mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising a middle frame, a first FPC, a second FPC, and a battery, wherein projections of the first FPC and the second FPC on the middle frame have a first overlapping region, the first overlapping region is located inside a projection of the battery on the middle frame and is away from an edge of the battery, a first through hole is disposed on the middle frame, and the first overlapping region is located in the first through hole.
A mobile device comprising: a processor; an input/output interface circuit coupled to the processor; a memory to store a biometric reference template, the biometric reference template comprising biometric reference information of a user; and a client authentication circuit to: transmit an initiation signal to an authentication device, wherein the initiation signal is to specify requirements of a protected environment of the authentication device that is to enforce a temporary storage of the biometric reference information; receive an attestation signal from the authentication device, the attestation signal including attestation information that attests to characteristics of the protected environment of the authentication device; evaluate the attestation information to determine whether the characteristics of the protected environment of the authentication device meet the requirements; and permit transmission of the biometric reference template to the authentication device in response to analysis of the attestation information. a processor; an input/output interface circuit coupled to the processor; a memory to store a biometric reference template, the biometric reference template comprising biometric reference information of a user; and a client authentication circuit to: transmit an initiation signal to an authentication device, wherein the initiation signal is to specify requirements of a protected environment of the authentication device that is to enforce a temporary storage of the biometric reference information; receive an attestation signal from the authentication device, the attestation signal including attestation information that attests to characteristics of the protected environment of the authentication device; evaluate the attestation information to determine whether the characteristics of the protected environment of the authentication device meet the requirements; and permit transmission of the biometric reference template to the authentication device in response to analysis of the attestation information. transmit an initiation signal to an authentication device, wherein the initiation signal is to specify requirements of a protected environment of the authentication device that is to enforce a temporary storage of the biometric reference information; receive an attestation signal from the authentication device, the attestation signal including attestation information that attests to characteristics of the protected environment of the authentication device; evaluate the attestation information to determine whether the characteristics of the protected environment of the authentication device meet the requirements; and permit transmission of the biometric reference template to the authentication device in response to analysis of the attestation information.
A polymerization process comprising: melt polymerizing a carbonate and a dihydroxy compound in the presence of an amount of a beta organic catalyst so as to give rise to a polycarbonate product, wherein the amount of beta organic catalyst comprises at least one onium salt and also comprises tetraphenyl phosphonium oxide (TPPO), and wherein the TPPO represents less than 0.3 weight% of the sum of the weights of the at least one onium salt and the TPPO in the amount of beta organic catalyst. melt polymerizing a carbonate and a dihydroxy compound in the presence of an amount of a beta organic catalyst so as to give rise to a polycarbonate product, wherein the amount of beta organic catalyst comprises at least one onium salt and also comprises tetraphenyl phosphonium oxide (TPPO), and wherein the TPPO represents less than 0.3 weight% of the sum of the weights of the at least one onium salt and the TPPO in the amount of beta organic catalyst.
An entertainment system including an interactive component for an amusement park, wherein the interactive component comprises: a detection device (22, 24) disposed within a housing and configured to read an identification tag via long range and short range radio communications; an interactive sensor (26, 28) disposed within the housing and configured to detect physical interaction with a surface of the interactive component in a specific location of the surface of the interactive component, wherein the surface comprises a flexible material, and wherein the interactive sensor (26, 28) is configured to detect movement of the surface in order to determine the physical interaction; a control device communicatively coupled to the detection device (22, 24) and the interactive sensor (26, 28), wherein the control device is configured to receive feedback from the detection device (22, 24) and the interactive sensor (26, 28); an effect device (30, 32) configured to receive a signal from the control device and to generate an effect based on detection of the physical interaction with the surface of the interactive component; and a transmitter configured to transmit data to the identification tag based on detection of the physical interaction with the surface of the interactive component by the interactive sensor (26, 28) while detecting the identification tag within a threshold distance of the interactive component by the detection device (22, 24). a detection device (22, 24) disposed within a housing and configured to read an identification tag via long range and short range radio communications; an interactive sensor (26, 28) disposed within the housing and configured to detect physical interaction with a surface of the interactive component in a specific location of the surface of the interactive component, wherein the surface comprises a flexible material, and wherein the interactive sensor (26, 28) is configured to detect movement of the surface in order to determine the physical interaction; a control device communicatively coupled to the detection device (22, 24) and the interactive sensor (26, 28), wherein the control device is configured to receive feedback from the detection device (22, 24) and the interactive sensor (26, 28); an effect device (30, 32) configured to receive a signal from the control device and to generate an effect based on detection of the physical interaction with the surface of the interactive component; and a transmitter configured to transmit data to the identification tag based on detection of the physical interaction with the surface of the interactive component by the interactive sensor (26, 28) while detecting the identification tag within a threshold distance of the interactive component by the detection device (22, 24).
