mhurhangee/ep-ind-claims huggingface dataset:
A method for analyzing a sample according to a capillary electrophoresis method using a capillary electrophoresis chip comprising a substrate, an introduction reservoir, a recovery reservoir, and a capillary channel, the capillary channel comprising a linear capillary channel for sample analysis, the introduction reservoir and the recovery reservoir being formed in the substrate, the introduction reservoir and the recovery reservoir being in communication with each other via the linear capillary channel for sample analysis, the capillary channel having a diameter in a range of 10 to 200 μm and a length of 0.5 to 15 cm, and the method comprising: an introduction step of introducing a sample to be analyzed directly into the introduction reservoir; and being characterized by an analysis step of electrophoretically introducing the sample directly from the introduction reservoir into the linear capillary channel for sample analysis by creating a potential difference between the introduction reservoir and the recovery reservoir, and also analyzing the sample in the linear capillary channel for sample analysis during separation of the sample while the sample is being continuously supplied from the introduction reservoir into the capillary channel by said potential difference, wherein, in the analysis step, the analysis of the sample is carried out by arithmetic processing of an absorbance of the sample, wherein the arithmetic processing of absorbance is differential processing to give a pherogram, and the proportion of a component in the sample is obtained by calculating at least a peak height or a peak area in the pherogram, and wherein the sample is whole blood, and the component is glycosylated hemoglobin. an introduction step of introducing a sample to be analyzed directly into the introduction reservoir; and being characterized by an analysis step of electrophoretically introducing the sample directly from the introduction reservoir into the linear capillary channel for sample analysis by creating a potential difference between the introduction reservoir and the recovery reservoir, and also analyzing the sample in the linear capillary channel for sample analysis during separation of the sample while the sample is being continuously supplied from the introduction reservoir into the capillary channel by said potential difference, wherein, in the analysis step, the analysis of the sample is carried out by arithmetic processing of an absorbance of the sample, wherein the arithmetic processing of absorbance is differential processing to give a pherogram, and the proportion of a component in the sample is obtained by calculating at least a peak height or a peak area in the pherogram, and wherein the sample is whole blood, and the component is glycosylated hemoglobin.
A polyethylene composition comprising a base resin which comprises a first ethylene homo- or copolymer fraction, and a second ethylene-hexene-1 copolymer fraction, wherein fraction has a lower molecular weight than fraction and wherein fraction is present in an amount of from 51.0 to 58.5 wt. based on the total weight of the base resin, wherein fraction of the base resin has a content of units derived from hexene-1 from 0.85 to 1.45 mol%, wherein the base resin has a number average molecular weight Mn of 8,500 g/mol or higher, and wherein the polyethylene composition has a melt flow rate MFR 5 from 0.10 to 0.30 g/10min. a first ethylene homo- or copolymer fraction, and a second ethylene-hexene-1 copolymer fraction, wherein fraction has a lower molecular weight than fraction and wherein fraction is present in an amount of from 51.0 to 58.5 wt. based on the total weight of the base resin, wherein fraction of the base resin has a content of units derived from hexene-1 from 0.85 to 1.45 mol%, wherein the base resin has a number average molecular weight Mn of 8,500 g/mol or higher, and wherein the polyethylene composition has a melt flow rate MFR 5 from 0.10 to 0.30 g/10min.
A sensor assembly (700; 900) comprising: a multilayer circuit (708; 908) extending between a proximal end and a distal end along a longitudinal axis (724; 924), the multilayer circuit (708; 908) including a plurality of electrical pads positioned at the proximal end; a first magnetic field sensor (720A; 920A) coupled to the multilayer circuit (708; 908) and having a primary sensing direction aligned with the longitudinal axis (724; 924); and a second magnetic field sensor (720B; 920B) coupled to the multilayer circuit (708; 908) and oriented with respect to the first magnetic field sensor (720A; 920A) such that the second magnetic field sensor (720B; 920B) has a primary sensing direction aligned with an axis orthogonal to the longitudinal axis (724; 924), wherein the multilayer circuit (708; 908) includes a flexible substrate layer (712; 912), wherein a first subset of the plurality of electrical pads is positioned on a first side of the flexible substrate layer (712; 912), characterized in that a second subset of the plurality of electrical pads is positioned on a second side of the flexible substrate layer (712; 912), and wherein the first side and the second side face in opposite directions. a multilayer circuit (708; 908) extending between a proximal end and a distal end along a longitudinal axis (724; 924), the multilayer circuit (708; 908) including a plurality of electrical pads positioned at the proximal end; a first magnetic field sensor (720A; 920A) coupled to the multilayer circuit (708; 908) and having a primary sensing direction aligned with the longitudinal axis (724; 924); and a second magnetic field sensor (720B; 920B) coupled to the multilayer circuit (708; 908) and oriented with respect to the first magnetic field sensor (720A; 920A) such that the second magnetic field sensor (720B; 920B) has a primary sensing direction aligned with an axis orthogonal to the longitudinal axis (724; 924), wherein the multilayer circuit (708; 908) includes a flexible substrate layer (712; 912), wherein a first subset of the plurality of electrical pads is positioned on a first side of the flexible substrate layer (712; 912), characterized in that a second subset of the plurality of electrical pads is positioned on a second side of the flexible substrate layer (712; 912), and wherein the first side and the second side face in opposite directions.
