mhurhangee/ep-ind-claims huggingface dataset:
A dose monitoring device configured to mate with a syringe having a plunger that is slidably engaged in a barrel of the syringe, comprising: a first channel configured to receive a syringe body of the syringe; one or more slots (105A,B) configured to mate with a syringe flange (155A,B) of the syringe so as to inhibit movement of the syringe body relative to the dose monitoring device; a second channel configured to receive a rod of the plunger of the syringe, one or more motion sensors mounted in the second channel superior to the flange (155A,B) of the syringe, the one or more motion sensors configured to measure a linear distance of travel of the plunger rod; one or more orientation sensors configured to detect upward and downward orientations of the syringe; and a communication module configured to transmit data to an external device from the one or more motion sensors and the one or more orientation sensors. a first channel configured to receive a syringe body of the syringe; one or more slots (105A,B) configured to mate with a syringe flange (155A,B) of the syringe so as to inhibit movement of the syringe body relative to the dose monitoring device; a second channel configured to receive a rod of the plunger of the syringe, one or more motion sensors mounted in the second channel superior to the flange (155A,B) of the syringe, the one or more motion sensors configured to measure a linear distance of travel of the plunger rod; one or more orientation sensors configured to detect upward and downward orientations of the syringe; and a communication module configured to transmit data to an external device from the one or more motion sensors and the one or more orientation sensors.
A lighting apparatus, comprising: a connection socket adapted to transmit electricity; a plurality of printed circuit boards (PCBs); an LED mounted on each of the plurality of PCBs to provide a plurality of LEDs; a diffuser positioned over the LEDs to diffuse light generated by the LEDs; an electronic driver circuit electrically connected to the connection socket and to the PCBs so as to convert electricity from the connection socket to an electrical output that operates the LEDs, the electronic driver circuit mounted in a driver circuit housing; and a heat sink including: a center passageway passing from a chimney inlet to the driver circuit housing; a plurality of internal heat sink fins within the center passageway; a plurality of external heat sink fins adjacent the driver circuit housing; and a flow channel between each set of two adjacent heat sink fins of the plurality of heat sink fins to provide a plurality of internal inlet flow channels and a plurality of external outlet flow channels, with each flow channel aligned with one of the plurality of PCBs. a connection socket adapted to transmit electricity; a plurality of printed circuit boards (PCBs); an LED mounted on each of the plurality of PCBs to provide a plurality of LEDs; a diffuser positioned over the LEDs to diffuse light generated by the LEDs; an electronic driver circuit electrically connected to the connection socket and to the PCBs so as to convert electricity from the connection socket to an electrical output that operates the LEDs, the electronic driver circuit mounted in a driver circuit housing; and a heat sink including: a center passageway passing from a chimney inlet to the driver circuit housing; a plurality of internal heat sink fins within the center passageway; a plurality of external heat sink fins adjacent the driver circuit housing; and a flow channel between each set of two adjacent heat sink fins of the plurality of heat sink fins to provide a plurality of internal inlet flow channels and a plurality of external outlet flow channels, with each flow channel aligned with one of the plurality of PCBs. a center passageway passing from a chimney inlet to the driver circuit housing; a plurality of internal heat sink fins within the center passageway; a plurality of external heat sink fins adjacent the driver circuit housing; and a flow channel between each set of two adjacent heat sink fins of the plurality of heat sink fins to provide a plurality of internal inlet flow channels and a plurality of external outlet flow channels, with each flow channel aligned with one of the plurality of PCBs.
A method for analyzing the occurrence of lithium plating on an anode of a lithium ion cell using electrochemical impedance spectroscopy, without disassembling the battery, characterized in that, the occurrence of lithium precipitation is determined according to the arrangement of electrochemical impedance spectroscopy curves obtained under different temperature conditions, further characterized in that in the Nyquist plot of electrochemical impedance spectroscopy obtained under different temperature conditions, one or more curves obtained from low to high temperature arranging in order from the high frequency region to the low frequency region indicate the occurrence of lithium plating.
A method comprising: receiving data from a device in a test network; validating, via a physical layer controller, PHY, a link to the device in the test network based on the received data; throttling a rate of the received data from the device in the test network to a lower rate in response to the validated link; and processing the received data at the lower rate via a media access controller, MAC, wherein the processing of the received data at the lower rate comprises performing data packet testing at the lower rate. receiving data from a device in a test network; validating, via a physical layer controller, PHY, a link to the device in the test network based on the received data; throttling a rate of the received data from the device in the test network to a lower rate in response to the validated link; and processing the received data at the lower rate via a media access controller, MAC, wherein the processing of the received data at the lower rate comprises performing data packet testing at the lower rate.