Installation for manufacturing a cross-linkable polyethylene compound, said installation defining a production path starting at an entry point where raw material is acquired, said installation comprising a first melting machine, a melt pump and a filtration unit, characterized in that said installation comprises, in a direction starting at the entry point and going along said production path, either a cooler arranged after the filtration unit, a mixer arranged after the cooler and an additive dispensing unit connected with the first melting machine, with the cooler, with the mixer and/or with connection means that connect together the cooler and the mixer, or a second melting machine arranged after the filtration unit and an additive dispensing unit connected to the second melting machine.
Device for discharging industrial water into a receiving body of water, comprising a gravity-fed basin with a gravity cylinder having an inlet opening and an outlet opening wherein the inlet opening forms an overflow crest, characterised in that a throttle member connected to a float gauge via a guide rod is arranged inside the gravity cylinder and vertical swirl plates are arranged between gravity-fed basin and gravity cylinder, and that the gravity-fed basin has a flooding outlet arranged above the overflow crest.
A multi-metallic emissive insert shaped to be disposed within a plasma arc torch electrode, the emissive insert comprising: an exposed emissive surface at a distal end of the emissive insert to emit a plasma arc from the electrode, wherein the emissive insert comprises a first emissive material and is characterised by further comprising about 5 weight percent metallic yttrium to about 50 weight percent metallic yttrium. an exposed emissive surface at a distal end of the emissive insert to emit a plasma arc from the electrode, wherein the emissive insert comprises a first emissive material and is characterised by further comprising about 5 weight percent metallic yttrium to about 50 weight percent metallic yttrium.
A foam soap dispenser comprising: a dispensing outlet; a mixing chamber for receiving liquid from a liquid source and air from an air source for forming a liquid/air mixture; a conduit; and a first agitator (100, 110) extending along the axis of the conduit downstream of the mixing chamber in the conduit for receiving said liquid/air mixture and forming a foam, said agitator (100, 110) comprising at least two agitating elements (102a, 102b), wherein each agitating element (102a, 102b) of said at least two agitating elements (102a, 102b) is helical, wherein said at least two agitating elements (102a, 102b) extend along the axis of the conduit and are arranged directly axially one after the other. a dispensing outlet; a mixing chamber for receiving liquid from a liquid source and air from an air source for forming a liquid/air mixture; a conduit; and a first agitator (100, 110) extending along the axis of the conduit downstream of the mixing chamber in the conduit for receiving said liquid/air mixture and forming a foam, said agitator (100, 110) comprising at least two agitating elements (102a, 102b), wherein each agitating element (102a, 102b) of said at least two agitating elements (102a, 102b) is helical, wherein said at least two agitating elements (102a, 102b) extend along the axis of the conduit and are arranged directly axially one after the other.
A sealing assembly, comprising: a first component that includes a first inner air seal and at least partially defines a first cavity; a second component that includes a second inner air seal and at least partially defines a second cavity; a first carrier that supports the first inner air seal; a second carrier that supports the second inner air seal; a first stator platform that defines the first cavity together with the first carrier; a second stator platform that defines the second cavity together with the second carrier; and a seal that is received within both the first cavity and the second cavity; the seal comprising: a plug body to limit flow through an axially extending interface between the first component and a second component, the plug body to limit flow when positioned within both the cavity of the first component and the cavity of the second component, the seal further including a fin extending radially from the plug body; characterized in that: the first component comprises a stator having a circumferential length, and the amount of the plug body received within the cavity of the first component is half of the circumferential length. a first component that includes a first inner air seal and at least partially defines a first cavity; a second component that includes a second inner air seal and at least partially defines a second cavity; a first carrier that supports the first inner air seal; a second carrier that supports the second inner air seal; a first stator platform that defines the first cavity together with the first carrier; a second stator platform that defines the second cavity together with the second carrier; and a seal that is received within both the first cavity and the second cavity; the seal comprising: a plug body to limit flow through an axially extending interface between the first component and a second component, the plug body to limit flow when positioned within both the cavity of the first component and the cavity of the second component, the seal further including a fin extending radially from the plug body; characterized in that: the first component comprises a stator having a circumferential length, and the amount of the plug body received within the cavity of the first component is half of the circumferential length.
