mhurhangee/patent-ind-claim-en huggingface dataset:
E-axle module , comprising at least one electric machine and at least one power electronics system and a cooling circuit having a seal assembly therein, wherein the seal assembly comprises a tubular insert on which a first sealing element is arranged, wherein a further sealing element is assigned to one of the end faces of the tubular insert, wherein an overflow opening is provided between the sealing elements (62, 72; 64, 76, 80), wherein the tubular insert is received in a recess of a housing of the electric machine and the overflow opening is made in a wall of the recess of the housing .
A cosmetic applicator , comprising a sponge to absorb a substance and prevent leakage thereof, the cosmetic applicator comprising: a sponge having an elastic open-cell of a three-dimensional membrane structure of elastic polymer configured to contain said substance ; a rigid plastic base , and a Radio Frequency Identification RFID tag integrated to the rigid plastic base , wherein the sponge is bonded to the rigid plastic base ; wherein the RFID tag is initially bonded to the rigid plastic base , wherein the bonded RFID tag and the rigid plastic base are integrated through an over molding process in which thermoplastic elastomers are injected into a mold at predefined temperature to yield the cosmetic applicator including the sponge having the three-dimensional membrane structure bonded to the rigid plastic base and encapsulating the RFID tag ;wherein the sponge has a skin surface , wherein the skin surface has a predefined thickness for allowing preventing spontaneous release of the substance from the sponge and release only upon applying pressure over the sponge , and wherein the RFID tag is configured to store at least treatment information comprising expiration date of substance absorbed by the sponge and is programmed to become inactive after the expiration date of the substance. a sponge having an elastic open-cell of a three-dimensional membrane structure of elastic polymer configured to contain said substance ; a rigid plastic base , and a Radio Frequency Identification RFID tag integrated to the rigid plastic base , wherein the sponge is bonded to the rigid plastic base ; wherein the RFID tag is initially bonded to the rigid plastic base , wherein the bonded RFID tag and the rigid plastic base are integrated through an over molding process in which thermoplastic elastomers are injected into a mold at predefined temperature to yield the cosmetic applicator including the sponge having the three-dimensional membrane structure bonded to the rigid plastic base and encapsulating the RFID tag ;wherein the sponge has a skin surface , wherein the skin surface has a predefined thickness for allowing preventing spontaneous release of the substance from the sponge and release only upon applying pressure over the sponge , and wherein the RFID tag is configured to store at least treatment information comprising expiration date of substance absorbed by the sponge and is programmed to become inactive after the expiration date of the substance.
An ultrasonic surgical instrument, comprising: a housing ; an elongated shaft extending distally from the housing; an end effector extending distally from the elongated shaft, the end effector including a jaw and an ultrasonic blade , wherein the jaw is configured to pivot relative to the ultrasonic blade from an open position to a clamping position for clamping tissue therebetween; and a transducer assembly disposed at least partially within the elongated shaft, the transducer assembly distally-spaced from the housing and including proximal and distal transducers interconnected by a connector , wherein the ultrasonic blade is connected to the distal transducer such that ultrasonic energy produced by the proximal transducer is transmitted along the connector and the distal transducer to the ultrasonic blade and such that ultrasonic energy produced by the distal transducer is transmitted to the ultrasonic blade wherein the connector is a flexible connector configured to articulate in at least one direction characterised in that the elongated shaft includes an articulating portion configured to articulate the end effector relative to the longitudinal axis of the elongated shaft and wherein the flexible connector extends through the articulating portion such that the proximal transducer is disposed proximally of the articulating portion and such that the distal transducer is disposed distally of the articulating portion. a housing ; an elongated shaft extending distally from the housing; an end effector extending distally from the elongated shaft, the end effector including a jaw and an ultrasonic blade , wherein the jaw is configured to pivot relative to the ultrasonic blade from an open position to a clamping position for clamping tissue therebetween; and a transducer assembly disposed at least partially within the elongated shaft, the transducer assembly distally-spaced from the housing and including proximal and distal transducers interconnected by a connector , wherein the ultrasonic blade is connected to the distal transducer such that ultrasonic energy produced by the proximal transducer is transmitted along the connector and the distal transducer to the ultrasonic blade and such that ultrasonic energy produced by the distal transducer is transmitted to the ultrasonic blade wherein the connector is a flexible connector configured to articulate in at least one direction characterised in that the elongated shaft includes an articulating portion configured to articulate the end effector relative to the longitudinal axis of the elongated shaft and wherein the flexible connector extends through the articulating portion such that the proximal transducer is disposed proximally of the articulating portion and such that the distal transducer is disposed distally of the articulating portion.
