mhurhangee/ep-ind-claims huggingface dataset:
A method of inspecting a silicone hydrogel ophthalmic lens housed in a container with packaging solution that is moving through a manufacturing line comprising: (a) illuminating the ophthalmic lens with radiation comprising one or more members of the group consisting of visible, ultraviolet, or infrared radiation to create a first image; (b) transferring the first image to an intermediate storage area; (c) illuminating the ophthalmic lens with radiation comprising one or more members of the group consisting of visible, ultraviolet, or infrared radiation to generate a second image, provided that the illuminating radiation of step (c) is different from the illuminating radiation of step (a) wherein said illuminating of step (c) is conducted in a substantially short period of time after the illuminating of step (a); (d) transferring the first image from the intermediate storage area to an image capturing device; (e) transferring the second image to the intermediate storage area; (f) transferring the second image to the image capturing device; and (g) comparing the first image to the second image when viewed from the image capturing device to determine if the ophthalmic lens contains defects. (a) illuminating the ophthalmic lens with radiation comprising one or more members of the group consisting of visible, ultraviolet, or infrared radiation to create a first image; (b) transferring the first image to an intermediate storage area; (c) illuminating the ophthalmic lens with radiation comprising one or more members of the group consisting of visible, ultraviolet, or infrared radiation to generate a second image, provided that the illuminating radiation of step (c) is different from the illuminating radiation of step (a) wherein said illuminating of step (c) is conducted in a substantially short period of time after the illuminating of step (a); (d) transferring the first image from the intermediate storage area to an image capturing device; (e) transferring the second image to the intermediate storage area; (f) transferring the second image to the image capturing device; and (g) comparing the first image to the second image when viewed from the image capturing device to determine if the ophthalmic lens contains defects.
A method to check for redundancy in two or more data lines of two cores of a multicore System on Chip (SoC), the two cores operating in lockstep and including a master core and a slave core, the method comprising: receiving data on a first data line of the two cores; computing a first cyclic redundancy check value on the data of the first data line; performing an exclusive OR function on the first CRC value with a stored memory value; and updating the stored memory value with a result of the XOR function; wherein said receiving, computing, performing, and updating is performed on additional data lines of the two cores until a last line is processed such that an error is indicated if a final stored memory value is not zero, wherein the two or more data lines comprise cache lines including a master cache line of the master core and a slave cache line of the slave core. receiving data on a first data line of the two cores; computing a first cyclic redundancy check value on the data of the first data line; performing an exclusive OR function on the first CRC value with a stored memory value; and updating the stored memory value with a result of the XOR function; wherein said receiving, computing, performing, and updating is performed on additional data lines of the two cores until a last line is processed such that an error is indicated if a final stored memory value is not zero, wherein the two or more data lines comprise cache lines including a master cache line of the master core and a slave cache line of the slave core.
A communication method, comprising: receiving a discovery reference signal from a network device, wherein the discovery reference signal comprises one or more first signals, and the discovery reference signal further comprises one or more second signals; and the first signal comprises at least a common signal block or a channel state information-reference signal, CSI-RS, the method characterized in that the first signal carries configuration information of the second signal; and the configuration information is used to indicate at least whether the discovery reference signal comprises the second signal, or the configuration information is used to indicate at least a type of the second signal comprised in the discovery reference signal. receiving a discovery reference signal from a network device, wherein the discovery reference signal comprises one or more first signals, and the discovery reference signal further comprises one or more second signals; and the first signal comprises at least a common signal block or a channel state information-reference signal, CSI-RS, the method characterized in that the first signal carries configuration information of the second signal; and the configuration information is used to indicate at least whether the discovery reference signal comprises the second signal, or the configuration information is used to indicate at least a type of the second signal comprised in the discovery reference signal.
