mhurhangee/ep-ind-claims huggingface dataset:
An excitation light irradiation device comprising: an optical system including a light source configured to emit excitation light; and a substrate having a color center, the color center being configured to be excited by the excitation light incident to the substrate, the substrate including: first and second reflection surfaces (11, 12) facing each other; and first and second end surfaces (13, 14) facing each other, wherein, when the excitation light enters into the substrate, the excitation light irradiation device is configured so that the incident excitation light travels from a first area near the first end surface to a second area near the second end surface while repeatedly reflecting between the first and second reflection surfaces (11, 12), characterized in that, the second end surface is inclined to reflect the incident excitation light so as to cause the incident excitation light to be emitted from one of the first and second reflection surfaces (11, 12). an optical system including a light source configured to emit excitation light; and a substrate having a color center, the color center being configured to be excited by the excitation light incident to the substrate, the substrate including: first and second reflection surfaces (11, 12) facing each other; and first and second end surfaces (13, 14) facing each other, first and second reflection surfaces (11, 12) facing each other; and first and second end surfaces (13, 14) facing each other, wherein, when the excitation light enters into the substrate, the excitation light irradiation device is configured so that the incident excitation light travels from a first area near the first end surface to a second area near the second end surface while repeatedly reflecting between the first and second reflection surfaces (11, 12), characterized in that, the second end surface is inclined to reflect the incident excitation light so as to cause the incident excitation light to be emitted from one of the first and second reflection surfaces (11, 12).
A method of formulating or concentrating a radiolabeled molecule or compound comprising: providing a microfluidic device having a sample layer containing a microfluidic channel formed therein, a porous membrane having a pore size of less than 0.5 μm disposed on the sample layer and covering the microfluidic channel, and a gas flow layer having a gas-carrying channel formed therein, wherein the porous membrane is interposed between the sample layer and the gas flow layer; providing an automated system for loading the microfluidic device with a sample fluid contained in a sample reservoir and a rinse solution contained in a rinse solution reservoir, the automated system including a computer-controlled sample pressure regulator coupled to a source of gas for driving one or more of the sample fluid and rinse solution into the microfluidic device and a computer-controlled gas-flow pressure regulator coupled to the source of gas for delivering the gas into the gas-carrying channel; delivering the sample fluid containing the radiolabeled molecule or compound into the microfluidic channel using the gas from the computer-controlled sample pressure regulator; heating the microfluidic device to at least partially evaporate the sample fluid in the microfluidic channel; flowing the gas from the computer-controlled gas-flow pressure regulator through the gas-carrying channel to remove the evaporated fluid from the microfluidic device; and applying a vacuum via the automated system to recover the radiolabeled molecule or compound into a collection reservoir. providing a microfluidic device having a sample layer containing a microfluidic channel formed therein, a porous membrane having a pore size of less than 0.5 μm disposed on the sample layer and covering the microfluidic channel, and a gas flow layer having a gas-carrying channel formed therein, wherein the porous membrane is interposed between the sample layer and the gas flow layer; providing an automated system for loading the microfluidic device with a sample fluid contained in a sample reservoir and a rinse solution contained in a rinse solution reservoir, the automated system including a computer-controlled sample pressure regulator coupled to a source of gas for driving one or more of the sample fluid and rinse solution into the microfluidic device and a computer-controlled gas-flow pressure regulator coupled to the source of gas for delivering the gas into the gas-carrying channel; delivering the sample fluid containing the radiolabeled molecule or compound into the microfluidic channel using the gas from the computer-controlled sample pressure regulator; heating the microfluidic device to at least partially evaporate the sample fluid in the microfluidic channel; flowing the gas from the computer-controlled gas-flow pressure regulator through the gas-carrying channel to remove the evaporated fluid from the microfluidic device; and applying a vacuum via the automated system to recover the radiolabeled molecule or compound into a collection reservoir.
An adeno-associated viral vector comprising a nucleotide sequence encoding Factor I or a fragment thereof capable of cleaving C3b into iC3b, wherein the nucleotide sequence encoding Factor I or the fragment thereof is operably linked to a woodchuck hepatitis virus post-transcriptional regulatory element (WPRE).
