the diffusion coating to a temperature of 1093°C to 1260°C (2000°F to 2300°F) for a time between 1 to 4 hours.
Method for continuously preparing 3-methylthiopropionaldehyde by reacting methyl mercaptan with acrolein, characterized in that deviations in the stoichiometry of methyl mercaptan to acrolein in the reaction to give 3-methylthiopropionaldehyde are compensated for by supplying or by forming 1,3-bis(methylthio)-1-propanol, where if methyl mercaptan is present in excess with respect to acrolein, excess methyl mercaptan is converted to 1,3-bis(methylthio)-1-propanol with 3-methylthiopropionaldehyde, wherein the 1,3-bis(methylthio)-1-propanol formed is intermediately stored, or if acrolein is present in excess with respect to methyl mercaptan, 1,3-bis(methylthio)-1-propanol is supplied to the reaction of methyl mercaptan with acrolein, wherein the molar amount of intermediately stored 1,3-bis(methylthio)-1-propanol to be supplied is at least as large as the amount of excess acrolein. if methyl mercaptan is present in excess with respect to acrolein, excess methyl mercaptan is converted to 1,3-bis(methylthio)-1-propanol with 3-methylthiopropionaldehyde, wherein the 1,3-bis(methylthio)-1-propanol formed is intermediately stored, or if acrolein is present in excess with respect to methyl mercaptan, 1,3-bis(methylthio)-1-propanol is supplied to the reaction of methyl mercaptan with acrolein, wherein the molar amount of intermediately stored 1,3-bis(methylthio)-1-propanol to be supplied is at least as large as the amount of excess acrolein.
A power supply device which includes a controller and a plurality of battery modules each having a secondary battery and being configured to receive a gate driving signal from the controller and in which the secondary batteries of the battery modules are connected in series with one another in accordance with the gate driving signal from the controller , wherein each of the battery modules further comprises bypassing means for isolating the secondary battery of the battery module within the series, wherein the controller is configured to issue the gate driving signal towards the battery modules to periodically command the bypassing means of the battery module to alternatively connect or isolate the secondary battery of the battery module to or from the series of the secondary batteries in a PWM scheme so that a target output voltage value (Vout) is met by the series connection of the secondary batteries, wherein each of the battery modules has a disconnecting part configured to command the bypassing means to forcibly isolate the secondary battery of the battery module from the series connection regardless of the gate driving signal received, wherein the controller is configured to limit, in accordance with the target output voltage value (Vout), a number (Npass) of the secondary batteries to be forcibly isolated at the same time by the disconnecting part , characterized in that the controller is configured to limit the number (Npass) of the secondary batteries to be forcibly isolated at the same time to a maximum number according to the following formula: Npass < Nmod − Vout Vmod . wherein Npass is the number of the secondary batteries to be forcibly isolated at the same time, Nmod is the total number of the battery modules included in the power supply device , Vout is the target output voltage value and Vmod is an average output voltage value of the battery modules .
Luminaire and lighting trunking system , comprising: - a housing , - at least one lighting module , - a control unit controlling the operation of the lighting module , - a RFID antenna integrated in the luminaire and lighting trunking system , characterized by - an RFID controller , designed to process signals reflected by objects in the detection area of the RFID antenna and detected by the RFID antenna as object presence or motion information, the processing not being the extraction of ID information of an RFID tag, wherein the control unit is adapted to use the object presence or motion information for the control of the operation of the lighting module such that at least one lighting characteristic, such as e.g. the intensity of the light produced by the lighting module is a function of the object presence or motion information. - a housing , - at least one lighting module , - a control unit controlling the operation of the lighting module , - a RFID antenna integrated in the luminaire and lighting trunking system , characterized by - an RFID controller , designed to process signals reflected by objects in the detection area of the RFID antenna and detected by the RFID antenna as object presence or motion information, the processing not being the extraction of ID information of an RFID tag, wherein the control unit is adapted to use the object presence or motion information for the control of the operation of the lighting module such that at least one lighting characteristic, such as e.g. the intensity of the light produced by the lighting module is a function of the object presence or motion information.