A support device for stentless heart valve prostheses including: - a shaft defining a manipulation axis (X1, X1'), - a plurality of support formations for a stentless valve prosthesis, and - a connection portion (6; 6') flexibly connecting the shaft and the support formations to permit a displacement of the manipulation axis (X1, X1') with respect to the support formations, wherein the shaft, the plurality of support formations and the connection portion (6; 6') are formed in a single piece from a tubular element, the support device being characterized in that said connection portion consist of a helical track cut in said tubular element. - a shaft defining a manipulation axis (X1, X1'), - a plurality of support formations for a stentless valve prosthesis, and - a connection portion (6; 6') flexibly connecting the shaft and the support formations to permit a displacement of the manipulation axis (X1, X1') with respect to the support formations,
A charging prompt method for a first end device of a wireless charging system, wherein the wireless charging system comprises the first end device and a second end device, the first end device is one of a receiving-end device and a transmitting-end device, the second end device is the other of the receiving-end device and the transmitting-end device, the first end device comprises a first coil configured to transfer electric energy and a plurality of direction detecting coils around the first coil, the second end device comprises a second coil configured to transfer the electric energy, and the method comprises: detecting whether a position offset exists between the second coil and the first coil; obtaining a target offset distance between the second coil and the first coil and detecting a target offset direction of the second coil relative to the first coil by using the plurality of direction detecting coils in response to detecting that the position offset exists between the second coil and the first coil; and outputting position-movement prompting information according to the target offset direction and the target offset distance, and the position-movement prompting information being configured to prompt a user to move the second end device or the first end device based on the target offset distance and the target offset direction. detecting whether a position offset exists between the second coil and the first coil; obtaining a target offset distance between the second coil and the first coil and detecting a target offset direction of the second coil relative to the first coil by using the plurality of direction detecting coils in response to detecting that the position offset exists between the second coil and the first coil; and outputting position-movement prompting information according to the target offset direction and the target offset distance, and the position-movement prompting information being configured to prompt a user to move the second end device or the first end device based on the target offset distance and the target offset direction.
A method for managing a customer edge, CE, device automatically, which is applicable to a scenario that a service provider network is connected with the CE device through a third-party operator network, wherein the CE device is connected to a remote user network interface, RUNI, in the third-party operator network, and said RUNI is correlated with a Ethernet virtual connection, EVC, and the EVC comprises said RUNI and one virtual user network interface, VUNI, in the service provider network and one or more other RUNIs in the third-party operator network, wherein each RUNI in the third-party operator network is connected to a CE device, the method comprising: sending, by the VUNI managing the RUNIs correlated with the EVC, an Ethernet-local management interface, E-LMI packet, to each of the remote user network interfaces, RUNIs, in the third-party operator network correlated with the EVC, wherein a destination media access control, DMAC, address field of the E-LMI packet is set by the VUNI to a unicast media access control, MAC, address of each RUNI, receiving, by each RUNI in the third-party operator network correlated with the EVC, the E-LMI packet sent by the VUNI, and converting, by each RUNI, the unicast MAC address in the DMAC address field of the E-LMI packet into a multicast MAC address, wherein the multicast MAC address corresponds to a DMAC address contained in the DMAC address field of the E-LMI packet before the setting by the VUNI and the multicast MAC address is associated with all RUNIs that are correlated with the EVC and managed by the VUNI; and sending, by each RUNI, the converted E-LMI packet to the CE device that is connected with the RUNI in the third-party operator network. sending, by the VUNI managing the RUNIs correlated with the EVC, an Ethernet-local management interface, E-LMI packet, to each of the remote user network interfaces, RUNIs, in the third-party operator network correlated with the EVC, wherein a destination media access control, DMAC, address field of the E-LMI packet is set by the VUNI to a unicast media access control, MAC, address of each RUNI, receiving, by each RUNI in the third-party operator network correlated with the EVC, the E-LMI packet sent by the VUNI, and converting, by each RUNI, the unicast MAC address in the DMAC address field of the E-LMI packet into a multicast MAC address, wherein the multicast MAC address corresponds to a DMAC address contained in the DMAC address field of the E-LMI packet before the setting by the VUNI and the multicast MAC address is associated with all RUNIs that are correlated with the EVC and managed by the VUNI; and sending, by each RUNI, the converted E-LMI packet to the CE device that is connected with the RUNI in the third-party operator network.
A sintering method for improving the oxidation resistance of nitride-bonded silicon carbide material is characterized in that: introducing pure O 2 or mixed gas containing pure O 2 and H 2 O into a furnace with nitride bonded silicon carbide materials inside it after nitriding and sintering the nitride bonded silicon carbide materials, in order to carry out protective oxidation through "wet oxygen-dry oxygen" process, using a flowmeter to control the flow rate of pure O 2 or mixed gas and the ratio of the mixed gas, and at the same time, observing the height difference of the water column in the U-shaped tube to ensure that the furnace is under a positive pressure, wherein the sintering method comprising following steps: after nitriding and sintering the nitride bonded silicon carbide materials, introducing mixed gas containing pure O 2 and H 2 O at temperature of 1100°C~1400°C, and keeping the temperature for 1-15 hours to carry out "wet oxygen" protective oxidation, then introducing pure O 2, and keeping the temperature for 1-10 hours to carry out "dry oxygen" protective oxidation, wherein the pure O 2 is dry oxygen gas with oxygen content ≥ 99%, the mixed gas contains 2-98% by volume of pure O 2 and 98-2% by volume of H 2 O (in gas), the pressure range of the positive pressure is 10∼30 mm water column.
