mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a distribution robot, comprising acquiring, by a first distribution robot in a first group, its own position information and position information of a second distribution robot, wherein the first group is a group which multiple distribution robots are added into and the first group is used for message sharing among the multiple distribution robots within the first group; wherein the multiple distribution robots comprise the first distribution robot and the second distribution robot, and the second distribution robot is a distribution robot closest to the first distribution robot that departs from a departure point before the first distribution robot departs from the departure point; and controlling, by the first distribution robot, its own driving state according to its own position information, the position information of the second distribution robot, and a preset driving route, so that the first distribution robot drives at a fastest speed in a case that a distance to the second distribution robot is not less than a preset safe distance. acquiring, by a first distribution robot in a first group, its own position information and position information of a second distribution robot, wherein the first group is a group which multiple distribution robots are added into and the first group is used for message sharing among the multiple distribution robots within the first group; wherein the multiple distribution robots comprise the first distribution robot and the second distribution robot, and the second distribution robot is a distribution robot closest to the first distribution robot that departs from a departure point before the first distribution robot departs from the departure point; and controlling, by the first distribution robot, its own driving state according to its own position information, the position information of the second distribution robot, and a preset driving route, so that the first distribution robot drives at a fastest speed in a case that a distance to the second distribution robot is not less than a preset safe distance.
An engine coolant composition comprising: - between 85 % by weight and 95 % by weight of a glycol-based coolant liquid; - between 0.1 % by weight and 10 % by weight of a first carboxyl component selected from the group consisting of aliphatic dibasic acids or their salts having from five to 13 carbons, and mixtures thereof; - between 0.01 % by weight and 1 % by weight of isononanoic acid or a salt thereof; and - at least one inorganic acid or its salt as a corrosion inhibitor, selected from the group consisting of molybdates, phosphates, and combinations thereof; wherein the composition excludes nitrous acid or the alkali metal, alkaline earth, or ammonium salts thereof. - between 85 % by weight and 95 % by weight of a glycol-based coolant liquid; - between 0.1 % by weight and 10 % by weight of a first carboxyl component selected from the group consisting of aliphatic dibasic acids or their salts having from five to 13 carbons, and mixtures thereof; - between 0.01 % by weight and 1 % by weight of isononanoic acid or a salt thereof; and - at least one inorganic acid or its salt as a corrosion inhibitor, selected from the group consisting of molybdates, phosphates, and combinations thereof; wherein the composition excludes nitrous acid or the alkali metal, alkaline earth, or ammonium salts thereof.
A dehumidifier, comprising a body, wherein the body comprises: a housing defining an air inlet and an air outlet; a condenser provided in the housing; and an evaporator provided in the housing; an axial flow fan vertically provided in the housing, and the axial flow fan lying alongside the condenser and the evaporator; and a water receiving tray below the condenser, the evaporator and the axial flow fan, the water receiving tray dividing the housing into an axial flow duct configured for heat exchange, and an installation cavity configured for installing other common components of the dehumidifier, characterized in that the dehumidifier further comprises an isolation plate, the isolation plate is located in the installation cavity, a side of the isolation plate is connected to the bottom of the housing, an opposite side of the isolation plate is fixedly connected to a bottom of the water receiving tray. a housing defining an air inlet and an air outlet; a condenser provided in the housing; and an evaporator provided in the housing; an axial flow fan vertically provided in the housing, and the axial flow fan lying alongside the condenser and the evaporator; and a water receiving tray below the condenser, the evaporator and the axial flow fan, the water receiving tray dividing the housing into an axial flow duct configured for heat exchange, and an installation cavity configured for installing other common components of the dehumidifier, characterized in that the dehumidifier further comprises an isolation plate, the isolation plate is located in the installation cavity, a side of the isolation plate is connected to the bottom of the housing, an opposite side of the isolation plate is fixedly connected to a bottom of the water receiving tray.