A bag-in-keg container: - a container body (C); - a flexible bag (B) within the container body; - a valve closure (V) attached to the container body: - a closure body - a gas inlet port , - a liquid dispensing port , - valve means to sealably close the gas inlet and liquid dispensing ports (11 and 12); - an adapter sealingly attached to the flexible bag (B) and connected to the valve closure (V); - a bag PRV to vent gas pressure from the flexible bag into a dispensing gas space (S) between the container body (C) and the flexible bag (B); - a container PRV to vent gas pressure from the dispensing gas space (S); characterised in that the bag PRV has a valve element having one side exposed to gas pressure within the flexible bag (B) and an opposite side exposed to gas pressure within a sealed plenum chamber . - a container body (C); - a flexible bag (B) within the container body; - a valve closure (V) attached to the container body: - a closure body - a gas inlet port , - a liquid dispensing port , - valve means to sealably close the gas inlet and liquid dispensing ports (11 and 12); - a closure body - a gas inlet port , - a liquid dispensing port , - valve means to sealably close the gas inlet and liquid dispensing ports (11 and 12); - an adapter sealingly attached to the flexible bag (B) and connected to the valve closure (V); - a bag PRV to vent gas pressure from the flexible bag into a dispensing gas space (S) between the container body (C) and the flexible bag (B); - a container PRV to vent gas pressure from the dispensing gas space (S);
Fluid filter attachable to a connection flange with a central standpipe , wherein the fluid filter comprises an exchangeable filter insert with a hollow-cylindrical filter material body that is enclosed on the end faces by two end discs and can be plugged onto the standpipe , and wherein the fluid filter has a cup-shaped screw-on housing with a screw thread in the centre of its bottom that is attachable by screwing onto a counter-thread on a free end of the standpipe , and with a seal supported on the free edge of the screw-on housing, by means of which the screw-on housing when installed is sealable against a sealing surface of the connection flange , characterised in that for centring the end face area relative to the connection flange , the filter insert has first centring means (33, 34.1, 36) on the area of the end face that faces the connection flange in the installed state, and that for centring the free edge of the screw-on housing relative to the sealing surface of the connection flange , the filter insert has second centring means (34, 34.2) on the outer periphery of its end face area facing the connection flange when in the installed state, wherein the second centring means (34, 34.2) interacts with the free edge of the screw-on housing , thus centring the same.
Aqueous suspension comprising, in weight percent with respect to the total weight of the suspension, at least 10% of at least one metal in the form of salt and/or oxide and/or hydroxide, at least 3.5% of at least one polyphenol and from 0,05 to 10% of at least one dispersing agent; wherein said at least one polyphenol is present in the suspension in a concentration ranging from 5 to 20%; wherein said at least one polyphenol is tannin; wherein said acqueous suspension is a fertilizer and/or a phytoprotective agent; and wherein said at least one metal is a plant macronutrient and/or micronutrient.
