mhurhangee/ep-ind-claims huggingface dataset:
A smartcard, comprising - a processor in a security portion of the smartcard; - a read/write device interface designed for a communication between the processor and at least one external read/write device; and - at least one user input and/or output unit at least for receiving user commands and designed for initiating a communication between a user and the processor, - characterized in that the communication between a user and the processor is via the read/write device interface, and in that the communication protocol for communication between the processor and the read/write device is the same as the communication protocol for communication between the user input and/or output unit and the processor. - a processor in a security portion of the smartcard; - a read/write device interface designed for a communication between the processor and at least one external read/write device; and - at least one user input and/or output unit at least for receiving user commands and designed for initiating a communication between a user and the processor, - characterized in that the communication between a user and the processor is via the read/write device interface, and in that the communication protocol for communication between the processor and the read/write device is the same as the communication protocol for communication between the user input and/or output unit and the processor.
A glazing for minimising or preventing bird collisions with windows or other glazings, the glazing comprising at least one substrate, an antireflection coating, and a UV reflectance coating, the antireflection coating being between the UV reflectance coating and the substrate, characterised in that the UV reflectance coating is provided in a patterned arrangement comprising a plurality of separate elements, each element being spaced apart from a neighbouring element, wherein the or each said UV reflectance coating comprises titanium dioxide having a geometric thickness of between substantially 10-50nm thick and wherein the UV reflectance coating covers at least 20% of the subjacent surface. wherein the or each said UV reflectance coating comprises titanium dioxide having a geometric thickness of between substantially 10-50nm thick and wherein the UV reflectance coating covers at least 20% of the subjacent surface.
A liquid crystal on silicon spatial light modulator comprising: an array of light-modulating pixels each comprising liquid crystal, wherein each light-modulating pixel is associated with a respective flip-flop; a silicon backplane in which the flip-flops are embedded; a controller arranged to: receive a digital representation of a hologram of an image, wherein the hologram comprises a plurality of hologram pixels each comprising a respective n -bit hologram pixel value; and supply the n-bit hologram pixel value to flip-flops of a contiguous group of n light-modulating pixels, to drive each light-modulating pixel of the contiguous group of n light-modulating pixels with the hologram pixel value such that there is a one-to-n correlation between a hologram pixel and the number of light-modulating pixels in a contiguous group of n light-modulating pixels on which it is displayed, wherein the flip-flops associated with the light-modulating pixels in each contiguous group of n light-modulating pixels are connected in series to form a shift register, wherein the output of the last flip-flop in the series is connected to the input of the first flip-flop of the series such that, during operation of the shift register, each bit of the n -bit hologram pixel value is provided to each light-modulating pixel of the contiguous group one bit at a time in a cycle of n clock periods, wherein n comprises a whole number, greater than 1. an array of light-modulating pixels each comprising liquid crystal, wherein each light-modulating pixel is associated with a respective flip-flop; a silicon backplane in which the flip-flops are embedded; a controller arranged to: receive a digital representation of a hologram of an image, wherein the hologram comprises a plurality of hologram pixels each comprising a respective n -bit hologram pixel value; and supply the n-bit hologram pixel value to flip-flops of a contiguous group of n light-modulating pixels, to drive each light-modulating pixel of the contiguous group of n light-modulating pixels with the hologram pixel value such that there is a one-to-n correlation between a hologram pixel and the number of light-modulating pixels in a contiguous group of n light-modulating pixels on which it is displayed, wherein the flip-flops associated with the light-modulating pixels in each contiguous group of n light-modulating pixels are connected in series to form a shift register, wherein the output of the last flip-flop in the series is connected to the input of the first flip-flop of the series such that, during operation of the shift register, each bit of the n -bit hologram pixel value is provided to each light-modulating pixel of the contiguous group one bit at a time in a cycle of n clock periods, wherein n comprises a whole number, greater than 1.
A medical tracking system comprising a reference object and at least two sensor devices (1, 2) which are independently maneuverable and can be positioned in a fixed position relative to targets (10, 13, 15), characterized in that each sensor device (1, 2) comprises at least one camera (6, 7) for imaging the reference object, a control unit for calculating the position of the reference object relative to the sensor device (1, 2) and a transceiver for transmitting the relative position to another sensor device (1, 2), at least one of the control units being configured to receive and combine the at least two sensor data of the at least two sensor devices (1, 2) in order to determine a relative position between at least two of the at least two sensor devices (1, 2).