A mobile "plug-and-play" device for storing and supplying multiple liquid fertilizers, comprising a housing, enclosing - two or more storage units, each suitable for storing a different liquid fertilizer of which at least one is acid-based and at least one is alkaline-based, wherein each storage unit is provided with a storage unit level measurement system, a storage unit filling system and a storage unit venting system; - a safety drain liquid fertilizer storage, comprising at least two separate collectors for the separate containment of spilled liquid fertilizer, to contain and separate spilled acid-based and alkaline-based liquid fertilizers; - a dosing and controlling system; and wherein the housing is equipped with a connection for the input of a water flow, at least two connections for the output of two different and separate flows of liquid fertilizer, designed to be connected to a fertigation system that uses a two-tank nutrient system, and an output for venting gasses. - two or more storage units, each suitable for storing a different liquid fertilizer of which at least one is acid-based and at least one is alkaline-based, wherein each storage unit is provided with a storage unit level measurement system, a storage unit filling system and a storage unit venting system; - a safety drain liquid fertilizer storage, comprising at least two separate collectors for the separate containment of spilled liquid fertilizer, to contain and separate spilled acid-based and alkaline-based liquid fertilizers; - a dosing and controlling system; and
A communication system comprising a wireless communication device and a server, wherein the wireless communication device, includes: a memory comprising executable instructions, a device type corresponding to wireless device, and an authorization configuration having an authorization schema that identifies at least one of authorized executable instructions and unauthorized executable instructions, wherein the authorization schema is based on the device type; and a executable instruction authorization module resident in the memory, the executable instruction authorization module comprising authorization logic operable to scan executable instructions in the memory and generate a log based upon the authorization configuration, the log comprising unauthorized executable instructions based upon the authorization schema, wherein the executable instruction authorisation module is operable to transmit the generated log to the server to determine whether or not the instructions in the log are authorised. a memory comprising executable instructions, a device type corresponding to wireless device, and an authorization configuration having an authorization schema that identifies at least one of authorized executable instructions and unauthorized executable instructions, wherein the authorization schema is based on the device type; and a executable instruction authorization module resident in the memory, the executable instruction authorization module comprising authorization logic operable to scan executable instructions in the memory and generate a log based upon the authorization configuration, the log comprising unauthorized executable instructions based upon the authorization schema, wherein the executable instruction authorisation module is operable to transmit the generated log to the server to determine whether or not the instructions in the log are authorised.
A hot melt adhesive composition comprising: from 15 % by weight to no greater than 75 % by weight propylene polymer derived from at least 50 % by weight propylene and from 0 mole % to 37.5 mole % of an alpha-olefin comonomer other than propylene, the propylene polymer exhibiting a heat of fusion of from 5 Joules per gram (J/g) to 60 J/g; from 5 % by weight to 50 % by weight ethylene alpha-olefin copolymer derived from at least 50 % by weight ethylene and at least one alpha-olefin comonomer having at least three carbon atoms, the ethylene alpha-olefin copolymer having a density of no greater than 0.90 g/cm 3; at least 35 % by weight polymer, the polymer including the propylene polymer, the ethylene copolymer and, optionally, additional polymers; and from 18 % by weight to 37 % by weight of a wax component exhibiting a melting point greater than 80 °C and a heat of fusion of at least 200 J/g, the composition exhibiting a set time of no greater than 1.5 seconds at an application temperature of at least 149 °C. from 15 % by weight to no greater than 75 % by weight propylene polymer derived from at least 50 % by weight propylene and from 0 mole % to 37.5 mole % of an alpha-olefin comonomer other than propylene, the propylene polymer exhibiting a heat of fusion of from 5 Joules per gram (J/g) to 60 J/g; from 5 % by weight to 50 % by weight ethylene alpha-olefin copolymer derived from at least 50 % by weight ethylene and at least one alpha-olefin comonomer having at least three carbon atoms, the ethylene alpha-olefin copolymer having a density of no greater than 0.90 g/cm 3; at least 35 % by weight polymer, the polymer including the propylene polymer, the ethylene copolymer and, optionally, additional polymers; and from 18 % by weight to 37 % by weight of a wax component exhibiting a melting point greater than 80 °C and a heat of fusion of at least 200 J/g, the composition exhibiting a set time of no greater than 1.5 seconds at an application temperature of at least 149 °C.