A coating slurry for preparing a separator for an electrochemical device, comprising: at least one copolymer comprising a first structural unit and at least one second structural unit, wherein the at least one copolymer has a crystallinity degree ranging from 30%to 70% measured according to a differential scanning calorimetry (DSC); at least one thickening agent; at least one binder; and water; wherein the coating slurry is absent of inorganic fillers; wherein the first structural unit is derived from tetrafluoroethylene and the at least one second structural unit is derived from an entity chosen from vinylidene fluoride, acrylic acid methacrylic acid, methyl acrylate, ethyl acrylate, methacrylates, 2-chloroethyl vinyl ether, 2-ethylhexyl acrylate, hydroxyethyl methacrylate, butyl acrylate, butyl methacrylate, trimethylolpropane triacrylate (TMPTA); the at least one copolymer comprises from 0.1 wt% to 20 wt% of the first structural unit derived from tetrafluoroethylene based on the total weight of the at least one copolymer; the at least one thickening agent comprises polypropylene glycol and sodium carboxymethyl cellulose. at least one copolymer comprising a first structural unit and at least one second structural unit, wherein the at least one copolymer has a crystallinity degree ranging from 30%to 70% measured according to a differential scanning calorimetry (DSC); at least one thickening agent; at least one binder; and water; wherein the coating slurry is absent of inorganic fillers; wherein the first structural unit is derived from tetrafluoroethylene and the at least one second structural unit is derived from an entity chosen from vinylidene fluoride, acrylic acid methacrylic acid, methyl acrylate, ethyl acrylate, methacrylates, 2-chloroethyl vinyl ether, 2-ethylhexyl acrylate, hydroxyethyl methacrylate, butyl acrylate, butyl methacrylate, trimethylolpropane triacrylate (TMPTA); the at least one copolymer comprises from 0.1 wt% to 20 wt% of the first structural unit derived from tetrafluoroethylene based on the total weight of the at least one copolymer; the at least one thickening agent comprises polypropylene glycol and sodium carboxymethyl cellulose.
A connector assembly , comprising: a connector body having a first outer surface defining a first attaching feature ; and a back shell formed of a dielectric material, having: an attachment portion defining a second attaching feature and a generally tubular support portion extending from the attachment portion , wherein the second attaching feature is configured to engage the first attaching feature of the connector body , wherein the first attaching feature comprises a rectangular first slot defined in the first outer surface extending longitudinally along the first outer surface and extending therethrough to a rectangular first cavity within the connector body that extends longitudinally and in parallel to the first slot , wherein the first cavity has a first lateral width and the first slot has a second lateral width that is less than the first lateral width , wherein the first attaching feature further comprising a first locking tang protruding from the first outer surface and located forward of the first slot , characterised in that , the attachment portion has a second outer surface defining a third attaching feature , the third attaching feature being identical in configuration and function to the first attaching feature . a connector body having a first outer surface defining a first attaching feature ; and a back shell formed of a dielectric material, having: an attachment portion defining a second attaching feature and a generally tubular support portion extending from the attachment portion , wherein the second attaching feature is configured to engage the first attaching feature of the connector body , an attachment portion defining a second attaching feature and a generally tubular support portion extending from the attachment portion , wherein the second attaching feature is configured to engage the first attaching feature of the connector body , wherein the first attaching feature comprises a rectangular first slot defined in the first outer surface extending longitudinally along the first outer surface and extending therethrough to a rectangular first cavity within the connector body that extends longitudinally and in parallel to the first slot , wherein the first cavity has a first lateral width and the first slot has a second lateral width that is less than the first lateral width , wherein the first attaching feature further comprising a first locking tang protruding from the first outer surface and located forward of the first slot , characterised in that , the attachment portion has a second outer surface defining a third attaching feature , the third attaching feature being identical in configuration and function to the first attaching feature .
