mhurhangee/ep-ind-claims huggingface dataset:
A light unit comprising: a Printed Circuit Board mounted with a plurality of Light Emitting Diodes, i.e. LEDs; and a light guide member having a plurality of reception grooves receiving the LEDs, wherein the reception grooves are filled with a resin material, characterized in that the reception grooves are formed to pierce through the light guide member, the light guide member includes one surface and the other surface opposite to the one surface, and the one surface of the light guide member is further coated with the resin material. a Printed Circuit Board mounted with a plurality of Light Emitting Diodes, i.e. LEDs; and a light guide member having a plurality of reception grooves receiving the LEDs, wherein the reception grooves are filled with a resin material, characterized in that the reception grooves are formed to pierce through the light guide member, the light guide member includes one surface and the other surface opposite to the one surface, and the one surface of the light guide member is further coated with the resin material.
An organic photoconductor including: a conductive substrate; a charge generation layer formed on the conductive substrate; a charge transport layer formed on the charge generation layer; and a protective coating formed on the charge transport layer, the protective coating comprising nanoparticles incorporated in an in-situ cross-linked polymer matrix, wherein the protective coating comprises nanoparticles incorporated in the in-situ cross-linked polymer matrix together with an alcohol-soluble hole transport material embedded in the in-situ cross-linked polymer, wherein the hole transport material is a cationic alternate fluorene-based copolymer with phosphonium salt functionalized side chains. a conductive substrate; a charge generation layer formed on the conductive substrate; a charge transport layer formed on the charge generation layer; and a protective coating formed on the charge transport layer, the protective coating comprising nanoparticles incorporated in an in-situ cross-linked polymer matrix,
An apparatus comprising: a battery; a Direct Current, DC, bus connected to the battery; a DC to DC converter connected to the battery in parallel with the DC bus; an electric motor; a Motor Control Unit, MCU, connected between the DC to DC converter and the electric motor; an Alternating Current, AC, port connected to the electric motor; characterized by a plurality of switches, wherein the apparatus is configured to operate the switches to connect the DC bus and an output of the DC to DC converter in series as an input to the MCU in a drive mode and disconnect the DC bus from the MCU in a charge mode. a battery; a Direct Current, DC, bus connected to the battery; a DC to DC converter connected to the battery in parallel with the DC bus; an electric motor; a Motor Control Unit, MCU, connected between the DC to DC converter and the electric motor; an Alternating Current, AC, port connected to the electric motor; characterized by a plurality of switches, wherein the apparatus is configured to operate the switches to connect the DC bus and an output of the DC to DC converter in series as an input to the MCU in a drive mode and disconnect the DC bus from the MCU in a charge mode.
Method for the transfer of a data flow from a data source to a data sink, wherein the data flow is composed of a number of data packets, the method comprising the following steps executed by the data sink: a) receiving at least a data packet from the data source according to a first trick mode; b) sending to the data source a request for changing into another trick mode, the request comprising an identifier, ID, intended to identify data packets that are sent according to the new trick mode; c) prior to the decoding of the data packet, checking whether the data packet contains the identifier, ID, d) in the affirmative, decoding the data of the data packet in a buffer memory of the data sink, e) in the negative, removing the data packet(s) from the buffer memory. a) receiving at least a data packet from the data source according to a first trick mode; b) sending to the data source a request for changing into another trick mode, the request comprising an identifier, ID, intended to identify data packets that are sent according to the new trick mode; c) prior to the decoding of the data packet, checking whether the data packet contains the identifier, ID, d) in the affirmative, decoding the data of the data packet in a buffer memory of the data sink, e) in the negative, removing the data packet(s) from the buffer memory.
A sealing device between two cooling radiators (2, 3) installed side by side in a vehicle, in particular in a hybrid motor vehicle, characterized in that the two radiators are disposed substantially along the same median plane, and in that the said device has the form of a profile of flexible material, fixed on the cheek of a first cooling radiator and blocking the space between the two cooling radiators (2, 3).