A method of forming an electrode structure, comprising: (a) depositing a porous electrode on a current collector by spraying onto the current collector a dry mixture comprising: (i) a carbon; and (ii) a binder; and, (b) heating the product of (a) to cure the binder characterised in that said mixture is prepared by mixing dry powdered activated carbon with an acrylic emulsion of an aqueous 12 wt% poly(butyl acrylate)/88 wt% poly(methyl methacrylate) emulsion polymer in a wt% ratio of 50:50 to 95:5 and drying the mixture under vacuum at 60°C for 24hours. (a) depositing a porous electrode on a current collector by spraying onto the current collector a dry mixture comprising: (i) a carbon; and (ii) a binder; and, (i) a carbon; and (ii) a binder; and, (b) heating the product of (a) to cure the binder characterised in that said mixture is prepared by mixing dry powdered activated carbon with an acrylic emulsion of an aqueous 12 wt% poly(butyl acrylate)/88 wt% poly(methyl methacrylate) emulsion polymer in a wt% ratio of 50:50 to 95:5 and drying the mixture under vacuum at 60°C for 24hours.
System comprising an energy store and an emitter, wherein the energy store is electrically detachably connected to the emitter, in particular by means of a plug-in connection or a clamping connection, and electrically powers the emitter, characterized in that the system comprises an electrical device, which has a lid part that is rotatably mounted on a housing part of the electrical device, wherein the emitter is accommodated in the lid part, wherein a rotatably mounted wheel is provided on the housing part in order to move the electrical device. wherein the energy store is electrically detachably connected to the emitter, in particular by means of a plug-in connection or a clamping connection, and electrically powers the emitter, characterized in that the system comprises an electrical device, which has a lid part that is rotatably mounted on a housing part of the electrical device, wherein the emitter is accommodated in the lid part, wherein a rotatably mounted wheel is provided on the housing part in order to move the electrical device.
A motor terminal assembly comprising: a bracket formed with a terminal hole; and a motor terminal comprising: a body comprising a connection terminal, a rear end portion allowing the connection terminal to be connected to a busbar terminal, and a front end portion allowing the connection terminal to be connected to a terminal of another component; a cable connected to the rear end portion of the connection terminal; and a pair of hook portions formed on both sides of the body, respectively, and configured so as to be open to be further away from each other as directed toward the front end portion from the rear end portion and to be elastically deformable, wherein the front end portion has a larger cross-section than the terminal hole so as to be caught by the terminal hole, and the rear end portion of the body has a smaller horizontal cross-section than the terminal hole so as to move in the terminal hole, characterized in that the body comprises a first part in which one of the hook portions is formed and a second part in which the other of the hook portions is formed, and wherein the first part and the second part are mutually assembled to the connection terminal so as to be coupled to each other. a bracket formed with a terminal hole; and a motor terminal comprising: a body comprising a connection terminal, a rear end portion allowing the connection terminal to be connected to a busbar terminal, and a front end portion allowing the connection terminal to be connected to a terminal of another component; a cable connected to the rear end portion of the connection terminal; and a pair of hook portions formed on both sides of the body, respectively, and configured so as to be open to be further away from each other as directed toward the front end portion from the rear end portion and to be elastically deformable, a body comprising a connection terminal, a rear end portion allowing the connection terminal to be connected to a busbar terminal, and a front end portion allowing the connection terminal to be connected to a terminal of another component; a cable connected to the rear end portion of the connection terminal; and a pair of hook portions formed on both sides of the body, respectively, and configured so as to be open to be further away from each other as directed toward the front end portion from the rear end portion and to be elastically deformable, wherein the front end portion has a larger cross-section than the terminal hole so as to be caught by the terminal hole, and the rear end portion of the body has a smaller horizontal cross-section than the terminal hole so as to move in the terminal hole, characterized in that the body comprises a first part in which one of the hook portions is formed and a second part in which the other of the hook portions is formed, and wherein the first part and the second part are mutually assembled to the connection terminal so as to be coupled to each other.