Method for controlling a quantity of a wind turbine for which a list (LIST) of a plurality of controllers of said quantity of said wind turbine is available, wherein the following steps are carried out: a) constructing a database offline by simulating, for each controller of said list (LIST) and for a plurality of wind data, a cost function representative of the fatigue of said wind turbine; b) measuring wind data online; c) determining online a controller (CONT) of said list (LIST) that minimizes the fatigue of said wind turbine for said measured wind data by means of machine learning based on said database; and d) controlling online said quantity of said wind turbine by means of said controller (CONT) thus determined. a) constructing a database offline by simulating, for each controller of said list (LIST) and for a plurality of wind data, a cost function representative of the fatigue of said wind turbine; b) measuring wind data online; c) determining online a controller (CONT) of said list (LIST) that minimizes the fatigue of said wind turbine for said measured wind data by means of machine learning based on said database; and d) controlling online said quantity of said wind turbine by means of said controller (CONT) thus determined.
A method for forming a conductive oxide layer on a substrate, the method comprising: sputtering a transparent conductive oxide layer on a substrate from a target, wherein the target comprises cadmium stannate, and wherein the transparent conductive oxide layer is sputtered at a sputtering temperature of 10° C to 100° C; annealing the transparent conductive oxide layer at an anneal temperature of 500° C to 700° C in an annealing atmosphere etching the transparent conductive oxide layer to remove any excess cadmium deposited during annealing, characterized in that the annealing atmosphere comprises an organo-cadmium gas. sputtering a transparent conductive oxide layer on a substrate from a target, wherein the target comprises cadmium stannate, and wherein the transparent conductive oxide layer is sputtered at a sputtering temperature of 10° C to 100° C; annealing the transparent conductive oxide layer at an anneal temperature of 500° C to 700° C in an annealing atmosphere etching the transparent conductive oxide layer to remove any excess cadmium deposited during annealing, characterized in that the annealing atmosphere comprises an organo-cadmium gas.
A method for information processing, comprising: receiving (101,201), by a high-layer function entity, a first preset amount of beam recovery failure indication information; and starting (102,202) a first timer on the basis of the first preset amount of beam recovery failure indication information, the first preset amount being one or at least two, characterized in that, when the first timer is not set with a timing-out moment, the high-layer function entity determines a radio link failure, RLF, when the first preset amount of beam recovery failure indication information is received. receiving (101,201), by a high-layer function entity, a first preset amount of beam recovery failure indication information; and starting (102,202) a first timer on the basis of the first preset amount of beam recovery failure indication information, the first preset amount being one or at least two, characterized in that, when the first timer is not set with a timing-out moment, the high-layer function entity determines a radio link failure, RLF, when the first preset amount of beam recovery failure indication information is received.
A push fit pipe coupling for securing an inserted pipe in the coupling prior to crimping, the coupling comprising: a body comprising an inner surface, the body being adapted for receiving the inserted pipe for coupling; and one or more retaining means provided inside the body, wherein the or each retaining means comprises one or more retaining members and at least part of the one or more retaining members extends toward the inner surface of the body of the coupling and is arranged to grip an inner surface of the inserted pipe; characterised in that the retaining means comprises one or more protruding tabs secured to the inner surface of the body of the coupling.
Compounds of general formula I: wherein: R is F, Cl, Br, I, -N3, NH2, -NR'R", -COOR', -CONR'R",-NHR"'-NR'R" in which R', R" and R'" can be H, alkyl, aryl, arylalkyl, acyl, alkoxycarbonyl, aryloxycarbonyl; R1 is alkyl, aminoalkyl, hydroxyalkyl, nitrile, -NH-O-alkyl,, -NH-O-aryl, silylalkyl; R2 is hydrogen, hydroxyl, alkoxy, aminoalkyl; R3 is hydrogen, alkoxy, aminoalkyl, wherein the alkyl groups, acyl, alkoxy, aminoalkyl or -NH-O-alkyl can contain 1 to 8 carbon atoms, in a straight or branched chain, and the groups aryl and aryloxy can contain 5 to 10 carbon atoms; the pharmaceutically acceptable salts, enantiomers, diastereomers thereof and corresponding mixtures. R is F, Cl, Br, I, -N3, NH2, -NR'R", -COOR', -CONR'R",-NHR"'-NR'R" in which R', R" and R'" can be H, alkyl, aryl, arylalkyl, acyl, alkoxycarbonyl, aryloxycarbonyl; R1 is alkyl, aminoalkyl, hydroxyalkyl, nitrile, -NH-O-alkyl,, -NH-O-aryl, silylalkyl; R2 is hydrogen, hydroxyl, alkoxy, aminoalkyl; R3 is hydrogen, alkoxy, aminoalkyl, wherein the alkyl groups, acyl, alkoxy, aminoalkyl or -NH-O-alkyl can contain 1 to 8 carbon atoms, in a straight or branched chain, and the groups aryl and aryloxy can contain 5 to 10 carbon atoms;
A composition for inducing wound healing and tissue regeneration, wherein the composition comprises a bioactive peptide component of a soy protein isolate, wherein the SPI comprises a fraction of a water soluble soy protein isolate (WSsoy) separated using reverse phase-high pressure liquid chromatography (RP-HPLC).