A calculation method to calculate a degree of deterioration of a battery, the calculation method being characterized by comprising: referring to a detection value database configured to store a charge amount of a battery and a voltage of the battery, the voltage being generated when the battery is charged, while associating the charge amount of the battery with the voltage of the battery, and a function information database configured to store a function representing a relationship between an electrode potential and a charge amount of each of a plurality of active materials included in the battery; and determining a degree of deterioration of the battery by performing a regression calculation on the voltage of the battery that is stored in the detection value database, with capacities of active materials of electrodes, charge amounts of the active materials of the electrodes and an internal resistance value of the function stored in the function information database being set as variables. referring to a detection value database configured to store a charge amount of a battery and a voltage of the battery, the voltage being generated when the battery is charged, while associating the charge amount of the battery with the voltage of the battery, and a function information database configured to store a function representing a relationship between an electrode potential and a charge amount of each of a plurality of active materials included in the battery; and a detection value database configured to store a charge amount of a battery and a voltage of the battery, the voltage being generated when the battery is charged, while associating the charge amount of the battery with the voltage of the battery, and a function information database configured to store a function representing a relationship between an electrode potential and a charge amount of each of a plurality of active materials included in the battery; and determining a degree of deterioration of the battery by performing a regression calculation on the voltage of the battery that is stored in the detection value database, with capacities of active materials of electrodes, charge amounts of the active materials of the electrodes and an internal resistance value of the function stored in the function information database being set as variables.
A peptide comprising at least one antigenic determinant or epitope of an apicomplexan protein for use as a malaria vaccine, wherein the amino acid sequence of the antigenic determinant or epitope has a length of at least 8 amino acids, and wherein the apicomplexan protein is selected from Plasmodium falciparum Ferlin (Pf FER) and the amino acid sequence of the antigenic determinant or epitope is selected from NLLDPLVVV [SEQ ID NO. 4], YLYVNIHKI [SEQ ID NO. 5], LLLEGNFYL [SEQ ID NO. 6], KLIPVNYEL [SEQ ID NO. 7], YLYEKQQEL [SEQ ID NO. 8], and I L I P S L P L I [SEQ ID NO.9], and/or wherein the apicomplexan protein is Plasmodium berghei Ferlin-like protein (Pb FLP) and the amino acid sequence of the antigenic determinant or epitope is selected from SRYFFRAL [SEQ ID NO. 10], LNYVYSKV [SEQ ID NO. 11], IGYTYIDM [SEQ ID NO. 12], and VGTAYITL [SEQ ID NO. 13], and/or wherein the apicomplexan protein is Plasmodium berghei C2-domain containing protein (Pb C2CP) and the amino acid sequence of the antigenic determinant or epitope is selected from A Y I A P H T I I [SEQ ID NO. 22], TIRSFYKRL [SEQ ID NO. 23], S P Y L F N I V [SEQ ID NO. 24], and A I Y R F N A I [SEQ ID NO. 25]. NLLDPLVVV [SEQ ID NO. 4], YLYVNIHKI [SEQ ID NO. 5], LLLEGNFYL [SEQ ID NO. 6], KLIPVNYEL [SEQ ID NO. 7], YLYEKQQEL [SEQ ID NO. 8], and I L I P S L P L I [SEQ ID NO.9], SRYFFRAL [SEQ ID NO. 10], LNYVYSKV [SEQ ID NO. 11], IGYTYIDM [SEQ ID NO. 12], and VGTAYITL [SEQ ID NO. 13], A Y I A P H T I I [SEQ ID NO. 22], TIRSFYKRL [SEQ ID NO. 23], S P Y L F N I V [SEQ ID NO. 24], and A I Y R F N A I [SEQ ID NO. 25].
A method for providing global load balancing by an appliance among heterogeneous load balancing devices (200A, 200N, 500A, 500N), the method comprising the steps of: (a) obtaining, by an appliance, a first set of one or more metrics (510A, 510N) from a first load balancing device (200A, 200N) via a predetermined metric exchange protocol; (b) identifying, via the appliance, a second load balancing device (500A, 500N), the second load balancing device (500A, 500N) comprising a different type of load balancer than the first load balancing device (200A, 200N); (c) obtaining, by the appliance, a second set of one or more metrics (520A, 520N) from the second load balancing device (500A, 500N) via a network management protocol; (d) determining, by the appliance, a load of the first load balancing device (200A, 200N) and the second load balancing device (500A, 500N) based on a first metric established by the appliance and a second metric selected by a user from one of the first set of one or more metrics (510A, 510N) obtained via the predetermined metric exchange protocol or the second set of one or more metrics (520A, 520N) obtained via the network management protocol. (a) obtaining, by an appliance, a first set of one or more metrics (510A, 510N) from a first load balancing device (200A, 200N) via a predetermined metric exchange protocol; (b) identifying, via the appliance, a second load balancing device (500A, 500N), the second load balancing device (500A, 500N) comprising a different type of load balancer than the first load balancing device (200A, 200N); (c) obtaining, by the appliance, a second set of one or more metrics (520A, 520N) from the second load balancing device (500A, 500N) via a network management protocol; (d) determining, by the appliance, a load of the first load balancing device (200A, 200N) and the second load balancing device (500A, 500N) based on a first metric established by the appliance and a second metric selected by a user from one of the first set of one or more metrics (510A, 510N) obtained via the predetermined metric exchange protocol or the second set of one or more metrics (520A, 520N) obtained via the network management protocol.