A substrate chuck, comprising: a first frame for supporting a substrate, the first frame having a hole (210") at a central portion thereof; a second frame disposed opposite to the first frame; a frame moving part configured to move at least one of the first frame and the second frame towards the other one for clamping the substrate therebetween, the substrate chuck being characterized in that it further comprises: an auxiliary clamp configured to press the second frame toward the first frame for increasing a clamping force of the first and second frames (201, 220) on the substrate. a first frame for supporting a substrate, the first frame having a hole (210") at a central portion thereof; a second frame disposed opposite to the first frame; a frame moving part configured to move at least one of the first frame and the second frame towards the other one for clamping the substrate therebetween, the substrate chuck being characterized in that it further comprises: an auxiliary clamp configured to press the second frame toward the first frame for increasing a clamping force of the first and second frames (201, 220) on the substrate.
Sliding shaft (12'; 12") for a surgical sliding shaft instrument (10'; 10") which defines a longitudinal direction and comprises a first shaft part (14'; 14") and a second shaft part (18'; 18") which are arranged such as to be displaceable relative to each other, wherein said first shaft part (14'; 14") carries a first tool element (20'; 20") and said second shaft part (18'; 18") carries a second tool element (28'; 28"), wherein the second shaft part (18'; 18") comprises a cut material collector having an inlet opening which is bounded by the second tool element (28'; 28") and extends therefrom in the proximal direction, wherein the second shaft part (18'; 18") is formed in at least two parts and comprises a tool part which comprises the second tool element (28'; 28") and a sliding part which is connected to the tool part, characterized in that the tool part and the sliding part are connected inseparably to one another and in that the tool part and the sliding part are connected together by welding, soldering or adhesion and in that the sliding part is manufactured by moulding it onto the tool part.
Centrifugal pellet dryer, comprising a housing accommodating a rotor surrounded by a screen, said screen including at least one porous screen member (5a, 5b... 5n) and supported by a screen support holding the screen relative to the housing wherein said screen support includes at least one damper for dampening vibrations of the screen and/or isolating screen vibrations from the housing, characterized in that at least one damper forming a rubber-like elastic bearing piece configured to be connected to the housing and/or to be received in a recess in an interior wall of the housing.
An aircraft anti-collision lighting architecture of electronically communicating components comprising: an LED board; a driver board; a controller board in electrical communication with the LED board and the driver board; wherein the controller board is configured to protect, filter, and rectify a primary power to generate a driver board power, wherein the controller board generates a flash signal, wherein the driver board is a harmonically corrected driver board architecture comprising: a driver board regulation circuit comprising a harmonic correction and light emitting diode, HCLED, driver circuit; a LED driver ballast circuit; and a flash interface circuit, wherein the flash interface circuit is configured to generate an op-amp shutdown signal to the HCLED driver circuit in response to receiving the flash signal; and wherein the driver board regulation circuit is configured to enable an op-amp of the HCLED driver circuit to pull a drain pin of a field effect transistor to ground and corrects a feedback voltage of a current sense resistor to equal a current reference waveform in response to enabling the op-amp, wherein the current reference waveform is proportional to a voltage waveform. an LED board; a driver board; a controller board in electrical communication with the LED board and the driver board; a driver board; a controller board in electrical communication with the LED board and the driver board; wherein the controller board is configured to protect, filter, and rectify a primary power to generate a driver board power, wherein the controller board generates a flash signal, wherein the driver board is a harmonically corrected driver board architecture comprising: a driver board regulation circuit comprising a harmonic correction and light emitting diode, HCLED, driver circuit; a LED driver ballast circuit; and a flash interface circuit, wherein the flash interface circuit is configured to generate an op-amp shutdown signal to the HCLED driver circuit in response to receiving the flash signal; and wherein the driver board regulation circuit is configured to enable an op-amp of the HCLED driver circuit to pull a drain pin of a field effect transistor to ground and corrects a feedback voltage of a current sense resistor to equal a current reference waveform in response to enabling the op-amp, wherein the current reference waveform is proportional to a voltage waveform. a harmonic correction and light emitting diode, HCLED, driver circuit; a LED driver ballast circuit; and a flash interface circuit, wherein the flash interface circuit is configured to generate an op-amp shutdown signal to the HCLED driver circuit in response to receiving the flash signal; and wherein the driver board regulation circuit is configured to enable an op-amp of the HCLED driver circuit to pull a drain pin of a field effect transistor to ground and corrects a feedback voltage of a current sense resistor to equal a current reference waveform in response to enabling the op-amp, wherein the current reference waveform is proportional to a voltage waveform.
