mhurhangee/patent-ind-claim-en huggingface dataset:
Vapour extraction device for a hob , which has an air inlet opening , via which air is sucked in downwards, and has at least one fan , wherein a liquid container for the collection of liquids which enter via the air inlet opening is retained beneath the air inlet opening in a detachable manner, the horizontal dimensions of the liquid container are smaller than the corresponding horizontal dimensions of the air inlet opening , the vapour extraction device has two fans , which are arranged in the vapour extraction device laterally offset in relation to the air inlet opening , and the liquid container is arranged between the two fans , characterised in that at least one part of the filter unit is retained in a detachable manner in the air inlet opening , the filter unit comprises at least one grease filter and at least one odour filter , the at least one grease filter is retained in a filter support , which is accommodated in the air inlet opening in a detachable manner, that the at least one odour filter is arranged adjacent to the at least one grease filter and is retained on a filter guide , the filter guide is a rail or a pair of rails which extend/extends horizontally beneath the air inlet opening and the filter guide has a greater width than the air inlet opening , the filter guide is mounted in a moveable manner or the at least one odour filter can be moved on a fixed filter guide , whereby one of the at least one odour filter can be brought into a position in each case, in which the odour filter lies beneath the air inlet opening and can be removed upwardly via the air inlet opening; the at least one odour filter is of a size which is smaller than the size of the air inlet opening, the liquid container is arranged beneath the filter unit and the liquid container has an inlet opening which is provided on the top side of the liquid container . at least one part of the filter unit is retained in a detachable manner in the air inlet opening , the filter unit comprises at least one grease filter and at least one odour filter , the at least one grease filter is retained in a filter support , which is accommodated in the air inlet opening in a detachable manner, that the at least one odour filter is arranged adjacent to the at least one grease filter and is retained on a filter guide , the filter guide is a rail or a pair of rails which extend/extends horizontally beneath the air inlet opening and the filter guide has a greater width than the air inlet opening , the filter guide is mounted in a moveable manner or the at least one odour filter can be moved on a fixed filter guide , whereby one of the at least one odour filter can be brought into a position in each case, in which the odour filter lies beneath the air inlet opening and can be removed upwardly via the air inlet opening; the at least one odour filter is of a size which is smaller than the size of the air inlet opening, the liquid container is arranged beneath the filter unit and the liquid container has an inlet opening which is provided on the top side of the liquid container .
A method for producing a masterbatch, the method comprising a step of mixing a rubber latex having a zeta potential of -100 to -20 mV with a filler dispersion having a zeta potential of 10 to 90 mV, and preparing a latex compound having a zeta potential of -20 to 0 mV (zeta potentials as measured according to the description).
Method for securing exchanges between first and second entities in a P2P architecture, each entity comprising a secure processing circuit such as a Wallet Node Device, WND, possessing a private key and at least one detector device capable of detecting the normal/abnormal state of an environmental parameter of the circuit, the or each device comprising a secret private key making it possible to sign normal/abnormal state information for the device in question, the method comprising the following steps at the level of the first entity : - detection at the level of the detector device, of the normal or abnormal state of the circuit environment parameter, - signature of message content to be sent to the second entity with said private key of said secure processing circuit, - signature of the normal/abnormal state information with said private key of said device, - generation of a message comprising the signed message content and the signed normal/abnormal status information, and - sending said message to the second entity. - detection at the level of the detector device, of the normal or abnormal state of the circuit environment parameter, - signature of message content to be sent to the second entity with said private key of said secure processing circuit, - signature of the normal/abnormal state information with said private key of said device, - generation of a message comprising the signed message content and the signed normal/abnormal status information, and - sending said message to the second entity.
