mhurhangee/patent-ind-claim-en huggingface dataset:
A cream jar comprising an inner jar having an inner container for receiving a cream or a similar viscous fluid, an outer jar for receiving the inner jar, and a lid member , the lid member comprising a lid having a thread and a mating thread disposed on the inner jar and/or on the outer jar, the lid member being used to close the inner container of the inner jar, the inner jar being replaceable, the inner jar and the outer jar forming a sever-able connection, said connection being a latching connection , the cream jar having an axial anti-rotation means realized between the inner jar and the outer jar in at least one horizontal plane, the anti-rotation means comprising a contour on the inner container of the inner jar and a corresponding mating contour on the outer jar, the contour and the mating contour having a shape other than a circular shape, the contour of the anti-rotation means being realized on an outer wall of the inner container of the inner jar , an inner wall of the inner container having an essentially circular contour.
A device for heat sealing a film lid on the rim of a glass , the device including a deformable and thermally conductive element designed to press against the film lid and the rim in order to heat the film lid and the rim, wherein a peripheral portion of the conductive element is arranged to extend beyond the rim, the device including means (24, 240, 26 to 30) for hinging and suspending the deformable conductive element and means for transmitting a pressure force exerted by an actuator to the conductive element , the device being characterized in that said force transmission means are distinct from the means for hinging and suspending the conductive element.
A method used by a terminal to connect to a virtual private network, VPN, comprising: receiving , by a VPN control device, a first handshake message sent by a router gateway, wherein the first handshake message is sent by the router gateway after the router gateway receives a second handshake message sent by a terminal, and the second handshake message is used to initiate a negotiation process of a first Secure Sockets Layer, SSL, session to the VPN control device; determining , by the VPN control device according to the first handshake message, a session parameter of the first SSL session by negotiating with the terminal, and attempting to authenticate the terminal by using the first SSL session; after the terminal is authenticated, determining , by the VPN control device, an Internet Protocol, IP, address of a first VPN gateway to which the terminal is allowed to connect; and notifying , by the VPN control device, the terminal of the IP address of the first VPN gateway, wherein the first handshake message carries a direct route entry of the router gateway, and the direct route entry comprises a subnet prefix of a VPN gateway that is located on the router gateway in a bypass mode; and the determining, by the VPN control device, an IP address of a first VPN gateway comprises: obtaining, by the VPN control device from a list of configured IP addresses of all VPN gateways, an IP address of a VPN gateway that belongs to the subnet prefix, of the VPN gateway, comprised in the direct route entry, and determining the obtained IP address of the VPN gateway as the IP address of the first VPN gateway. receiving , by a VPN control device, a first handshake message sent by a router gateway, wherein the first handshake message is sent by the router gateway after the router gateway receives a second handshake message sent by a terminal, and the second handshake message is used to initiate a negotiation process of a first Secure Sockets Layer, SSL, session to the VPN control device; determining , by the VPN control device according to the first handshake message, a session parameter of the first SSL session by negotiating with the terminal, and attempting to authenticate the terminal by using the first SSL session; after the terminal is authenticated, determining , by the VPN control device, an Internet Protocol, IP, address of a first VPN gateway to which the terminal is allowed to connect; and notifying , by the VPN control device, the terminal of the IP address of the first VPN gateway, wherein the first handshake message carries a direct route entry of the router gateway, and the direct route entry comprises a subnet prefix of a VPN gateway that is located on the router gateway in a bypass mode; and the determining, by the VPN control device, an IP address of a first VPN gateway comprises: obtaining, by the VPN control device from a list of configured IP addresses of all VPN gateways, an IP address of a VPN gateway that belongs to the subnet prefix, of the VPN gateway, comprised in the direct route entry, and determining the obtained IP address of the VPN gateway as the IP address of the first VPN gateway.