Foot prosthesis having improved rollover and stability, defining a spring (110, 120, 130) which stores and returns energy during a gait cycle and comprising a mounting unit having a coupler for connecting the foot prosthesis to other prosthetic devices or components and a mounting member characterized in that the mounting member is attached to a mounting region of the spring (110, 120, 130) at one end so as to project in a cantilevered design over the spring (110, 120, 130) and to form a gap between the mounting member and the spring (110, 120, 130) and that the mounting unit is substantially rigid and that a resilient element is positioned at least partially within the gap so as to become compressed by a forward motion during the gait cycle thereby smoothening the transition from heel to toe and dissipating stress created in the mounting region when the spring (110, 120, 130) and the mounting member deflect relative to each other.
A computer-implemented method for text segmentation, comprising the steps in the order of: (i) accessing a string of characters; (ii) determining at least one long token from the string of characters, each long token having a length greater than or equal to a predetermined number of characters; (iii) determining a plurality of combinations of tokens for the string of characters; characterized by the steps of: (iv) pinning down the second character through the second-to-last character of each of the at least one long token; (v) keeping adjacent pinned down contiguous characters together to determine a plurality of potential combinations of tokens from the string of characters; (vi) determining the plurality of potential combinations of tokens from the string of characters without allowing token breaks to occur within adjacent pinned down characters; (vii) determining a likelihood for each of the plurality of potential combinations of tokens based on frequencies with which tokens in the combinations of tokens occur; and (viii) using one or more combinations of tokens with the highest likelihoods from the plurality of potential combination of tokens for further processing or for presentation to a user. (i) accessing a string of characters; (ii) determining at least one long token from the string of characters, each long token having a length greater than or equal to a predetermined number of characters; (iii) determining a plurality of combinations of tokens for the string of characters; (iv) pinning down the second character through the second-to-last character of each of the at least one long token; (v) keeping adjacent pinned down contiguous characters together to determine a plurality of potential combinations of tokens from the string of characters; (vi) determining the plurality of potential combinations of tokens from the string of characters without allowing token breaks to occur within adjacent pinned down characters; (vii) determining a likelihood for each of the plurality of potential combinations of tokens based on frequencies with which tokens in the combinations of tokens occur; and (viii) using one or more combinations of tokens with the highest likelihoods from the plurality of potential combination of tokens for further processing or for presentation to a user.
A method implemented in a computing device of a vehicle equipped with an automated driving function for invoking a tele-operated driving session for the vehicle, the method being characterized by the following steps: - identifying an impending deadlock situation that may require a tele-operated driving session based on data obtained by sensors (150, 151, 182, 186) of the vehicle for observation of the environment or from sidelink communication from other vehicles; - predicting a quality of service (PQoS) for a communication between the vehicle and a control center for a location where the tele-operated driving session should be performed; and - reducing a speed of the vehicle to a maximum drivable speed for a tele-operated driving session with the predicted quality of service (PQoS). - identifying an impending deadlock situation that may require a tele-operated driving session based on data obtained by sensors (150, 151, 182, 186) of the vehicle for observation of the environment or from sidelink communication from other vehicles; - predicting a quality of service (PQoS) for a communication between the vehicle and a control center for a location where the tele-operated driving session should be performed; and - reducing a speed of the vehicle to a maximum drivable speed for a tele-operated driving session with the predicted quality of service (PQoS).