A bale forming control system comprising: - a bale chamber configured to form a bale from crop material by rotating the bale in the bale chamber; - a drive mechanism configured to cause the bale to be rotated in the bale chamber; - a bale density pressure mechanism configured to apply an amount of density pressure to the rotating bale; - at least one sensor configured to sense at least one operating condition when the bale is forming; and - a controller configured to: (i) receive at least one operating condition value corresponding to the at least one sensed operating condition and control formation of the bale; (ii) automatically determine the amount of bale density pressure applied to the bale responsive to receiving the at least one received operating condition value; and (iii) cause the determined amount of bale density pressure to be applied to the bale characterized in that the controller is further configured to (i) automatically determine a PTO speed of the driving mechanism responsive to receiving the at least one received operating condition value; and (ii) cause the determined PTO speed to be applied to the driving mechanism. - a bale chamber configured to form a bale from crop material by rotating the bale in the bale chamber; - a drive mechanism configured to cause the bale to be rotated in the bale chamber; - a bale density pressure mechanism configured to apply an amount of density pressure to the rotating bale; - at least one sensor configured to sense at least one operating condition when the bale is forming; and - a controller configured to: (i) receive at least one operating condition value corresponding to the at least one sensed operating condition and control formation of the bale; (ii) automatically determine the amount of bale density pressure applied to the bale responsive to receiving the at least one received operating condition value; and (iii) cause the determined amount of bale density pressure to be applied to the bale
An internal combustion engine comprising a piston arrangement (5a, 5b, 5c, 5d) including a piston coupled to a track; wherein the track is coupled to a shaft and has a cam surface (12a, 12b, 13a, 13b), and the piston has a follower which runs on the cam surface (12a, 12b, 13a, 13b) of the track to control motion of the piston; the engine further comprising a casing including first and second casing elements (4a, 4b), wherein the first casing element meets the second casing element at an interface and the first piston moves in reciprocating motion within a bore which passes through the interface between the first and second casing elements (4a, 4b), wherein the piston is a first piston, the bore is a first bore, and the track is a first track; and characterised in that the engine further comprises a second piston arrangement (5a, 5b, 5c, 5d) including a second piston coupled to a second track; wherein the second track is coupled to the shaft and has a cam surface (12a, 12b, 13a, 13b), and the second piston has a follower which runs on the cam surface (12a, 12b, 13a, 13b) of the second track to control motion of the second piston; the casing further including a third casing element, wherein the second casing element meets the third casing element at an interface and the second piston moves in reciprocating motion within a second bore which passes through the interface between the second and third casing elements (4b, 4c).
A nonaqueous electrolyte energy storage device comprising: a positive electrode having a positive composite layer including a positive active material; a negative electrode having a negative composite layer including a negative active material; and a nonaqueous electrolyte including a nonaqueous solvent, wherein the positive active material includes a lithium-transition metal composite oxide that contains nickel as a transition metal and has a layered α-NaFeO 2 -type crystal structure, the negative active material contains non-graphitic carbon, a ratio (N/P) between mass per unit area of the negative active material in the negative composite layer and mass per unit area of the positive active material in the positive composite layer is 0.30 or more and 0.45 or less, the nonaqueous solvent contains a propylene carbonate, a diethyl carbonate, and an ethyl methyl carbonate, a content of the propylene carbonate in the nonaqueous solvent is 25% by volume or more and 55% by volume or less, a total content of the diethyl carbonate and the ethyl methyl carbonate in the nonaqueous solvent is 45% by volume or more and 75% by volume or less, and a content of the diethyl carbonate is equal to or higher than the content of the ethyl methyl carbonate. a positive electrode having a positive composite layer including a positive active material; a negative electrode having a negative composite layer including a negative active material; and a nonaqueous electrolyte including a nonaqueous solvent, wherein the positive active material includes a lithium-transition metal composite oxide that contains nickel as a transition metal and has a layered α-NaFeO 2 -type crystal structure, the negative active material contains non-graphitic carbon, a ratio (N/P) between mass per unit area of the negative active material in the negative composite layer and mass per unit area of the positive active material in the positive composite layer is 0.30 or more and 0.45 or less, the nonaqueous solvent contains a propylene carbonate, a diethyl carbonate, and an ethyl methyl carbonate, a content of the propylene carbonate in the nonaqueous solvent is 25% by volume or more and 55% by volume or less, a total content of the diethyl carbonate and the ethyl methyl carbonate in the nonaqueous solvent is 45% by volume or more and 75% by volume or less, and a content of the diethyl carbonate is equal to or higher than the content of the ethyl methyl carbonate.