A catheter comprising: a hypotube defining an inner circumferential surface, an outer circumferential surface, and a proximal end , wherein the hypotube comprises a metal or alloy; an inner liner attached to the inner circumferential surface of the hypotube and extending beyond the proximal end of the hypotube , wherein the inner liner comprises a fluoropolymer; a hub ; and a single bonding layer attached to the outer circumferential surface of the hypotube and bonded to the hub , wherein the single bonding layer comprises a polyamide or a polyether-co-polyamide, and wherein the single bonding layer is the only layer between the outer circumferential surface of the hypotube and the hub , wherein the single bonding layer extends beyond the proximal end of the hypotube the same distance as the inner liner extends beyond the proximal end of the hypotube , and wherein the hub contacts a proximal end of the inner liner . a hypotube defining an inner circumferential surface, an outer circumferential surface, and a proximal end , wherein the hypotube comprises a metal or alloy; an inner liner attached to the inner circumferential surface of the hypotube and extending beyond the proximal end of the hypotube , wherein the inner liner comprises a fluoropolymer; a hub ; and a single bonding layer attached to the outer circumferential surface of the hypotube and bonded to the hub , wherein the single bonding layer comprises a polyamide or a polyether-co-polyamide, and wherein the single bonding layer is the only layer between the outer circumferential surface of the hypotube and the hub , wherein the single bonding layer extends beyond the proximal end of the hypotube the same distance as the inner liner extends beyond the proximal end of the hypotube , and wherein the hub contacts a proximal end of the inner liner .
Coating system for protecting surfaces from graffiti, comprising a first lacquer component for forming a protective layer on the surface to be protected from graffiti and a second lacquer component for forming a functional layer on the protective layer, the first lacquer component being based on epoxy binders and the second lacquer component being based on a self-crosslinking siloxane hybrid binder base, characterized in that the first lacquer component comprises as binder silicone-epoxy hybrid resins and the second lacquer component comprises as binder a polydimethylsiloxane hybrid binder base with functional crosslinking groups and wherein the functional layer is intended to be applied to the protective layer after a drying time of the protective layer of 6 to 48 hours in order to achieve a reactive bonding of the functional layer to the protective layer.
A chassis for a computer device, comprising: a pair of side walls defining a front end and a rear end of the chassis ; an electronic component mounted in the chassis between the side walls ; a first fan (334 or 336) located at the rear end ; the first fan (334 or 336) generating air flow from the front end of the chassis to the rear end of the chassis ; a duct on one of the side walls , the duct including a front opening and a rear opening ; a second fan coupled to the rear opening of the duct ; characterized by further comprising: a nozzle frame at the front end of the chassis and coupled to the front opening of the duct , wherein the second fan creates high pressure air flow that is conducted by the duct to the nozzle frame and the nozzle frame includes a top nozzle bar and a bottom nozzle bar , each of the nozzle bars including one or more air jet openings that is configured to emit at least one air jet towards the rear end . a pair of side walls defining a front end and a rear end of the chassis ; an electronic component mounted in the chassis between the side walls ; a first fan (334 or 336) located at the rear end ; the first fan (334 or 336) generating air flow from the front end of the chassis to the rear end of the chassis ; a duct on one of the side walls , the duct including a front opening and a rear opening ; a second fan coupled to the rear opening of the duct ; characterized by further comprising: a nozzle frame at the front end of the chassis and coupled to the front opening of the duct , wherein the second fan creates high pressure air flow that is conducted by the duct to the nozzle frame and the nozzle frame includes a top nozzle bar and a bottom nozzle bar , each of the nozzle bars including one or more air jet openings that is configured to emit at least one air jet towards the rear end .
Impeller seat for a pump configured for pumping liquid comprising solid matter, said impeller seat having an axial inlet defined by an inlet wall and an upper surface located downstream the axial inlet , wherein the impeller seat has an inlet radius (R) measured from an axially extending centre axis (A) to a circular intersection between the inlet wall and the upper surface of the impeller seat , said impeller seat comprising a guide pin connected to and extending radially inwards from said inlet wall , the guide pin having a tip radius (r) measured from the axially extending centre axis (A) to the radially innermost part of the guide pin , wherein an imaginary 40%-circle is offset radially inwards from said circular intersection forty percent of the difference between said inlet radius (R) and said tip radius (r), characterized in that the guide pin comprises a leading edge configured for scraping off pollutants from an impeller of the pump , wherein the guide pin , at least between the inlet wall and the 40%-circle , comprises a pre-leading edge located upstream the leading edge of the guide pin , seen in the direction of rotation of the pump and seen in the axial direction, such that the guide pin displays a stepwise configuration.