A glove, comprising a glove core and a glove component , with the glove core including a palm portion , a dorsum portion and a finger portion , wherein the finger portion includes a thumb sleeve , an index finger sleeve , a middle finger sleeve , a ring finger sleeve and a little finger sleeve ; the finger portion further including three fork portions disposed among the index finger sleeve , the middle finger sleeve , the ring finger sleeve and the little finger sleeve , wherein the three fork portions are respectively an index finger fork portion , a middle finger fork portion and a little finger fork portion ; the finger portion further including a finger face portion , a fourchette portion and a finger dorsum portion disposed respectively on the thumb sleeve , the index finger sleeve , the middle finger sleeve , the ring finger sleeve and the little finger sleeve ; wherein a web space is disposed between the thumb sleeve and the index finger sleeve ; wherein the glove component is adhered on a surface of the glove core , so that the glove component covers at least a part of the palm portion and at least a part of the finger portion ; characterized in that the glove component being formed by adhering together a half palm portion , a butterfly portion and a web space support portion ; said half palm portion including a palm support piece, as well as a thumb piece, an index finger piece and a little finger piece which are disposed at a side of the palm support piece and are independent from one another; the butterfly portion including a middle finger and ring finger; wherein, in the glove component , a section from the index finger piece to the little finger piece of the half palm portion is adhered with the middle finger and the ring finger of the butterfly portion , wherein the web space support portion is adhered between the thumb piece and the index finger piece; an edge of the glove component being provided with an adhesive layer ; and at least one part of the half palm portion covering at least a part of the palm portion of the glove core , wherein the rest parts of the half palm portion and the butterfly portion cover all the finger face portions of the finger portion , and cover back to parts of the finger dorsum portions from the fourchette portions , and the web space support portion covers the web space of the glove core .
Method for the low-noise operation of an electrical machine , which is provided especially for driving vehicles, in particular submarines, comprising a stator, which has a number of coils, and a number of converters for supplying current to the coils, characterised in that a first current (I 1 ), which has a fundamental oscillation (G) with superimposed harmonic components (O) is supplied to the assigned coils with a respective phase offset by means of a first group of converters , and at the same time a second inverted current (I 2 ) which is modified with respect to the harmonic components (O) of the first current (I 1 ) is supplied to the assigned coils by means of a second group of converters , wherein an active noise compensation is generated by means of the inverted flow of current.
A proportional valve comprising: an input port and an output port ; a diaphragm provided between the input port and the output port, a diaphragm plate mounted to the diaphragm, the diaphragm plate having a pilot orifice formed therethrough; a solenoid comprising an armature and a field winding , the armature being movable in a first direction response to a magnetic field generated by the field winding, biassing means arranged to provide a biassing force to the armature in a direction opposite to said first direction, wherein in the absence of current in the solenoid, the biassing force is arranged to urge the armature to position the diaphragm plate in a main orifice between the input port and the output port to block the flow of fluid therebetween, with the armature blocking the pilot orifice, wherein movement of the armature in said first direction in response to a magnetic field generated by the field winding opens the pilot orifice to allow fluid to flow therethrough, and allows the diaphragm plate to move out of the main orifice to create a gap therebetween allowing flow of fluid from the input port to the output port, characterized in that wherein said biassing means comprises two coiled compression springs , with one sitting axially within the other, wherein the two springs are arranged to exert a biassing force on the armature at different stages during the travel of the armature, in order to exert a variable force on the armature over at least part of its travel. an input port and an output port ; a diaphragm provided between the input port and the output port, a diaphragm plate mounted to the diaphragm, the diaphragm plate having a pilot orifice formed therethrough; a solenoid comprising an armature and a field winding , the armature being movable in a first direction response to a magnetic field generated by the field winding, biassing means arranged to provide a biassing force to the armature in a direction opposite to said first direction, wherein in the absence of current in the solenoid, the biassing force is arranged to urge the armature to position the diaphragm plate in a main orifice between the input port and the output port to block the flow of fluid therebetween, with the armature blocking the pilot orifice, wherein movement of the armature in said first direction in response to a magnetic field generated by the field winding opens the pilot orifice to allow fluid to flow therethrough, and allows the diaphragm plate to move out of the main orifice to create a gap therebetween allowing flow of fluid from the input port to the output port, characterized in that wherein said biassing means comprises two coiled compression springs , with one sitting axially within the other, wherein the two springs are arranged to exert a biassing force on the armature at different stages during the travel of the armature, in order to exert a variable force on the armature over at least part of its travel.
Wiper arm device, in particular windscreen wiper arm device, having at least one hose retention unit which can be arranged on at least one wiper arm and which comprises at least one hose guide which is provided to guide at least one washing water hose , having at least one additional nozzle unit and having at least one coupling unit which is provided to couple the additional nozzle unit to the hose retention unit and which comprises at least a first coupling element and at least a corresponding second coupling element for coupling, wherein the first coupling element is formed at least partially by the hose guide , and at least one rotation prevention unit which has at least one rotation prevention element which is provided to prevent a rotation of the additional nozzle unit relative to the hose retention unit , characterized in that, in a coupled state, the first coupling element is arranged in a rotationally fixed manner in the rotation prevention element .