A method for preparing a high-compactness bonded rare earth permanent magnet having a density of 6.2~7.0 g/cm 3 , wherein, raw materials of the high-compactness bonded rare earth permanent magnet comprise, in mass percentage: a thermosetting resin 0.1-1.6 wt%, a lubricant 0.05-0.8 wt%, a coupling agent 0-1.0 wt%, and the rest being rare earth permanent magnetic powder; and the method comprises: mixing the rare earth permanent magnetic powder after crystallization treatment with a solution in which the thermosetting resin and the coupling agent are dissolved to obtain a mixture, drying the mixture after sealing and stirring, and obtaining a magnetic powder complex after crushing; mixing the magnetic powder complex with the lubricant to obtain a clinker; characterized in that the method further comprises: filling the clinker into a mold that is preheated to a temperature of 40~120 °C for preheating the clinker to 40~120 °C, compressing and molding at an unit compressing force of 1.2~5.0 GPa for 0.3~10 s, demolding to obtain a green body with a density of 6.2~7.1 g/cm 3 , heating the green body at 120~200 °C for 1~3 h to obtain a rough blank, and conducting precision machining on the rough blank. raw materials of the high-compactness bonded rare earth permanent magnet comprise, in mass percentage: a thermosetting resin 0.1-1.6 wt%, a lubricant 0.05-0.8 wt%, a coupling agent 0-1.0 wt%, and the rest being rare earth permanent magnetic powder; and the method comprises: mixing the rare earth permanent magnetic powder after crystallization treatment with a solution in which the thermosetting resin and the coupling agent are dissolved to obtain a mixture, drying the mixture after sealing and stirring, and obtaining a magnetic powder complex after crushing; mixing the magnetic powder complex with the lubricant to obtain a clinker; characterized in that the method further comprises: filling the clinker into a mold that is preheated to a temperature of 40~120 °C for preheating the clinker to 40~120 °C, compressing and molding at an unit compressing force of 1.2~5.0 GPa for 0.3~10 s, demolding to obtain a green body with a density of 6.2~7.1 g/cm 3 , heating the green body at 120~200 °C for 1~3 h to obtain a rough blank, and conducting precision machining on the rough blank. mixing the rare earth permanent magnetic powder after crystallization treatment with a solution in which the thermosetting resin and the coupling agent are dissolved to obtain a mixture, drying the mixture after sealing and stirring, and obtaining a magnetic powder complex after crushing; mixing the magnetic powder complex with the lubricant to obtain a clinker; characterized in that the method further comprises: filling the clinker into a mold that is preheated to a temperature of 40~120 °C for preheating the clinker to 40~120 °C, compressing and molding at an unit compressing force of 1.2~5.0 GPa for 0.3~10 s, demolding to obtain a green body with a density of 6.2~7.1 g/cm 3 , heating the green body at 120~200 °C for 1~3 h to obtain a rough blank, and conducting precision machining on the rough blank.
A method comprising: receiving, by a user unit , from a computer , a processing key (PK) derived at the computer based on a first iterative one-way function at the computer using at least secret information, wherein said iterative one-way function consumes time for generating the processing key; receiving, by the user unit, at least one specific datum converted at the computer by a second one-way function at the computer using the processing key; converting, by the user unit, using same second one-way function at the user unit and the processing key received from the computer, at least a part of data in a permanent memory of the user unit; and providing, by the user unit, a search result based on comparing the converted at least one specific datum received from the computer with the converted part of data from the permanent memory of the user unit. receiving, by a user unit , from a computer , a processing key (PK) derived at the computer based on a first iterative one-way function at the computer using at least secret information, wherein said iterative one-way function consumes time for generating the processing key; receiving, by the user unit, at least one specific datum converted at the computer by a second one-way function at the computer using the processing key; converting, by the user unit, using same second one-way function at the user unit and the processing key received from the computer, at least a part of data in a permanent memory of the user unit; and providing, by the user unit, a search result based on comparing the converted at least one specific datum received from the computer with the converted part of data from the permanent memory of the user unit.