A three-dimensional shaped object production device, which is configured to produce a three-dimensional shaped object, the three-dimensional shaped object production device comprising: a plate, on which the three-dimensional shaped object is placeable; ball forming means for forming a ball at a leading end of a conductive wire, which is inserted into a capillary and is paid out from a leading end of the capillary, by applying high voltage between the leading end of the conductive wire and a spark rod; positioning means (20, 25, 30) for positioning the plate and the ball forming means by moving the plate and the ball forming means relative to each other; and bonding means for bonding the ball formed at the leading end of the capillary to at least one of the plate or another ball that has already been stacked on the plate, wherein the forming of the ball by the ball forming means, the positioning by the positioning means, and the bonding of the ball formed at the leading end of the capillary by the bonding means are repeated to stack the ball on the plate, to thereby produce a three-dimensional shaped object having a desired shape, characterized in that at least a surface of the plate is formed of a conductive material, and wherein the ball formed at the leading end of the capillary is bonded by applying high voltage between the ball formed at the leading end of the capillary and the plate or wherein the ball formed at the leading end of the capillary is bonded by causing current to flow between the ball formed at the leading end of the capillary and the plate under a state in which a surface of the ball formed at the leading end of the capillary and a surface of the another ball that has already been stacked on the plate are brought into contact with each other. a plate, on which the three-dimensional shaped object is placeable; ball forming means for forming a ball at a leading end of a conductive wire, which is inserted into a capillary and is paid out from a leading end of the capillary, by applying high voltage between the leading end of the conductive wire and a spark rod; positioning means (20, 25, 30) for positioning the plate and the ball forming means by moving the plate and the ball forming means relative to each other; and bonding means for bonding the ball formed at the leading end of the capillary to at least one of the plate or another ball that has already been stacked on the plate, wherein the forming of the ball by the ball forming means, the positioning by the positioning means, and the bonding of the ball formed at the leading end of the capillary by the bonding means are repeated to stack the ball on the plate, to thereby produce a three-dimensional shaped object having a desired shape, characterized in that at least a surface of the plate is formed of a conductive material, and wherein the ball formed at the leading end of the capillary is bonded by applying high voltage between the ball formed at the leading end of the capillary and the plate or
A feedwell for a thickener/clarifier, said feedwell comprising: a feedwell body, a sidewall, a feedwell inlet for directing an influent stream to the feedwell along the sidewall, a discharge opening for passing fluids and solids from the feedwell to a settling tank, a shelf extending radially-inwardly from the sidewall from an outer edge to an inner edge which is adjacent the discharge opening, wherein a width of the shelf changes as the shelf extends along the sidewall, and a spill lip extending radially-inwardly from the inner edge of the shelf, and further surrounding and effectively reducing the size of the discharge opening, characterised in that the sidewall defines a radially-outermost fluid boundary surface of the feedwell, the sidewall comprising at least one of a volute surface, a helical surface, a coil surface, a compound curve surface, a spline curve surface, or a spiral surface. a feedwell body, a sidewall, a feedwell inlet for directing an influent stream to the feedwell along the sidewall, a discharge opening for passing fluids and solids from the feedwell to a settling tank, a shelf extending radially-inwardly from the sidewall from an outer edge to an inner edge which is adjacent the discharge opening, wherein a width of the shelf changes as the shelf extends along the sidewall, and a spill lip extending radially-inwardly from the inner edge of the shelf, and further surrounding and effectively reducing the size of the discharge opening,
A method of making a bonded refractory mold, comprising: forming a fugitive pattern comprising a thermally removable material; forming a refractory mold comprising a mold wall, the mold wall comprising a refractory material and defining a sprue, a gate and a mold cavity, the gate having a gate inlet opening into the sprue and a gate outlet opening into the mold cavity, the mold defined by the fugitive pattern; forming a gas vent that extends through the mold wall; and covering the gas vent with a gas permeable cover, characterized in that forming a gas vent that extends through the mold wall comprises forming a hole in the gate or the sprue. forming a fugitive pattern comprising a thermally removable material; forming a refractory mold comprising a mold wall, the mold wall comprising a refractory material and defining a sprue, a gate and a mold cavity, the gate having a gate inlet opening into the sprue and a gate outlet opening into the mold cavity, the mold defined by the fugitive pattern; forming a gas vent that extends through the mold wall; and covering the gas vent with a gas permeable cover, characterized in that forming a gas vent that extends through the mold wall comprises forming a hole in the gate or the sprue.