A mobile wireless communications device comprising: a housing; a cellular transceiver carried by said housing and configured to operate at a given transmit power level from among a plurality of different transmit power levels; a wireless local area network (WLAN) transceiver carried by said housing and configured to operate at a given receive gain level from among a plurality of different receive gain levels; and a controller configured to receive the given transmit power level of said cellular transceiver, and select the given receive gain level based upon the given transmit power level of said cellular transceiver, said cellular transceiver and said WLAN transceiver being internal to said housing. a housing; a cellular transceiver carried by said housing and configured to operate at a given transmit power level from among a plurality of different transmit power levels; a wireless local area network (WLAN) transceiver carried by said housing and configured to operate at a given receive gain level from among a plurality of different receive gain levels; and a controller configured to receive the given transmit power level of said cellular transceiver, and select the given receive gain level based upon the given transmit power level of said cellular transceiver, said cellular transceiver and said WLAN transceiver being internal to said housing.
Method for an improved handling of an internet protocol multimedia subsystem service of a user equipment in the context of an ongoing session, wherein -- a call state control function node, and -- an application server are being used to enable or provide the internet protocol multimedia subsystem service of or to the user equipment, wherein the user equipment, in order to receive the internet protocol multimedia subsystem service, is able to either use a first public land mobile network or a second public land mobile network by using either a first access network and a first serving gateway node of the first public land mobile network or a second access network and a second serving gateway node of the second public land mobile network, wherein, while the user equipment being connected to the first access network of the first public land mobile network and the session being ongoing, the method comprises the following steps: -- in a first step, an inter-public land mobile network handover of the user equipment occurs or is triggered such that the user equipment is or is to be connected to the second access network of the second public land mobile network instead of being connected to the first access network of the first public land mobile network, -- in a second step, subsequent to or partly overlapping with the first step, a current public land mobile network information is transmitted, by the call state control function node to the application server, the current public land mobile network information indicating, to the application server, that the user equipment uses the second access network of the second public land mobile network instead of the first access network of the first public land mobile network, wherein - subsequent to the second step - the application server processes and/or handles legal requirements based on the current public land mobile network information. -- a call state control function node, and -- an application server -- in a first step, an inter-public land mobile network handover of the user equipment occurs or is triggered such that the user equipment is or is to be connected to the second access network of the second public land mobile network instead of being connected to the first access network of the first public land mobile network, -- in a second step, subsequent to or partly overlapping with the first step, a current public land mobile network information is transmitted, by the call state control function node to the application server, the current public land mobile network information indicating, to the application server, that the user equipment uses the second access network of the second public land mobile network instead of the first access network of the first public land mobile network,
A comb attachment for a blade system, the comb attachment comprising: a rack component and a pinion assembly, the rack component defined by one of a comb and a housing and comprising a rack, the housing being configured to attach to the blade system, and the pinion assembly comprising a pinion component defined by the other of the comb and the housing, the pinion assembly further comprising an axle retained by the pinion component, and a pinion disposed on the axle such that the pinion is rotatable with respect to the pinion component, wherein the rack and the pinion are arranged to cooperate such that rotation of the pinion on the axle induces relative linear movement between the comb and the housing; a locking mechanism configured to rotationally lock the pinion, wherein the locking mechanism comprises a protrusion on one of the pinion and the pinion component, and a notch on the other of the pinion and the pinion component, the protrusion and notch being configured to engage to lock the pinion to thereby prevent relative linear movement between the comb and the housing, wherein the pinion is moveable between a locked position, in which the protrusion and the notch are engaged, and an unlocked position, in which the protrusion and the notch are disengaged, and wherein the pinion is biased away from the rack and towards the locked position, such that pushing the pinion towards the rack and the unlocked position causes disengagement of the notch and protrusion to permit rotation of the pinion. a rack component and a pinion assembly, the rack component defined by one of a comb and a housing and comprising a rack, the housing being configured to attach to the blade system, and the pinion assembly comprising a pinion component defined by the other of the comb and the housing, the pinion assembly further comprising an axle retained by the pinion component, and a pinion disposed on the axle such that the pinion is rotatable with respect to the pinion component, wherein the rack and the pinion are arranged to cooperate such that rotation of the pinion on the axle induces relative linear movement between the comb and the housing; a locking mechanism configured to rotationally lock the pinion, wherein the locking mechanism comprises a protrusion on one of the pinion and the pinion component, and a notch on the other of the pinion and the pinion component, the protrusion and notch being configured to engage to lock the pinion to thereby prevent relative linear movement between the comb and the housing, wherein the pinion is moveable between a locked position, in which the protrusion and the notch are engaged, and an unlocked position, in which the protrusion and the notch are disengaged, and wherein the pinion is biased away from the rack and towards the locked position, such that pushing the pinion towards the rack and the unlocked position causes disengagement of the notch and protrusion to permit rotation of the pinion.