A method for transmitting data to a mobile station implemented by a control unit for use in a wireless network comprising a primary, high-power, transmitting node having a first coverage area and a plurality of secondary, low-power, transmitting nodes, each having a coverage area that is within the first coverage area, the method comprising configuring said primary transmitting node to transmit CRS signals over the first coverage area, and configuring two or more of said plurality of secondary transmitting nodes to transmit the same CRS signals as transmitted from said primary node; characterized in that the method further comprises configuring the primary transmitting node and only a subset of the two or more secondary transmitting nodes transmitting said CRS signals to simultaneously transmit data to a first mobile station on a physical downlink shared channel for which the mobile station relies on CRS for demodulation.
A compound of the general Formula I: wherein: ---- denotes a single or double bond; and (i) R 1, R 2, R 3, R 4, R 5 are independently selected from H, OH or a group according to Formula (Ia): -O-L-D-E (Ia) wherein: O is oxygen; L and D are absent and E is an ester according to the Formula (Ic): wherein Q is an unsubstituted linear or branched chain alkylene of 1 to 6 carbon atoms; W is O; and X is H, substituted or unsubstituted alkyl, a mono- cationic salt, or an ammonium cationic salt; and provided that at least one of R 1, R 2, R 3, R 4, R 5 is other than H or OH; or its pharmaceutically acceptable salt. ---- denotes a single or double bond; and (i) R 1, R 2, R 3, R 4, R 5 are independently selected from H, OH or a group according to Formula (Ia): -O-L-D-E (Ia) wherein: O is oxygen; L and D are absent and E is an ester according to the Formula (Ic): wherein Q is an unsubstituted linear or branched chain alkylene of 1 to 6 carbon atoms; W is O; and X is H, substituted or unsubstituted alkyl, a mono- cationic salt, or an ammonium cationic salt; and O is oxygen; L and D are absent and E is an ester according to the Formula (Ic): wherein Q is an unsubstituted linear or branched chain alkylene of 1 to 6 carbon atoms; W is O; and X is H, substituted or unsubstituted alkyl, a mono- cationic salt, or an ammonium cationic salt; and provided that at least one of R 1, R 2, R 3, R 4, R 5 is other than H or OH;
A composition comprising: a first phase comprising a first polymer and a population of quantum dots dispersed in the first polymer, wherein the first polymer is an acrylate and a second phase, comprising a second polymer, wherein the second polymer is an epoxy wherein the first and second phases are phase-separated such that domains of the first phase are surrounded by domains of the second phase, and the refractive index of the first polymer and the refractive index of the second polymer differ by less than 5 %. a first phase comprising a first polymer and a population of quantum dots dispersed in the first polymer, wherein the first polymer is an acrylate and a second phase, comprising a second polymer, wherein the second polymer is an epoxy wherein the first and second phases are phase-separated such that domains of the first phase are surrounded by domains of the second phase, and the refractive index of the first polymer and the refractive index of the second polymer differ by less than 5 %.
A micro-carrier suitable for delivering a drug to a live biological system, comprising (a) a micro-container containing the drug to be delivered; and (b) a sensor that is integrated to the micro-carrier and capable of scanning a general area in the live biological system detecting at least one property of the general area at the microscopic level, collecting data thereof which is then processed by the micro-carrier to determine a targeted site for selectively attaching the micro-carrier to the targeted site for drug release; or a material that is capable of absorbing or adsorbing the micro-carrier to the surface of a targeted site for drug release; and (c) an injector attached to the micro-container for delivering the drug from the micro-container to the targeted site. (a) a micro-container containing the drug to be delivered; and (b) a sensor that is integrated to the micro-carrier and capable of scanning a general area in the live biological system detecting at least one property of the general area at the microscopic level, collecting data thereof which is then processed by the micro-carrier to determine a targeted site for selectively attaching the micro-carrier to the targeted site for drug release; or a material that is capable of absorbing or adsorbing the micro-carrier to the surface of a targeted site for drug release; and (c) an injector attached to the micro-container for delivering the drug from the micro-container to the targeted site.
A door lock, which comprises a lock body, a bolt, a follower, a driver (5A, 5B) on both sides of the follower, and a latch solution to connect at least one of the drivers (5A, 5B) in force transmission connection and out of force transmission connection with the follower, characterized in that the door lock further comprises a baffle plate (7, 7A) between the follower and the driver (5A, 5B) at least on one side of the follower, which baffle plate (7, 7A) comprises at least one support surface (8A, 8B, 8C), which is set against the lock body or against a part which is connected to the lock body in a fixed manner, which baffle plate unturnable in relation to the lock body.
An electrically rechargeable electrochemical energy storage device characterized in that it comprises an electrolyte composition wherein the electrolyte composition comprises a microemulsion, and wherein the microemulsion comprises an aqueous phase and a water-immiscible phase.