Method for the synchronized adaptation of a virtual subset of a telecommunication network (R) referred to as a "network slice", dedicated to an elementary service of a set of services, a more encompassing service being composed of several elementary services to which separate respective slices are dedicated, the telecommunication network (R) comprising a plurality of network slices (TR1, TR2, TR3), said slices (TR1, TR2, TR3) being configured according to a plurality of configuration parameters (P TR1 (i), P TR2 (j), P TR3 (q)), the method comprising at least: - modifying at least one second configuration parameter of at least one second slice (TR2), said second slice (TR2) being dedicated to a second elementary service of a set of services, on the basis of at least one modification of a first configuration parameter of a first slice (TR1) dedicated to a first elementary service of the set of services. - modifying at least one second configuration parameter of at least one second slice (TR2), said second slice (TR2) being dedicated to a second elementary service of a set of services, on the basis of at least one modification of a first configuration parameter of a first slice (TR1) dedicated to a first elementary service of the set of services.
Motor-operated manual compression device , comprising a fixed part and a moving part, the moving part being moved relative to the fixed part by means of a hydraulic piston which operates in a hydraulic cylinder , and being movable back into an initial position by means of a return spring, a pressure sensor being provided which detects the pressure of the hydraulic medium in the hydraulic cylinder , characterised in that a microcontroller is provided for evaluating the signals supplied by the pressure sensor, in that , after switching on the device, the pressure is measurable at regular intervals of less than one second, and in that , after first workpiece contact, a difference in pressure gradients can be used for an evaluation in terms of achieving a complete compression.
Boiler having a suction fan for the exhaust gases which act upon a heat exchanger arranged in the boiler housing for a heat transfer medium and a condensation heat exchanger connected downstream of this heat exchanger outside of the boiler housing, which condensation heat exchanger has a housing having an exhaust gas duct through which a heat transfer medium duct passes and which forms a downwardly directed inflow section and an upwardly directed outflow section separated from the inflow section by a partition wall, characterised in that the housing of the condensation heat exchanger arranged downstream of the suction fan comprises an annular chamber producing the inflow section between a cylindrical outer jacket and a riser pipe coaxial to the outer jacket and forming the outflow section, and in that the heat transfer medium duct includes a heat transfer medium pipe extending in the inflow section between the outer jacket and the riser pipe and surrounding the riser pipe in a helical manner in a descending branch and an ascending branch connected thereto.
A radio signal device adapted for transmitting a radio signal, the radio signal comprising a first signal component and a second signal component, wherein - the first signal component comprises a first overlay code of X 1 first overlay code symbols modulated on a first primary code , the first overlay code having a first overlay code duration of C 1 units of time, wherein each of the first overlay code symbols have a duration of S 1 units of time, and - the second signal component comprises a second overlay code of X 2 second overlay code symbols modulated on a second primary code , the second overlay code having a second overlay code duration of C 2 units of time, wherein each of the second overlay code symbols has a duration of S 2 units of time, wherein either the overlay code duration C 1 of the first signal component and the overlay code duration C 2 of the second signal component are chosen such that the start or the end of the first overlay code and the second overlay code have a reference code phase offset of D units of time every 2 N units of time, wherein 2 N is an integer and equivalent to the least common multiple of C 1 and C 2 , or the overlay code duration C 1 of the first signal component and the overlay code symbol duration S 2 of the second signal component are chosen such that the start or the end of the first overlay code and the second overlay code symbol have a reference code phase offset of D units of time every 2N units of time, wherein 2 N is an integer and equivalent to the least common multiple of C 1 and S 2 . - the first signal component comprises a first overlay code of X 1 first overlay code symbols modulated on a first primary code , the first overlay code having a first overlay code duration of C 1 units of time, wherein each of the first overlay code symbols have a duration of S 1 units of time, and - the second signal component comprises a second overlay code of X 2 second overlay code symbols modulated on a second primary code , the second overlay code having a second overlay code duration of C 2 units of time, wherein each of the second overlay code symbols has a duration of S 2 units of time, wherein either the overlay code duration C 1 of the first signal component and the overlay code duration C 2 of the second signal component are chosen such that the start or the end of the first overlay code and the second overlay code have a reference code phase offset of D units of time every 2 N units of time, wherein 2 N is an integer and equivalent to the least common multiple of C 1 and C 2 , or the overlay code duration C 1 of the first signal component and the overlay code symbol duration S 2 of the second signal component are chosen such that the start or the end of the first overlay code and the second overlay code symbol have a reference code phase offset of D units of time every 2N units of time, wherein 2 N is an integer and equivalent to the least common multiple of C 1 and S 2 .