A method implemented in a mobile unit (110; 220) capable of communicating with a network according to multiple wireless access technologies, comprising: performing a handoff of the mobile unit (110; 220) from a first wireless communication link (115) established according to a first wireless access technology to a second wireless communication link (115) established according to a second wireless access technology that is different than the first wireless access technology; and transmitting, over the second wireless communication link (115), a de-registration message requesting de-registration of the first wireless communication link (115) in response to performing the handoff, characterized in that the method further comprises terminating at the mobile unit (110; 220) a point-to-point protocol, PPP, session of the first wireless communication link either after a time out after handoff or immediately after handoff, when the network avoids sending an over-the-air message to the mobile unit to release and/or de-allocate resources of the first wireless communication link, due to a handover situation where the signal strength on the first wireless communication link is weak and unreliable. performing a handoff of the mobile unit (110; 220) from a first wireless communication link (115) established according to a first wireless access technology to a second wireless communication link (115) established according to a second wireless access technology that is different than the first wireless access technology; and transmitting, over the second wireless communication link (115), a de-registration message requesting de-registration of the first wireless communication link (115) in response to performing the handoff, characterized in that the method further comprises terminating at the mobile unit (110; 220) a point-to-point protocol, PPP, session of the first wireless communication link either after a time out after handoff or immediately after handoff, when the network avoids sending an over-the-air message to the mobile unit to release and/or de-allocate resources of the first wireless communication link, due to a handover situation where the signal strength on the first wireless communication link is weak and unreliable.
A valve seat configured to be disposed below a valve ball (31a, 31b), comprising an annular member having in a center thereof a hole section forming a flow path through which a transfer fluid flows, wherein, the valve seat is arranged so that a central axis of the hole section is set in an up-and-down direction, and comprises a seating surface which is configured to provide a seat for the valve ball (31a, 31b) and which is connected to an upper end of the hole section and which is configured to fit to an external shape of the valve ball (31a, 31b) to form a complete seal, and a lower end surface connecting to the lower end of the hole section, and wherein, the hole section is formed in a predetermined shape so that a horizontal distance from the central axis to an inner circumferential surface of the hole section is not constant over an entire circumference of the inner circumferential surface of the hole section.