A hydrocyclone separator for classifying solid material in liquid suspension, comprising: a head portion having an inlet conduit adapted to feed a suspension into the head portion; an overflow discharge tube arranged in the head portion; an apex discharge port; a tapered separation portion arranged between the head portion and the apex discharge port, the tapered separation portion having a proximal end and a distal end, and wherein said tapered separation portion tapers towards said distal end; characterized in that it comprises a flow support portion provided at the tapered separation portion or between the tapered separation portion and the apex discharge port, said flow support portion comprising at least one flow support inlet configured to inject a fluid along at least a portion of an inner surface of the flow support portion in a direction at least partly towards the apex discharge port, wherein said hydrocyclone separator is configured to be oriented such that said apex discharge port is at a vertically elevated position relative to the overflow discharge tube. a head portion having an inlet conduit adapted to feed a suspension into the head portion; an overflow discharge tube arranged in the head portion; an apex discharge port; a tapered separation portion arranged between the head portion and the apex discharge port, the tapered separation portion having a proximal end and a distal end, and wherein said tapered separation portion tapers towards said distal end; characterized in that it comprises a flow support portion provided at the tapered separation portion or between the tapered separation portion and the apex discharge port, said flow support portion comprising at least one flow support inlet configured to inject a fluid along at least a portion of an inner surface of the flow support portion in a direction at least partly towards the apex discharge port, wherein said hydrocyclone separator is configured to be oriented such that said apex discharge port is at a vertically elevated position relative to the overflow discharge tube.
A composition for generating oxygen, comprising at least one oxygen source selected from alkali metal chlorates, alkali metal perchlorates, alkaline earth metals chlorates, alkaline earth metal perchlorates and mixtures thereof, characterized in that the composition further comprises at least one phyllosilicate compound, the phyllosilicate compound having at least one transition metal ion intercalated between phyllosilicate sheets.
A clinching apparatus comprising a clinching punch including a substantially cylindrical side surface and a substantially flat clinch joint-forming distal end, a frusto-conically tapered surface located between the side surface and the distal end, characterised in that the tapered surface has an angle of 20-35 degrees relative to the distal end.
A wearable steam cleaning accessory for use with a steam generator and wearable on a user's hand comprising: an adaptor for coupling to the steam generator; at least one steam conduit in fluid communication between the adaptor and at least one steam outlet; a flexible cleaning element for engaging with a surface, wherein the cleaning element is steam permeable; at least one flexible thermal insulation layer (30,50) wherein the at least one steam conduit is mounted between the at least one flexible thermal insulation layer and the flexible cleaning element; and a flexible restraint mounted on the flexible thermal insulation layer (30,50) and the flexible restraint is arranged to receive the user's hand. an adaptor for coupling to the steam generator; at least one steam conduit in fluid communication between the adaptor and at least one steam outlet; a flexible cleaning element for engaging with a surface, wherein the cleaning element is steam permeable; at least one flexible thermal insulation layer (30,50) wherein the at least one steam conduit is mounted between the at least one flexible thermal insulation layer and the flexible cleaning element; and a flexible restraint mounted on the flexible thermal insulation layer (30,50) and the flexible restraint is arranged to receive the user's hand.
A system comprising at least one processor programmed to: identify, based on a policy to be enforced during execution of object code of one or more programs and the policy is to be evaluated to determine if an instruction of the object code is allowed, one or more metadata symbols corresponding to an entity name; identify, from a target description describing a target system, an entity description matching the entity name, wherein the entity description describes an entity of the target system to which the object code corresponds; apply a metadata label to the entity of the target system, by annotating at least one portion of the object code with a binary representation of the metadata label, which comprises annotating one or more instructions identified from the object code with the binary representation of the metadata label, wherein the entity represents a component of the target system, wherein the metadata label is based on the one or more metadata symbols corresponding to the entity name, as identified based on the policy; and check the metadata associated with the instruction to determine if the instruction should be allowed. identify, based on a policy to be enforced during execution of object code of one or more programs and the policy is to be evaluated to determine if an instruction of the object code is allowed, one or more metadata symbols corresponding to an entity name; identify, from a target description describing a target system, an entity description matching the entity name, wherein the entity description describes an entity of the target system to which the object code corresponds; apply a metadata label to the entity of the target system, by annotating at least one portion of the object code with a binary representation of the metadata label, which comprises annotating one or more instructions identified from the object code with the binary representation of the metadata label, wherein the entity represents a component of the target system, wherein the metadata label is based on the one or more metadata symbols corresponding to the entity name, as identified based on the policy; and check the metadata associated with the instruction to determine if the instruction should be allowed.