Cooking oven comprising at least two entities made of sheet metal , each sheet metal entity comprising at least one surface carrying an enamel layer, specifically a vitreous enamel layer, said enamelled sheet metal entities overlapping each other and a screw connection for grounding and coupling said sheet metal entities , wherein a ground element is at least indirectly coupled with one of said enamelled sheet metal entities for grounding said stack of enamelled sheet metal entities , wherein at least one screw with a screw shaft (5.1) is provided through said enamelled sheet metal entities , wherein the screw is at least indirectly electrically coupled with the ground element and said screw shaft (5.1) comprises a thread for providing an electric coupling between the enamelled sheet metal entities .
A method for controlling the command of the lifting of a load suspended from a boom and having a mass (M), carried by a mast of a crane, comprising at least a step of determining, from lifting speed setpoints (CMD), optimized lifting speed setpoints (CMD') intended to be executed by a motor device for displacing the suspended load according to a lifting movement so that the acceleration related to the lifting movement remains, in absolute value, less than or equal to a maximum permitted lifting acceleration (L" MAX ), said method being characterized in that it includes the following preliminary steps: • a first step of determining, depending on the mass (M) of the suspended load, a specified load factor (Ψ 0 *) quantifying an acceptable exceedance related to a predetermined maximum allowable load for said crane; and • a second step of determining the maximum permitted lifting acceleration (L" MAX ), depending on the mass (M) of the suspended load, on the specified load factor (Ψ 0 *) and on the distribution position (X c ) of the load suspended on the boom with respect to the mast. • a first step of determining, depending on the mass (M) of the suspended load, a specified load factor (Ψ 0 *) quantifying an acceptable exceedance related to a predetermined maximum allowable load for said crane; and • a second step of determining the maximum permitted lifting acceleration (L" MAX ), depending on the mass (M) of the suspended load, on the specified load factor (Ψ 0 *) and on the distribution position (X c ) of the load suspended on the boom with respect to the mast.
A painting robot system, comprising: a robot ; a base supporting the robot ; a controller connected to the robot ; a processor connected to the controller ; a depth camera connected to the processor ; a flange plate ; a coupling shaft comprising a first end and a second end; a mounting base comprising an elongated hole, a first side wall, and a second side wall; a spray device comprising a mounting shaft; a first positioning bolt ; a limit arm comprises a first end and a second end; an axis pin ; a limit shaft ; a second positioning bolt ; a gas cylinder ; a piston rod ; a connector ; a shift level ; a trigger ; wherein the robot is connected to the first end of the coupling shaft via the flange plate ; the second end of the coupling shaft is connected to the mounting base ; the mounting shaft of the spray device is disposed in the elongated hole of the mounting base ; the first positioning bolt is secured to the first side wall of the mounting base to position the mounting shaft of the spray device on the first side wall; the second side wall of the mounting base is rotatably connected to the first end of the limit arm via the axis pin ; the second end of the limit arm is connected to the limit shaft ; the limit shaft supports the mounting shaft of the spray device ; the second positioning bolt is disposed between a middle part of the limit arm and the mounting base ; the gas cylinder connecting to a pneumatic device is fixedly disposed on the mounting base ; the piston rod matching the gas cylinder is connected to the shift level via the connector ; the shift level is cooperative with the trigger disposed on the spray device ; and the robot is an explosion proof robot. the robot is connected to the first end of the coupling shaft via the flange plate ; the second end of the coupling shaft is connected to the mounting base ; the mounting shaft of the spray device is disposed in the elongated hole of the mounting base ; the first positioning bolt is secured to the first side wall of the mounting base to position the mounting shaft of the spray device on the first side wall; the second side wall of the mounting base is rotatably connected to the first end of the limit arm via the axis pin ; the second end of the limit arm is connected to the limit shaft ; the limit shaft supports the mounting shaft of the spray device ; the second positioning bolt is disposed between a middle part of the limit arm and the mounting base ; the gas cylinder connecting to a pneumatic device is fixedly disposed on the mounting base ; the piston rod matching the gas cylinder is connected to the shift level via the connector ; the shift level is cooperative with the trigger disposed on the spray device ; and the robot is an explosion proof robot.