A vehicle comprising: one or more wheels positioned at a bottom side of the vehicle; a first light detection and ranging device, LIDAR, positioned at a top side of the vehicle opposite to the bottom side, wherein the first LIDAR is configured to scan an environment around the vehicle based on rotation of the first LIDAR about an axis, and wherein the first LIDAR has a first resolution; a second LIDAR configured to scan a field-of-view, FOV, of the environment that extends away from the vehicle along a viewing direction of the second LIDAR, wherein the second LIDAR has a second resolution; and a controller configured to operate the vehicle based on the scans of the environment by the first LIDAR and the second LIDAR, wherein the controller is configured to adjust the viewing direction of the second LIDAR based on data received from the first LIDAR, wherein the controller is configured to determine a region of interest in the environment based on the data received from the first LIDAR and wherein the viewing direction of the second LIDAR is adjusted such that the second LIDAR scans the region of interest; wherein: (i) the second resolution is greater than the first resolution, (ii) a range of the second LIDAR is greater than a range of the first LIDAR, and/or (iii) the second LIDAR has a lower refresh rate than the first LIDAR. one or more wheels positioned at a bottom side of the vehicle; a first light detection and ranging device, LIDAR, positioned at a top side of the vehicle opposite to the bottom side, wherein the first LIDAR is configured to scan an environment around the vehicle based on rotation of the first LIDAR about an axis, and wherein the first LIDAR has a first resolution; a second LIDAR configured to scan a field-of-view, FOV, of the environment that extends away from the vehicle along a viewing direction of the second LIDAR, wherein the second LIDAR has a second resolution; and a controller configured to operate the vehicle based on the scans of the environment by the first LIDAR and the second LIDAR, wherein the controller is configured to adjust the viewing direction of the second LIDAR based on data received from the first LIDAR, wherein the controller is configured to determine a region of interest in the environment based on the data received from the first LIDAR and wherein the viewing direction of the second LIDAR is adjusted such that the second LIDAR scans the region of interest; wherein: (i) the second resolution is greater than the first resolution, (ii) a range of the second LIDAR is greater than a range of the first LIDAR, and/or (iii) the second LIDAR has a lower refresh rate than the first LIDAR.
A method of treating a fluid containing system in order to resist the formation and build-up of scale deposits and comprising injecting a radio frequency signal into the fluid-containing system, the method further comprising the steps of introducing a pulsed radio frequency signal in a primary coil of a transformer, and injecting the signal into the fluid-containing system through an operative connection between a first terminal of a secondary coil of the transformer and a conduit of the fluid-containing system; wherein a second terminal of the secondary coil of the transformer is operably connected to ground, and wherein, in use, the method causes propagation of an electromagnetic signal in the conduit, and further wherein, where the conduit is made of a conductive material the operative connection to the conduit comprises a contact between the first terminal and the conduit, or where the conduit is made of a non-conductive material, the operative connection to the conduit comprises a contact between the terminal and a conductive insert inserted to a section of the conduit or a contact between the terminal and a conductive material clamped around a section of the conduit.
A display device, comprising: a display comprising a first display portion and a second display portion; and a display controller configured to: assess a temperature condition of a surface of the first display portion; and responsive to the temperature condition, initiate a switching of display content from one of the display portions to the other display portion, the other display portion being at a lower temperature, characterized in that the temperature condition includes a predicted temperature after displaying content having an estimated power consumption for an estimated display time, the predicted temperature exceeding a predefined temperature threshold; and in that the display controller is configured to defer switching of the display content from one display portion to the other display portion, if the predicted temperature would exceed the predefined temperature threshold for at most a predefined acceptable amount of time before completing a current display content task. a display comprising a first display portion and a second display portion; and a display controller configured to: assess a temperature condition of a surface of the first display portion; and responsive to the temperature condition, initiate a switching of display content from one of the display portions to the other display portion, the other display portion being at a lower temperature, assess a temperature condition of a surface of the first display portion; and responsive to the temperature condition, initiate a switching of display content from one of the display portions to the other display portion, the other display portion being at a lower temperature, characterized in that the temperature condition includes a predicted temperature after displaying content having an estimated power consumption for an estimated display time, the predicted temperature exceeding a predefined temperature threshold; and in that the display controller is configured to defer switching of the display content from one display portion to the other display portion, if the predicted temperature would exceed the predefined temperature threshold for at most a predefined acceptable amount of time before completing a current display content task.
A cable comprising layer(s), wherein layer(s), is/are obtained from a polymer composition, wherein the polymer composition comprises a polyethylene and a crosslinking agent, characterized in that the polymer composition contains a total amount of vinyl groups which is B vinyl groups per 1000 carbon atoms, and B 1 ≤ B, wherein B 1 is 0.88, when measured prior to crosslinking according to method ASTM D6248-98; and in that the crosslinking agent is present in an amount which is Z wt%, prior to crosslinking, based on the total amount (100 wt%) of the polymer composition, and Z ≤ Z 2, wherein Z 2 is 0.60.