A dispenser for storing one or more items and providing selective access to the stored items, the dispenser comprising: a housing defining at least one access opening and at least one interior portion dimensioned for receiving the one or more items; the dispenser further comprises: an access assembly operatively connected to the housing and configured for permitting selective user access to the one or more items in the interior portion of the housing, characterised in that the access assembly comprising: a door assembly slidably connected to the housing and configured for lateral movement relative to the housing, the door assembly defining at least one access door adjustable between a locked configuration and an unlocked configuration, wherein the access door provides user access to the interior portion of the housing when in the unlocked configuration; a first flexible barrier extending between the housing and a first side of the door assembly; and a second flexible barrier extending between the housing and a second side of the door assembly. a door assembly slidably connected to the housing and configured for lateral movement relative to the housing, the door assembly defining at least one access door adjustable between a locked configuration and an unlocked configuration, wherein the access door provides user access to the interior portion of the housing when in the unlocked configuration; a first flexible barrier extending between the housing and a first side of the door assembly; and a second flexible barrier extending between the housing and a second side of the door assembly.
A composition for improving the aesthetic appearance of human skin comprising: (i) an active agent consisting of: a compound having the formula I: and (ii) a cosmetically acceptable vehicle. (i) an active agent consisting of: a compound having the formula I: and a compound having the formula I: and (ii) a cosmetically acceptable vehicle.
A light emitting diode light module, comprising: a plurality of light sections, wherein each one of the plurality of light sections comprises: a compartment formed by two or more lateral sides, an outer side and an inner side; a plurality of heat sink fins on an outside of each one of the two or more lateral sides from the outer side to the inner side; a plurality of heat spreader fins on an inside of each one of the two or more lateral sides from the outer side to the inner side; and a plurality of light emitting diodes (LEDs) inside the compartment, wherein the compartment is sealed from outside air and encloses the plurality of LEDs; and a plurality of open sections formed by the plurality of heat sink fins between the plurality of light sections, wherein each one of the plurality of light sections is adjacent to two different light sections of the plurality of light sections. a plurality of light sections, wherein each one of the plurality of light sections comprises: a compartment formed by two or more lateral sides, an outer side and an inner side; a plurality of heat sink fins on an outside of each one of the two or more lateral sides from the outer side to the inner side; a plurality of heat spreader fins on an inside of each one of the two or more lateral sides from the outer side to the inner side; and a plurality of light emitting diodes (LEDs) inside the compartment, wherein the compartment is sealed from outside air and encloses the plurality of LEDs; and a compartment formed by two or more lateral sides, an outer side and an inner side; a plurality of heat sink fins on an outside of each one of the two or more lateral sides from the outer side to the inner side; a plurality of heat spreader fins on an inside of each one of the two or more lateral sides from the outer side to the inner side; and a plurality of light emitting diodes (LEDs) inside the compartment, wherein the compartment is sealed from outside air and encloses the plurality of LEDs; and a plurality of open sections formed by the plurality of heat sink fins between the plurality of light sections, wherein each one of the plurality of light sections is adjacent to two different light sections of the plurality of light sections.
A biaxial stretch blow molding device for driving a blow core fixing member to which a blow core mold is fixed, and a stretch rod fixing member to which a stretch rod is fixed, to move forward and backward, comprising: a first guide shaft which is erected on an upper base and to which the blow core fixing member is slidably coupled; a second guide shaft erected on the stretch rod fixing member; support member fixed to the first guide shaft and provided with a guide hole through which the second guide shaft is slidably inserted; a first drive means for moving the blow core fixing member forward and backward independently of the stretch rod fixing member; and a second drive means for moving the stretch rod fixing member forward and backward independently of the blow core fixing member, wherein the stretch rod fixing member is disposed to contact the blow core fixing member when the stretch rod fixing member is driven to move backward. a first guide shaft which is erected on an upper base and to which the blow core fixing member is slidably coupled; a second guide shaft erected on the stretch rod fixing member; support member fixed to the first guide shaft and provided with a guide hole through which the second guide shaft is slidably inserted; a first drive means for moving the blow core fixing member forward and backward independently of the stretch rod fixing member; and a second drive means for moving the stretch rod fixing member forward and backward independently of the blow core fixing member,