A composition for non-aqueous secondary battery adhesive layer, comprising organic particles and a binder, wherein the organic particles comprise (i) organic particles having a core-shell structure, and (ii) organic particles having a weight-average molecular weight of 100 to 10,000, and being present in the total organic particles in a weight fraction of 4.5% to 35%, wherein the weight-average molecular weight is measured according to the Method of Measuring Weight-Average Molecular Weight of Organic Particles described in the Examples, wherein the core is made of a polymer comprising monomer units selected from the group consisting of (meth)acrylate monomer units, acid group-containing monomer units, cross-linkable monomer units, aromatic vinyl monomer units, fluorine-containing (meth)acrylate monomer units, fluorine-containing aromatic diene monomer units, and (meth)acrylonitrile monomer units, wherein the shell is made of a polymer comprising monomer units selected from the group consisting of (meth)acrylate monomer units, acid group-containing monomer units, cross-linkable monomer units, aromatic vinyl monomer units, fluorine-containing (meth)acrylate monomer units, fluorine-containing aromatic diene monomer units, and (meth)acrylonitrile monomer units, and wherein the binder is selected from a styrene-butadiene copolymer, a styrene-acrylonitrile copolymer, and a (meth)acrylate polymer. wherein the organic particles comprise (i) organic particles having a core-shell structure, and (ii) organic particles having a weight-average molecular weight of 100 to 10,000, and being present in the total organic particles in a weight fraction of 4.5% to 35%, (i) organic particles having a core-shell structure, and (ii) organic particles having a weight-average molecular weight of 100 to 10,000, and being present in the total organic particles in a weight fraction of 4.5% to 35%, wherein the weight-average molecular weight is measured according to the Method of Measuring Weight-Average Molecular Weight of Organic Particles described in the Examples, wherein the core is made of a polymer comprising monomer units selected from the group consisting of (meth)acrylate monomer units, acid group-containing monomer units, cross-linkable monomer units, aromatic vinyl monomer units, fluorine-containing (meth)acrylate monomer units, fluorine-containing aromatic diene monomer units, and (meth)acrylonitrile monomer units, wherein the shell is made of a polymer comprising monomer units selected from the group consisting of (meth)acrylate monomer units, acid group-containing monomer units, cross-linkable monomer units, aromatic vinyl monomer units, fluorine-containing (meth)acrylate monomer units, fluorine-containing aromatic diene monomer units, and (meth)acrylonitrile monomer units, and wherein the binder is selected from a styrene-butadiene copolymer, a styrene-acrylonitrile copolymer, and a (meth)acrylate polymer.
Implant material for filling in bone defects, bone regeneration and bone tissue engineering, characterised in that it comprises a hybrid material comprising: • a bioactive glass M made from SiO 2 and CaO, optionally containing P 2 O 5 and/or optionally doped with strontium, and • a biodegradable polymer P chosen from: - bioabsorbable polysaccharides, preferably chosen from dextran, hyaluronic acid, agar, chitosan, alginic acid, sodium or potassium alginate, galactomannan, carageenan, pectin, - bioabsorbable polyesters, preferably polyvinyl alcohol or poly(lactic acid), and - biodegradable synthetic polymers, preferably a polyethylene glycol, poly(caprolactone), and in that this hybrid material is doped with an osteoinductive nutrient N chosen from vitamin D2 (ergocalciferol), vitamin D3 (cholicalciferol), vitamin K1, vitamin K2, omega-3 fatty acids, punicic acid, α-lipoic acid, anthocyanins, flavonols, procyanidins, tyrosol, oleuropein, naringenin, punicalagin, ellagic acid and phycocyanin. • a bioactive glass M made from SiO 2 and CaO, optionally containing P 2 O 5 and/or optionally doped with strontium, and • a biodegradable polymer P chosen from: - bioabsorbable polysaccharides, preferably chosen from dextran, hyaluronic acid, agar, chitosan, alginic acid, sodium or potassium alginate, galactomannan, carageenan, pectin, - bioabsorbable polyesters, preferably polyvinyl alcohol or poly(lactic acid), and - biodegradable synthetic polymers, preferably a polyethylene glycol, poly(caprolactone), - bioabsorbable polysaccharides, preferably chosen from dextran, hyaluronic acid, agar, chitosan, alginic acid, sodium or potassium alginate, galactomannan, carageenan, pectin, - bioabsorbable polyesters, preferably polyvinyl alcohol or poly(lactic acid), and - biodegradable synthetic polymers, preferably a polyethylene glycol, poly(caprolactone),