Method for operating an electrical circuit, wherein the circuit comprises a converter (12, 15a, 15b) with a plurality of activatable semiconductor switches (21a, 21b, 21c, 21d) and at least two alternating current voltage phases (u, v, w), wherein an internal arc fault is detected and thereupon one or more of the semiconductor switches (21a, 21b) of the converter (12, 15a, 15b) are activated, characterised in that one or more of the semiconductor switches (21a, 21b) are activated such that the AC voltage phases (u, v, w) of the converter (12, 15a, 15b) are short-circuited.
A proxy device, comprising: a processor circuit; a memory coupled to the processor circuit; and a network interface coupled to the processor circuit; wherein the processor circuit is configured to function as a proxy for network communications to and from an internet of things, IoT, device that is located within a same home network as the proxy device; wherein the processor circuit is configured to determine that the loT device is in sleep mode in which the loT device is unable to send or receive network communications; wherein the processor circuit is configured, in response to determining that the loT device is in sleep mode, to store network communications received from a remote server on behalf of the loT device until determining that the loT device has entered active mode in which the loT device is able to send and receive network communications; wherein the processor circuit is configured to send the stored network communications to the loT device in response to determining that the loT device has switched to active mode from sleep mode; wherein the processor circuit is configured to send keep-alive messages to the remote server based on determining that the loT device is in sleep mode; and characterized in that the processor circuit is configured to determine whether the loT device is in the sleep mode based on a periodicity of transitions of the loT device from active mode to the sleep mode learnt by monitoring signaling from the loT device, wherein said monitoring signaling from the loT device comprises monitoring non-control message traffic generated by the loT device. a processor circuit; a memory coupled to the processor circuit; and a network interface coupled to the processor circuit; wherein the processor circuit is configured to function as a proxy for network communications to and from an internet of things, IoT, device that is located within a same home network as the proxy device; wherein the processor circuit is configured to determine that the loT device is in sleep mode in which the loT device is unable to send or receive network communications; wherein the processor circuit is configured, in response to determining that the loT device is in sleep mode, to store network communications received from a remote server on behalf of the loT device until determining that the loT device has entered active mode in which the loT device is able to send and receive network communications; wherein the processor circuit is configured to send the stored network communications to the loT device in response to determining that the loT device has switched to active mode from sleep mode; wherein the processor circuit is configured to send keep-alive messages to the remote server based on determining that the loT device is in sleep mode; and characterized in that the processor circuit is configured to determine whether the loT device is in the sleep mode based on a periodicity of transitions of the loT device from active mode to the sleep mode learnt by monitoring signaling from the loT device, wherein said monitoring signaling from the loT device comprises monitoring non-control message traffic generated by the loT device.
An apparatus for automatic item searching and verification, the apparatus comprising at least one processor and at least one non-transitory memory including computer-coded instructions thereon, the computer coded instructions, with the at least one processor, configure the apparatus to: retrieve a target item data set associated with item distribution route data; receive a captured image comprising an item representation set and an item information representation set associated with the item representation set, wherein each item representation of the item representation set is associated with an item position in an augmented reality environment; identify, from an item information representation of the item information representation set, a scanned item data object corresponding to the item information representation; determine that the scanned item data object comprises a relevant item data object based on at least the target item data set, wherein the determining that the scanned item data object comprises a relevant item data object comprises determining that the scanned item data object corresponds to an item data object in the target item data set; generate a color coded augmented reality element corresponding to the relevant item data object that visually distinguishes the relevant item data object; and cause rendering, to a user interface, of the captured image augmented based on at least the color coded augmented reality element, wherein the color coded augmented reality element is rendered based on at least a first item position associated with an item representation corresponding to the color coded augmented reality element. retrieve a target item data set associated with item distribution route data; receive a captured image comprising an item representation set and an item information representation set associated with the item representation set, wherein each item representation of the item representation set is associated with an item position in an augmented reality environment; identify, from an item information representation of the item information representation set, a scanned item data object corresponding to the item information representation; determine that the scanned item data object comprises a relevant item data object based on at least the target item data set, wherein the determining that the scanned item data object comprises a relevant item data object comprises determining that the scanned item data object corresponds to an item data object in the target item data set; generate a color coded augmented reality element corresponding to the relevant item data object that visually distinguishes the relevant item data object; and cause rendering, to a user interface, of the captured image augmented based on at least the color coded augmented reality element, wherein the color coded augmented reality element is rendered based on at least a first item position associated with an item representation corresponding to the color coded augmented reality element.