A urine treatment system comprising: a peristaltic pump system comprising: a pump tube and a pump rotor engaging said pump tube, said pump rotor being drivable to rotate to move a pump fluid through said pump tube from a pump inlet to a pump outlet; and a motor for driving said pump rotor to rotate, said motor including a motor tube and a motor rotor to be driven to rotate by a motor fluid moving through said motor tube from a motor inlet to a motor outlet; and a container to receive urine from a toilet, wherein the peristaltic pump system comprises a pump for delivering the fluid into said container, the motor is for delivering the motor fluid into said container, the fluid is an acid, the motor fluid is pressurized water, and the pump includes the pump tube and the pump rotor. a peristaltic pump system comprising: a pump tube and a pump rotor engaging said pump tube, said pump rotor being drivable to rotate to move a pump fluid through said pump tube from a pump inlet to a pump outlet; and a motor for driving said pump rotor to rotate, said motor including a motor tube and a motor rotor to be driven to rotate by a motor fluid moving through said motor tube from a motor inlet to a motor outlet; and a pump tube and a pump rotor engaging said pump tube, said pump rotor being drivable to rotate to move a pump fluid through said pump tube from a pump inlet to a pump outlet; and a motor for driving said pump rotor to rotate, said motor including a motor tube and a motor rotor to be driven to rotate by a motor fluid moving through said motor tube from a motor inlet to a motor outlet; and a container to receive urine from a toilet, wherein the peristaltic pump system comprises a pump for delivering the fluid into said container, the motor is for delivering the motor fluid into said container, the fluid is an acid, the motor fluid is pressurized water, and the pump includes the pump tube and the pump rotor.
A brake comprising: a first brake lining configured to be frictionally engageable with a rail; a second brake lining configured to be frictionally engageable with the rail; a first biasing member configured to urge the first brake lining to engage the rail; a first actuator configured to move the first brake lining to disengage the rail when the first actuator is energized; a second biasing member configured to urge the second brake lining to engage the rail; a second actuator configured to move the second brake lining to disengage the rail when the second actuator is energized; and a mount upon which the first and second actuators (30, 32) are disposed, the mount having a first side wall and a second side wall; wherein the first actuator comprises a backing block and a first solenoid housed in the backing block, and the second actuator comprises a second backing block and a second solenoid housed in the backing block; and wherein each of the first and second biasing members comprises a permanent magnet; characterised in that the first and second biasing members are configured to generate a first flux path across the rail; the first actuator, when energized, is configured to at least partially redirect the first flux path into a second flux path that draws the first actuator toward the first side wall of the mount; and the second actuator, when energized, is configured to at least partially redirect the first flux path into a third flux path that draws the second actuator toward the second side wall of the mount. a first brake lining configured to be frictionally engageable with a rail; a second brake lining configured to be frictionally engageable with the rail; a first biasing member configured to urge the first brake lining to engage the rail; a first actuator configured to move the first brake lining to disengage the rail when the first actuator is energized; a second biasing member configured to urge the second brake lining to engage the rail; a second actuator configured to move the second brake lining to disengage the rail when the second actuator is energized; and a mount upon which the first and second actuators (30, 32) are disposed, the mount having a first side wall and a second side wall; wherein the first actuator comprises a backing block and a first solenoid housed in the backing block, and the second actuator comprises a second backing block and a second solenoid housed in the backing block; and wherein each of the first and second biasing members comprises a permanent magnet; characterised in that the first and second biasing members are configured to generate a first flux path across the rail; the first actuator, when energized, is configured to at least partially redirect the first flux path into a second flux path that draws the first actuator toward the first side wall of the mount; and the second actuator, when energized, is configured to at least partially redirect the first flux path into a third flux path that draws the second actuator toward the second side wall of the mount.