A robot, compromising: a first four-bar linkage (9, 11) to drive at least one robot arm (3, 4), wherein the first four-bar linkage (9, 11) includes a crank, a coupling (13, 17) and a swing arm (14, 18), wherein the crank is connected to the coupling (13, 17) and the coupling (13, 17) is connected to the swing arm (14, 18) each via a joint bearing, wherein at least one of these joint bearings comprises: a shaft, and at least one link element (24, 35, 36, 37, 38, 59, 60) rotatably mounted on the shaft between two axial bearings (22, 23, 43, 44, 45, 46, 54, 55, 63, 64, 69), wherein a resiliently compressible pretensioning element (33, 49, 52, 53, 56, 57, 65, 66) is provided for applying an axial pretensioning force to the axial bearings. a shaft, and at least one link element (24, 35, 36, 37, 38, 59, 60) rotatably mounted on the shaft between two axial bearings (22, 23, 43, 44, 45, 46, 54, 55, 63, 64, 69), wherein a resiliently compressible pretensioning element (33, 49, 52, 53, 56, 57, 65, 66) is provided for applying an axial pretensioning force to the axial bearings.
A contact connection structure comprising: a first contact part provided in a first terminal and having a first base material and a first plating layer formed on an outer surface of the first base material; and a second contact part provided in a second terminal to be connected to the first terminal and having a second base material and a second plating layer formed on an outer surface of the second base material, the first base material and the second base material are formed from rolled bar material, wherein the first contact part has an indent portion protruding from a plane formed by the outer surface of the first base material, the indent portion slides on a contact surface of the second contact part in a process of terminal insertion, and the indent portion is in contact with the contact surface of the second contact part at a terminal insertion completed position, characterized in that the outer surface of the first base material at the first contact part and the outer surface of the second base material at the second contact part are both formed as a smooth surface by being subjected to polishing such they both respectively have a smaller surface roughness than the surface roughness of the rolled bar material prior to polishing. a first contact part provided in a first terminal and having a first base material and a first plating layer formed on an outer surface of the first base material; and a second contact part provided in a second terminal to be connected to the first terminal and having a second base material and a second plating layer formed on an outer surface of the second base material, the first base material and the second base material are formed from rolled bar material, wherein the first contact part has an indent portion protruding from a plane formed by the outer surface of the first base material, the indent portion slides on a contact surface of the second contact part in a process of terminal insertion, and the indent portion is in contact with the contact surface of the second contact part at a terminal insertion completed position, characterized in that the outer surface of the first base material at the first contact part and the outer surface of the second base material at the second contact part are both formed as a smooth surface by being subjected to polishing such they both respectively have a smaller surface roughness than the surface roughness of the rolled bar material prior to polishing.
A mobile terminal comprising: a terminal body, the terminal body having a case that forms an exterior of the terminal body and a slot portion formed in the case; a socket mounted in the terminal body, the socket being configured to be covered with the slot portion in a closed position; a slide door coupled to the slot portion, the slide door being configured to slide to expose and cover the socket; and a first spring coupled to one side of the slide door, a fixing assembly coupled to the slide door, characterized in that the fixing assembly has a hook and is coupled to the slot portion, and in that the slide door includes a projection configured to engage the hook when the slide door is slid to expose the socket, and to release the hook when the slide door covers the socket. a terminal body, the terminal body having a case that forms an exterior of the terminal body and a slot portion formed in the case; a socket mounted in the terminal body, the socket being configured to be covered with the slot portion in a closed position; a slide door coupled to the slot portion, the slide door being configured to slide to expose and cover the socket; and a first spring coupled to one side of the slide door, a fixing assembly coupled to the slide door, characterized in that the fixing assembly has a hook and is coupled to the slot portion, and in that the slide door includes a projection configured to engage the hook when the slide door is slid to expose the socket, and to release the hook when the slide door covers the socket.