A rear-view mirror assembly for motor vehicles, the assembly comprising: - a half-mirror and a display which are attached to a mirror housing, and a driving plate that is pivotally coupled to the mirror housing and adapted for attachment to an interior of the motor vehicle; - an actuator switch lever pivotally attached to the driving plate for moving the mirror housing between two different angular end positions (125, 126) corresponding to the end stroke of the actuator switch lever, between which end angular positions (125, 126) the mirror housing can be positioned causing the display to be switched on or off depending on a given mirror housing angular positions and causing the half-mirror 120 to be displaced from a first mirror housing angular end position to a second mirror housing angular end position through a determined angle (a); characterized in that it further comprises an adjustable positioning mechanism for adjusting at least one of said mirror housing angular end positions (125, 126), the adjustable positioning mechanism being adapted to adjust the determined angle (α). - a half-mirror and a display which are attached to a mirror housing, and a driving plate that is pivotally coupled to the mirror housing and adapted for attachment to an interior of the motor vehicle; - an actuator switch lever pivotally attached to the driving plate for moving the mirror housing between two different angular end positions (125, 126) corresponding to the end stroke of the actuator switch lever, between which end angular positions (125, 126) the mirror housing can be positioned causing the display to be switched on or off depending on a given mirror housing angular positions and causing the half-mirror 120 to be displaced from a first mirror housing angular end position to a second mirror housing angular end position through a determined angle (a); characterized in that it further comprises an adjustable positioning mechanism for adjusting at least one of said mirror housing angular end positions (125, 126), the adjustable positioning mechanism being adapted to adjust the determined angle (α).
A fluorescence light emitting element comprising: a phosphor layer that includes phosphors and a binder made of an inorganic material, wherein a thermal conductivity B of the binder is larger than 1.88 times a thermal conductivity A of the phosphors, a relationship of X/Y>1/2 is satisfied, wherein X denotes the volume of the phosphors included in the phosphor layer, and Y denotes the volume of the binder included in the phosphor layer, and a relationship of α≥2.4736×(B/A) -1.432 ×100 is satisfied, wherein α [vol%] denotes the volume concentration of the phosphors included in the phosphor layer. a phosphor layer that includes phosphors and a binder made of an inorganic material, wherein a thermal conductivity B of the binder is larger than 1.88 times a thermal conductivity A of the phosphors, a relationship of X/Y>1/2 is satisfied, wherein X denotes the volume of the phosphors included in the phosphor layer, and Y denotes the volume of the binder included in the phosphor layer, and a relationship of α≥2.4736×(B/A) -1.432 ×100 is satisfied, wherein α [vol%] denotes the volume concentration of the phosphors included in the phosphor layer.
An apparatus for promoting a mass transfer reaction, comprising: a flow distributor having a top end surface, a bottom end surface and a peripheral surface spanning between the top end surface and the bottom end surface, wherein the top end surface, the bottom end surface and the peripheral surface are axisymmetric with respect to a rotation axis (Ri), wherein the flow distributor is configured to submerge in a fluid medium and to generate a flow of the fluid medium through at least one of the top end surface and the bottom end surface, and through the peripheral surface by rotating around the rotation axis (Ri); and a drive unit configured to move the flow distributor perpendicular to the rotation axis (Ri). a flow distributor having a top end surface, a bottom end surface and a peripheral surface spanning between the top end surface and the bottom end surface, wherein the top end surface, the bottom end surface and the peripheral surface are axisymmetric with respect to a rotation axis (Ri), wherein the flow distributor is configured to submerge in a fluid medium and to generate a flow of the fluid medium through at least one of the top end surface and the bottom end surface, and through the peripheral surface by rotating around the rotation axis (Ri); and a drive unit configured to move the flow distributor perpendicular to the rotation axis (Ri).