A data transmission method, comprising: obtaining (S101), by user equipment, UE, first information, wherein the first information comprises at least one of location information of the UE, channel quality between the UE and a base station, channel load between the UE and the base station, or a size of data to be sent by the UE; determining (S102), by the UE, whether the first information meets a preset condition; when the first information does not meet the preset condition, obtaining (SI03), by the UE, an unscheduled uplink data transmission resource, and sending data to the base station by using the unscheduled uplink data transmission resource; characterized in that the first information further comprises a quantity of times that the UE fails to send a data packet to the base station by using the unscheduled uplink data transmission resource; and the determining, by the UE, whether the first information meets the preset condition further comprises: determining, by the UE, whether the quantity of times that the UE fails to send a data packet to the base station by using the unscheduled uplink data transmission resource is greater than a seventh preset threshold. obtaining (S101), by user equipment, UE, first information, wherein the first information comprises at least one of location information of the UE, channel quality between the UE and a base station, channel load between the UE and the base station, or a size of data to be sent by the UE; determining (S102), by the UE, whether the first information meets a preset condition; when the first information does not meet the preset condition, obtaining (SI03), by the UE, an unscheduled uplink data transmission resource, and sending data to the base station by using the unscheduled uplink data transmission resource; characterized in that the first information further comprises a quantity of times that the UE fails to send a data packet to the base station by using the unscheduled uplink data transmission resource; and the determining, by the UE, whether the first information meets the preset condition further comprises: determining, by the UE, whether the quantity of times that the UE fails to send a data packet to the base station by using the unscheduled uplink data transmission resource is greater than a seventh preset threshold.
Sports boot comprising: an inner boot ; an exogenous shell , whose dimensions allow said inner boot to be inserted into or extracted from it, said exogenous shell strengthening said inner boot and allowing it to be attached to a piece of sports equipment; said exogenous shell comprising a sole and an upper ; said upper comprising a rear part of an upper capable of pivoting with respect to said sole around a articulation; a reinforcement around the Achilles tendon that is articulated relative to the sole of the exogenous shell; said reinforcement around the Achilles tendon pivoting around an axis connected with the basis of the exogenous shell , and characterized in that said reinforcement around the Achilles tendon is fastened, in closed position, against the inner side of the rear part by means of a tenon inserted in an opening of said rear part of the upper, said tenon forming the end of said reinforcement around the Achilles tendon. an inner boot ; an exogenous shell , whose dimensions allow said inner boot to be inserted into or extracted from it, said exogenous shell strengthening said inner boot and allowing it to be attached to a piece of sports equipment; said exogenous shell comprising a sole and an upper ; said upper comprising a rear part of an upper capable of pivoting with respect to said sole around a articulation; a reinforcement around the Achilles tendon that is articulated relative to the sole of the exogenous shell; said reinforcement around the Achilles tendon pivoting around an axis connected with the basis of the exogenous shell , and characterized in that said reinforcement around the Achilles tendon is fastened, in closed position, against the inner side of the rear part by means of a tenon inserted in an opening of said rear part of the upper, said tenon forming the end of said reinforcement around the Achilles tendon.