Method for operating a water injection apparatus with at least two water injectors and a conveying element of an internal combustion engine , the water injection apparatus comprising a conveying element , configured as a pump, and an electric drive for driving the pump, a water tank being provided, furthermore, which is connected by way of an intake line to the conveying element , a conveying line connecting the conveying element to a distributor , to which a multiplicity of water injectors are connected, the water injectors being opened one after another via a control unit , the conveying element feeding water which is situated in the water injectors to the water tank of the water injection apparatus when the water injectors are open, in order to avoid icing up of the water injectors , water which is situated in the water injectors , in particular in the case of the internal combustion engine being turned off, being extracted from the water injectors using negative pressure, the drive of the conveying element being controlled via the control unit so as to change the operating direction of the conveying element , with the result that water is fed in a second conveying direction (X2) through the conveying line and the intake line to the water tank , the water injectors being opened one after another via the control unit after negative pressure in the conveying line is dissipated.
A method for producing a protein, comprising culturing a cell having protein production ability in suspension in a medium composition comprising nanofibers under physical disruption condition and in a state of being attached to the nanofibers, wherein the nanofibers are constituted of a non-water-soluble polysaccharide selected from the group consisting of cellulose, chitin and chitosan, the cell is HEK293, CHO-K1, BHK-21, MDCK, Vero, HepG2 or MCF-7, and the nanofibers in the medium composition are present at a concentration within a range that can promote the protein production and/or proliferation by the cell to be cultured.
A time-of-flight image processing method for reducing blur of a depth image, the method comprising: sensing, by an image sensor , phase-modulated infrared, IR, light reflected by a sample subject and incident via an optical shutter ; modeling a spread characteristic of the IR light from the sample subject reflected internally in a space between the optical shutter and the image sensor, based on an intensity distribution of the IR light sensed by pixels in the image sensor; generating a sharpening filter which is configured for correcting effects of the incident IR light reflected internally between the optical shutter and the image sensor toward nearby pixels by using the modeled spread characteristic; acquiring IR images of different phases of a scene captured for generating a depth image after the sharpening filter is acquired, the optical shutter selecting the IR image for each phase; adjusting pixel values of the acquired IR images by using the acquired sharpening filter; acquiring depth values of the scene by calculating a time of flight, ToF, of each pixel based on the adjusted pixel values; and generating a depth image of the scene by using the acquired depth values; wherein the spread characteristic is modeled based on at least one from among a reflectivity of the optical shutter and a reflectivity of the image sensor, and a distance between the optical shutter and the image sensor. sensing, by an image sensor , phase-modulated infrared, IR, light reflected by a sample subject and incident via an optical shutter ; modeling a spread characteristic of the IR light from the sample subject reflected internally in a space between the optical shutter and the image sensor, based on an intensity distribution of the IR light sensed by pixels in the image sensor; generating a sharpening filter which is configured for correcting effects of the incident IR light reflected internally between the optical shutter and the image sensor toward nearby pixels by using the modeled spread characteristic; acquiring IR images of different phases of a scene captured for generating a depth image after the sharpening filter is acquired, the optical shutter selecting the IR image for each phase; adjusting pixel values of the acquired IR images by using the acquired sharpening filter; acquiring depth values of the scene by calculating a time of flight, ToF, of each pixel based on the adjusted pixel values; and generating a depth image of the scene by using the acquired depth values; wherein the spread characteristic is modeled based on at least one from among a reflectivity of the optical shutter and a reflectivity of the image sensor, and a distance between the optical shutter and the image sensor.
A method , at a wireless controller , the method comprising: receiving an identifier for a Bluetooth Low Energy, BLE, device to locate in an environment comprising a plurality of access points ,APs, ; identifying a first AP of the plurality of APs communicating with the BLE device at a first power level; until a threshold number of APs of the plurality of APs (106b-h, 206b-h), including the first AP, receive communications (110a-h, 210a-h, 410a-h) from the BLE device, instructing , using the first AP, the BLE device to increase the transmission power level of the BLE device; receiving a received signal strength indicator, RSSI, value from each of the threshold number of APs based on the communications from the BLE device; and computing a location of the BLE device in the environment based on the RSSI values. receiving an identifier for a Bluetooth Low Energy, BLE, device to locate in an environment comprising a plurality of access points ,APs, ; identifying a first AP of the plurality of APs communicating with the BLE device at a first power level; until a threshold number of APs of the plurality of APs (106b-h, 206b-h), including the first AP, receive communications (110a-h, 210a-h, 410a-h) from the BLE device, instructing , using the first AP, the BLE device to increase the transmission power level of the BLE device; receiving a received signal strength indicator, RSSI, value from each of the threshold number of APs based on the communications from the BLE device; and computing a location of the BLE device in the environment based on the RSSI values.