Process for the production of a transparent support covered with a deposit of inorganic nanoparticles, said deposit having micro gaps, comprising the following steps: (a) application of a solution of polyelectrolyte having ionised functional groups to a transparent support, followed by at least one washing and drying step to form a charged polyelectrolyte deposit on said support; (b) application of a solution of polymer microparticles having ionised groups with charges opposed to those of the polyelectrolyte deposit to said polyelectrolyte deposit, followed by at least one washing step for the formation of a deposit of charged polymer microparticles on the polyelectrolyte deposit; (c) covering the deposit of charged polymer microparticles with a solution of polyelectrolyte having ionised functional groups with charges opposed to those of the charged polymer microparticles of step (b), followed by at least one washing and drying step to form a charged polyelectrolyte deposit; (d) application of a solution of ionised inorganic nanoparticles having surface charges opposed to those of the charges of the polyelectrolyte of step (c) to the charged polyelectrolyte deposit, followed by at least one washing step to form at least one layer of ionised inorganic nanoparticles; (e) removal of the deposit of polymer microparticles of step (b) and the deposits of polyelectrolyte of steps (a) and (c) to obtain the deposit of inorganic nanoparticles having micro gaps. (a) application of a solution of polyelectrolyte having ionised functional groups to a transparent support, followed by at least one washing and drying step to form a charged polyelectrolyte deposit on said support; (b) application of a solution of polymer microparticles having ionised groups with charges opposed to those of the polyelectrolyte deposit to said polyelectrolyte deposit, followed by at least one washing step for the formation of a deposit of charged polymer microparticles on the polyelectrolyte deposit; (c) covering the deposit of charged polymer microparticles with a solution of polyelectrolyte having ionised functional groups with charges opposed to those of the charged polymer microparticles of step (b), followed by at least one washing and drying step to form a charged polyelectrolyte deposit; (d) application of a solution of ionised inorganic nanoparticles having surface charges opposed to those of the charges of the polyelectrolyte of step (c) to the charged polyelectrolyte deposit, followed by at least one washing step to form at least one layer of ionised inorganic nanoparticles; (e) removal of the deposit of polymer microparticles of step (b) and the deposits of polyelectrolyte of steps (a) and (c) to obtain the deposit of inorganic nanoparticles having micro gaps.
A personal communication system adapted to be distributed on a user's body, the system comprising: an input device configured to be worn on the forearm of the user and having keys (218 a, 218b) for entering user inputs into the system and a display for providing user outputs from the system, the input device having an indicia reading device comprising a scanner or an imager integrated therein, wherein the scanner is configured to output a scanning beam toward a target or wherein the imager is configured to illuminate a whole image and detect optical energy reflected from the illuminated image; and a central processing unit in communication with the input device, wherein communication between the central processing unit and the input device is accomplished over a wireless communication channel, the system being characterised by further comprising: a ring member adapted to be worn on the user's finger, the ring member having a trigger button configured to trigger the indicia reading device, a battery designed to fit around a portion of the user's finger, and wireless communication circuitry for communicating with the input device. an input device configured to be worn on the forearm of the user and having keys (218 a, 218b) for entering user inputs into the system and a display for providing user outputs from the system, the input device having an indicia reading device comprising a scanner or an imager integrated therein, wherein the scanner is configured to output a scanning beam toward a target or wherein the imager is configured to illuminate a whole image and detect optical energy reflected from the illuminated image; and a central processing unit in communication with the input device, wherein communication between the central processing unit and the input device is accomplished over a wireless communication channel, the system being characterised by further comprising: a ring member adapted to be worn on the user's finger, the ring member having a trigger button configured to trigger the indicia reading device, a battery designed to fit around a portion of the user's finger, and wireless communication circuitry for communicating with the input device.
Arrangement for operating an exhaust gas aftertreatment device, in particular of a motor vehicle, wherein the arrangement comprises a plurality of consumers and a control module, wherein the control module comprises at least one switching unit for switching the consumers on and off, characterized in that the consumers are switched by low-side switches in order to fulfil their function and, grouped according to their function, are in each case connected to one safety switch, embodied as a high-side switch, of the switching unit, in that a first group of consumers comprises at least one actuator of an injection valve for the exhaust gas aftertreatment agent, in that as consumers (4, 5), a second group comprises actuators for operating valves for performing particle filter regeneration, and in that a third group comprises consumers which are provided for building up pressure for the exhaust gas aftertreatment agent.