A method for producing a plant growth media, the method comprising: subjecting a wet microbial cellulose material to a homogenisation process, thereby producing a pulp suitable as a plant growth media, characterized in that the pulp comprises between 0.1 and 2.5 wt/wt% microbial cellulose and the particle size distribution of the pulp is such that the D90 which represents the size under which 90 % by volume of the particles is below 1500 μm and the D10 which represents the size under which 10 % by volume of the particles is at least 40 μm; and further wherein the particle size is measured by laser diffraction analysis or by a series of nested test sieves.
A method comprising: instructing a drone device to fly proximate to a potential surveillance area while in a learning mode; while in the learning mode: instructing a camera carried by the drone device to capture learning mode video or images of the potential surveillance area; receiving the learning mode video or images of the potential surveillance area from the camera or the drone device; and identifying learning mode privacy masking areas in the learning mode video or images; instructing the drone device to fly proximate to an active surveillance area while in a standard mode; while in the standard mode: instructing the camera carried by the drone device to capture standard mode video or images of the active surveillance area; receiving the standard mode video or images of the active surveillance area from the camera or the drone device; identifying standard mode privacy masking areas in the standard mode video or images, if any; and dynamically masking a portion of the standard mode video or images that contains any of the learning mode privacy masking areas or the standard mode privacy masking areas. instructing a drone device to fly proximate to a potential surveillance area while in a learning mode; while in the learning mode: instructing a camera carried by the drone device to capture learning mode video or images of the potential surveillance area; receiving the learning mode video or images of the potential surveillance area from the camera or the drone device; and identifying learning mode privacy masking areas in the learning mode video or images; instructing a camera carried by the drone device to capture learning mode video or images of the potential surveillance area; receiving the learning mode video or images of the potential surveillance area from the camera or the drone device; and identifying learning mode privacy masking areas in the learning mode video or images; instructing the drone device to fly proximate to an active surveillance area while in a standard mode; while in the standard mode: instructing the camera carried by the drone device to capture standard mode video or images of the active surveillance area; receiving the standard mode video or images of the active surveillance area from the camera or the drone device; identifying standard mode privacy masking areas in the standard mode video or images, if any; and dynamically masking a portion of the standard mode video or images that contains any of the learning mode privacy masking areas or the standard mode privacy masking areas. instructing the camera carried by the drone device to capture standard mode video or images of the active surveillance area; receiving the standard mode video or images of the active surveillance area from the camera or the drone device; identifying standard mode privacy masking areas in the standard mode video or images, if any; and dynamically masking a portion of the standard mode video or images that contains any of the learning mode privacy masking areas or the standard mode privacy masking areas.
Fuel tank made of thermoplastic material with at least one sheet-like stiffening element which is connected to the tank wall, consists of material that has a higher modulus of elasticity than the base material of the fuel tank and which is connected to the fuel tank with interlocking engagement on the outer side thereof, the stiffening element consisting of a fiber composite material, characterized in that the stiffening element comprises a fiber material in a thermosetting polymer matrix in the form of a pre-preg fiber panel.
A method comprising: interleaving sequential data in time and frequency domains, wherein: the sequential data comprises a first data occupying a first time-frequency resource and a second data occupying a second time-frequency resource; the second data sequentially follows the first data prior to interleaving; the first data is separated from the second data by at least one time resource and at least one frequency resource after interleaving; the sequential data is interleaved into a time frequency matrix by mapping the sequential data into a first predetermined number of rows and columns in a diagonal manner such that two adjacent elements on a diagonal carry sequential data, and two adjacent elements on a diagonal are separated by one time resource and one frequency resource. the sequential data comprises a first data occupying a first time-frequency resource and a second data occupying a second time-frequency resource; the second data sequentially follows the first data prior to interleaving; the first data is separated from the second data by at least one time resource and at least one frequency resource after interleaving; the sequential data is interleaved into a time frequency matrix by mapping the sequential data into a first predetermined number of rows and columns in a diagonal manner such that two adjacent elements on a diagonal carry sequential data, and two adjacent elements on a diagonal are separated by one time resource and one frequency resource.