An arrangement comprising: a first dental bracket for a central, lateral, or cuspid tooth and having a first archwire slot for receiving a square archwire , the first archwire slot having a first labial-lingual dimension ranging between 102% and 110% of a corresponding labial-lingual dimension of a square-shaped archwire , and having a first occlusal-gingival dimension; a second dental bracket for a molar tooth and having a second archwire slot for receiving said square archwire , the second archwire slot having a second labial-lingual dimension ranging between 120% and 140% of the corresponding labial-lingual dimension of the square-shaped archwire , and having a second occlusal-gingival dimension, the second archwire slot having a different size than that of the first archwire slot ; a third dental bracket for a bicuspid tooth between the first dental bracket and the second dental bracket , the third dental bracket having a third archwire slot, the third archwire slot having a third labial-lingual dimension ranging between 110% and 125% of the corresponding labial-lingual dimension of the square-shaped archwire , and having a third occlusal-gingival dimension, wherein the third archwire slot has a different size than that of the first archwire slot and a different size than that of the second archwire slot ; and said square-shaped archwire for extending through the first, second and third archwire slots. a first dental bracket for a central, lateral, or cuspid tooth and having a first archwire slot for receiving a square archwire , the first archwire slot having a first labial-lingual dimension ranging between 102% and 110% of a corresponding labial-lingual dimension of a square-shaped archwire , and having a first occlusal-gingival dimension; a second dental bracket for a molar tooth and having a second archwire slot for receiving said square archwire , the second archwire slot having a second labial-lingual dimension ranging between 120% and 140% of the corresponding labial-lingual dimension of the square-shaped archwire , and having a second occlusal-gingival dimension, the second archwire slot having a different size than that of the first archwire slot ; a third dental bracket for a bicuspid tooth between the first dental bracket and the second dental bracket , the third dental bracket having a third archwire slot, the third archwire slot having a third labial-lingual dimension ranging between 110% and 125% of the corresponding labial-lingual dimension of the square-shaped archwire , and having a third occlusal-gingival dimension, wherein the third archwire slot has a different size than that of the first archwire slot and a different size than that of the second archwire slot ; and said square-shaped archwire for extending through the first, second and third archwire slots.
A gas turbine engine comprising: a fan rotor having fan blades (98; 162) received within an outer nacelle (15; 94; 108; 125; 132; 142; 164), and said outer nacelle (15... 164) having an inner surface (104; 166), and at least a portion of said nacelle (15... 164) inner surface (104; 166) extending radially inwardly to be radially inward of an outer diameter of said fan blades (98; 162), and said inner surface (104; 166) of said nacelle (15... 164) being formed with a trench (110; 126; 133; 144; 168), said trench (110...168) extending into said inner surface (104; 166) to a radially outer extent that is spaced radially outward of the outer diameter of said fan blades (98; 162), wherein a distance L is defined from a plane X defined by leading edges of said fan blades (98; 162) to an axial location of a forwardmost part of said nacelle (15... 164), and an outer diameter D of said fan blades (98; 162) being defined, characterised in that : said forward end of said nacelle (15... 164) extends outwardly for varying extents across a circumference of said nacelle (15... 164), and a ratio of said distance L to the outer diameter D for all locations of said nacelle (15... 164) is between about 0.2 and about 0.45, and in that said trench (110...168) is formed at a location that will be within ± 10° of bottom dead center when said gas turbine engine is mounted on an aircraft.
A door drive for driving a door, wherein the door drive includes an adjusting device , wherein the adjusting device includes at least two application points for tools, wherein the adjusting device includes at least one gear , wherein the adjusting device includes at least one application element , wherein the adjusting device includes an adjusting element , wherein the adjusting element serves for adjusting an operating parameter of the door drive , wherein the one application element includes one of the application points , wherein the one gear or at least one of the plurality of gears cooperates with the adjusting element and with an application element associated to the respective gear in such a manner that the gear converts a movement of the application element associated to the gear into a movement of the adjusting element , wherein the movement of the application element associated to the respective gear and the movement of the adjusting element are rotational movements, characterized in that the adjusting element includes at least one of the application points and is a regulating valve , wherein the axes of rotation of the one application element or of at least one of the application elements and of the adjusting element extend parallel to each other.