A milking robot for completely automatically performing a teat-related action, in particular milking, on a dairy animal, comprising - a frame with an arm structure (5, 6, 7-1, 7-2, 7-3) which is movable with respect thereto and comprising a robot arm and one or more actuators for moving the arm structure, in particular the robot arm, - a teat cup, in particular a milking cup, - a flexible connecting means connected between the teat cup and the arm structure, - a retracting device for pulling the teat cup back onto the arm structure by means of the connecting means, - a vacuum device (12, 13, 14) for applying a milking vacuum to the teat cup, - a control unit for controlling the milking robot, - at least one of an arm structure position-determining device (16, 18) for determining a measured value relating to an arm structure position, and an arm structure acceleration-determining device for determining a measured value relating to an arm structure acceleration, characterized in that the control unit is configured to control the retracting device for pulling back the teat cup onto the arm structure and/or to control the vacuum device for closing off the milking vacuum from the teat cup, if the determined measured value satisfies a predetermined measured value criterion. - a frame with an arm structure (5, 6, 7-1, 7-2, 7-3) which is movable with respect thereto and comprising a robot arm and one or more actuators for moving the arm structure, in particular the robot arm, - a teat cup, in particular a milking cup, - a flexible connecting means connected between the teat cup and the arm structure, - a retracting device for pulling the teat cup back onto the arm structure by means of the connecting means, - a vacuum device (12, 13, 14) for applying a milking vacuum to the teat cup, - a control unit for controlling the milking robot, - at least one of an arm structure position-determining device (16, 18) for determining a measured value relating to an arm structure position, and an arm structure acceleration-determining device for determining a measured value relating to an arm structure acceleration,
A fiber-reinforced resin material molding comprising: a fiber bundle comprising a plurality of reinforcing fibers; and a matrix resin, wherein a coefficient of variation Q in fiber content of the reinforcing fibers per unit zone of 0.1 mm square on a cut face along a thickness direction of the fiber-reinforced resin material molding is 40% or less, wherein the coefficient of variation Q means a value obtained by cutting the fiber-reinforced resin material molding along the thickness direction, measuring the fiber content of the reinforcing fiber per unit zone of 0.1 mm square at 2000 points on the cut face, calculating the standard deviation and the average value P, and dividing the standard deviation by the average value P. wherein an average fiber length of the reinforcing fibers is from 5 to 100 mm, wherein a direction of a fiber axis of the fiber bundle on a cut face along a plane direction is substantially randomly distributed. a fiber bundle comprising a plurality of reinforcing fibers; and a matrix resin, wherein a coefficient of variation Q in fiber content of the reinforcing fibers per unit zone of 0.1 mm square on a cut face along a thickness direction of the fiber-reinforced resin material molding is 40% or less, wherein the coefficient of variation Q means a value obtained by cutting the fiber-reinforced resin material molding along the thickness direction, measuring the fiber content of the reinforcing fiber per unit zone of 0.1 mm square at 2000 points on the cut face, calculating the standard deviation and the average value P, and dividing the standard deviation by the average value P. wherein an average fiber length of the reinforcing fibers is from 5 to 100 mm, wherein a direction of a fiber axis of the fiber bundle on a cut face along a plane direction is substantially randomly distributed.
An underfluid pelletizer for extruding and cutting a process melt into pellets, comprising a pelletizer shaft (300, 400) rotationally driven by a motor (390, 490); a die plate (359, 459) with a plurality of extrusion orifices formed therein through which the process melt is carried from said die plate (359, 459) to a cutting face on a downstream side of said die plate (359, 459); a rotary cutter blade assembly in opposed relation to said cutting face, said rotary cutter blade assembly having a cutter hub (350, 445) with at least one blade (335, 435) mounted thereon and capable of moving in a plane generally parallel to and closely adjacent said cutting face to cut strands of process melt extruded through said orifices into pellets; a cutter hub drive mechanism for transferring torque from rotation of said pelletizer shaft (300, 400) to a cutter hub holder (315, 415) coupled to said cutter hub (350, 445); a cutting chamber (355, 450) enclosing said cutting face and cutter blade assembly; a quick disconnect hub (320, 425) configured to removably couple the pelletizer shaft (300, 400) to the cutter hub holder (315, 415), characterized in that a retaining element (340, 420) removably secures the quick disconnect hub (320, 425) to said pelletizer shaft (300, 400) or to said cutter hub holder (315, 415) said retaining element (340, 420) being engaged with the quick disconnect hub (320, 425) to couple the pelletizer shaft (300, 400) and the cutter hub holder (315, 415), and being disengaged to separate the pelletizer shaft (300, 400) from the cutter hub holder (315, 415), wherein said retaining element (340, 420) is configured to compress and disengage to allow for separating the pelletizer shaft (300, 400) from the cutter hub holder (315, 415) by pulling the pelletizer shaft (300, 400) away from the cutter hub holder (315, 415).