An alkali metal salt of fluorosulfonyl imide represented by the following general formula (I), wherein a content of sulfate ions is 3000 ppm by mass or less, a content of potassium ions is 10000 ppm by mass or less, a content of fluoride ions is 1,000 ppm by mass or less, a water content is 500 ppm by mass or less, a content of one or more residual solvent(s) is 4000 ppm by mass or less, a content of chloride ions is 200 ppm by mass or less, where M a represents Li, and each of R a and R b represents a fluorine atom.
Single or polyphase electric motor comprising a stator carrying at least three coils and consisting of 12 × N straight teeth of equal widths and extending radially, N being an integer greater than or equal to 1, and of equal angular width alpha, measured at their end from the center of the motor, and a rotor having P pairs of magnetized poles such that P = 5 + 2 × R, P not being a multiple of three, R being an integer greater than or equal to 0, characterized in that alpha is between 360°/(12 × N)/3 and 360°/(12 × N)/2.
Floor panel with a substrate and a decoration provided thereon, wherein the substrate comprises at least a foamed layer of thermoplastic material, at least a non-foamed layer (5-6) of thermoplastic material, and at least a reinforcement layer , said reinforcement layer relates to a glass fiber layer having a weight of at least 30 g/m 2 , characterized in that said reinforcement layer is situated on one of the surfaces of the foamed layer , and wherein the non-foamed layer (5-6) is adjacent to said reinforcement layer (8-9).
A computer- implemented method for automatic detection and quantification of important features on at least one surface of a semiconductor wafer by a dimensional metrology tool comprising the steps of: specifying user defined at least one feature type of interest; generating a list of feature attributes for each said at least one feature type of interest; acquiring wafer interferometer data of said at least one surface of said semiconductor wafer ; using said dimensional metrology tool; calculating from said wafer interferometer data surface maps of said wafer, wherein said surface maps of said wafer include at least one of: front and back surface height maps, thickness map, and shape map; using said surface maps to automtically detect and classify features of said at least one feature type of interest according to said list of feature attributes; automatically defining feature object regions bounding said features according to said detecting and classifying of said features, wherein each of said feature object regions includes feature object region pixels; dilating the object region pixels for the local background level estimation; defining an object based measurement region around each of said features, wherein the shape and area of the object measurement region is determined by the feature object shape and the dilation operation performed on it; and calculating metrics of said features as located in said feature object regions. specifying user defined at least one feature type of interest; generating a list of feature attributes for each said at least one feature type of interest; acquiring wafer interferometer data of said at least one surface of said semiconductor wafer ; using said dimensional metrology tool; calculating from said wafer interferometer data surface maps of said wafer, wherein said surface maps of said wafer include at least one of: front and back surface height maps, thickness map, and shape map; using said surface maps to automtically detect and classify features of said at least one feature type of interest according to said list of feature attributes; automatically defining feature object regions bounding said features according to said detecting and classifying of said features, wherein each of said feature object regions includes feature object region pixels; dilating the object region pixels for the local background level estimation; defining an object based measurement region around each of said features, wherein the shape and area of the object measurement region is determined by the feature object shape and the dilation operation performed on it; and calculating metrics of said features as located in said feature object regions.
A replaceable air filter unit for filtering air to be supplied to an internal combustion engine in a vehicle, said replaceable air filter unit forming a sleeve about a central axis (X) and extending along said axis (x) between a first end and a second end , for axial insertion into a filter housing with said first end leading the axial insertion, said air filter unit forming an outer sleeve surface bounded by an outer filter radius (Ro) for receiving unfiltered air, and an inner sleeve surface bounded by an inner filter radius (Ri) for output of filtered air; wherein an axially flexible skirt being circumferentially arranged at the first end of the air filter unit and extending radially outside the outer filter radius (Ro), for wiping an inner surface of the filter housing when the air filter unit is axially removed from the filter housing characterized in that a radial length of the flexible skirt , from the central axis (X), is varied along the circumference of the filter unit.