A method for the recognition of an object by means of a radar sensor system , wherein a primary radar signal is transmitted into an observation space , a secondary radar signal reflected by the object is received, a Micro-Doppler spectrogram of the secondary radar signal is generated, and at least one periodicity quantity relating to an at least essentially periodic motion of a part of the object is determined based on the Micro-Doppler spectrogram , wherein the determining of the at least one periodicity quantity includes the steps: (i) determining the course over time of at least one periodic signal component corresponding to an at least essentially periodic pattern of the Micro-Doppler spectrogram , (ii) fitting a smoothed curve to the at least one periodic signal component , (iii) determining the positions of a plurality of peaks and/or valleys of the smoothed curve , and (iv) determining the periodicity quantity based on the determined positions of peaks and/or valleys , characterized in that in step (i), the courses over time of an upper envelope , a lower envelope and a difference between an upper envelope and a lower envelope of the Micro-Doppler spectrogram are determined as courses over time of periodic signal components. a primary radar signal is transmitted into an observation space , a secondary radar signal reflected by the object is received, a Micro-Doppler spectrogram of the secondary radar signal is generated, and at least one periodicity quantity relating to an at least essentially periodic motion of a part of the object is determined based on the Micro-Doppler spectrogram , wherein the determining of the at least one periodicity quantity includes the steps: (i) determining the course over time of at least one periodic signal component corresponding to an at least essentially periodic pattern of the Micro-Doppler spectrogram , (ii) fitting a smoothed curve to the at least one periodic signal component , (iii) determining the positions of a plurality of peaks and/or valleys of the smoothed curve , and (iv) determining the periodicity quantity based on the determined positions of peaks and/or valleys , (i) determining the course over time of at least one periodic signal component corresponding to an at least essentially periodic pattern of the Micro-Doppler spectrogram , (ii) fitting a smoothed curve to the at least one periodic signal component , (iii) determining the positions of a plurality of peaks and/or valleys of the smoothed curve , and (iv) determining the periodicity quantity based on the determined positions of peaks and/or valleys , characterized in that in step (i), the courses over time of an upper envelope , a lower envelope and a difference between an upper envelope and a lower envelope of the Micro-Doppler spectrogram are determined as courses over time of periodic signal components.
A method for producing containers from preforms of a thermoplastic material filled with a liquid filling material, wherein the respective preform is thermally conditioned along a heating section in a heating device and subsequently, during a forming and filling phase in a mould of a forming station , is formed into the container and filled with at least one liquid filling material fed under a pressure into the preform as pressure medium, wherein the preform is preferably guided at least for a time by a stretching rod during its formation into the container and is stretched in the axial direction (X) thereof, wherein several forming stations are arranged circumferentially spaced apart on a common, continuously circumferentially driven working wheel at a radial distance from an axis of rotation (MA) of the working wheel , characterised by a compensating device for compensation of the thermal consequences of the centrifugal force acting on the filling material filled into the preform , wherein the compensating device is designed as a temperature control device, which imparts a temperature profile to the preform in the circumferential direction, which temperature profile is not point-symmetrical in relation to the longitudinal axis (X) of the preform and thus creates a temperature-differentiated partial circumferential region in the preform , wherein the preform is inserted into the mould so as to be aligned such that the temperature-differentiated partial circumferential region points in the radial direction of the working wheel .
A white light source for medicine which is to be used for visually observing a blood vessel in skin, the light source having an emission spectrum, wherein the white light source comprises an LED chip having an emission peak within a wavelength region from 370 nm to 480 nm; and a phosphor layer which is excited by a primary light irradiated by the LED chip and emits a secondary light within visible light region, and wherein, in the emission spectrum, a P3 to P2 ratio (P3/P2) is 0.4 or less, wherein P3 is the maximum intensity of the emission spectrum within a wavelength region from 520 nm to 580 nm, and P2 is the maximum intensity of the emission spectrum within a wavelength region from 600 nm to 780 nm, wherein a P1 to P2 ratio (P1/P2) is 0.5 to 1.2, wherein P1 is the maximum intensity of the emission spectrum within a wavelength region from 370 nm to 470 nm.