A method of wireless communication performed by a user equipment, UE, comprising: determining an energy per resource element, EPRE, value for a slot based at least in part on whether the slot is associated with a half-duplex configuration or a full-duplex configuration, wherein the EPRE value is a first value when the slot is associated with the half-duplex configuration and a second value when the slot is associated with the full-duplex configuration; and performing a communication in the slot in accordance with the EPRE value. determining an energy per resource element, EPRE, value for a slot based at least in part on whether the slot is associated with a half-duplex configuration or a full-duplex configuration, wherein the EPRE value is a first value when the slot is associated with the half-duplex configuration and a second value when the slot is associated with the full-duplex configuration; and performing a communication in the slot in accordance with the EPRE value.
A battery pack comprising: a battery module comprising at least one unit cell; a rack housing configured to receive at least one battery module; a lower housing having an inner space in a form in which an upper part of the lower housing is open, the lower housing being configured to receive the battery module in the inner space; an upper housing coupled to the open upper part of the lower housing, the upper housing having an inner space configured to receive the battery module; and a laser unit disposed at one surface of the rack housing, the laser unit being configured to sense a gas using Mie scattering characterized in that the laser unit comprises: a laser irradiation part formed at one surface of the rack housing, the rack housing being configured to receive a plurality of batteries of the battery pack, the laser irradiation part being configured to irradiate laser light; a laser receiver part configured to receive the laser light irradiated by the laser irradiation part, the laser receiver part being formed at the other surface of the rack housing opposite the laser irradiation part; and a control part configured to compare an intensity of the laser light received by the laser receiver part with a reference value in order to determine generation of a gas. a battery module comprising at least one unit cell; a rack housing configured to receive at least one battery module; a lower housing having an inner space in a form in which an upper part of the lower housing is open, the lower housing being configured to receive the battery module in the inner space; an upper housing coupled to the open upper part of the lower housing, the upper housing having an inner space configured to receive the battery module; and a laser irradiation part formed at one surface of the rack housing, the rack housing being configured to receive a plurality of batteries of the battery pack, the laser irradiation part being configured to irradiate laser light; a laser receiver part configured to receive the laser light irradiated by the laser irradiation part, the laser receiver part being formed at the other surface of the rack housing opposite the laser irradiation part; and a control part configured to compare an intensity of the laser light received by the laser receiver part with a reference value in order to determine generation of a gas.
An image forming apparatus comprising: an image bearing member configured to bear a latent electrostatic image; a charging member configured to charge a surface of the image bearing member; an irradiation member configured to irradiate the image bearing member to write the latent electrostatic image; a development member configured to develop the latent electrostatic image with a toner to form a visualized image; a transfer device configured to transfer the visualized image directly or via an intermediate transfer body to a recording medium; a fixing device configured to fix the transferred image transferred on the recording medium; and a cleansing device configured to remove residual toner remaining on the image bearing member, wherein the cleaning device comprises an elastic member having a blade form the front end of which is in contact with the image bearing member with a pressure of from 2 to 6 MPa and wherein the image forming apparatus contains a toner and the toner is granulated in an aqueous phase and comprises a laminar inorganic mineral in which at least part of metal cations between layers is substituted with quaternary ammonium ion and the mean value of the form factor SF-1 of the toner is from 130 to 160. an image bearing member configured to bear a latent electrostatic image; a charging member configured to charge a surface of the image bearing member; an irradiation member configured to irradiate the image bearing member to write the latent electrostatic image; a development member configured to develop the latent electrostatic image with a toner to form a visualized image; a transfer device configured to transfer the visualized image directly or via an intermediate transfer body to a recording medium; a fixing device configured to fix the transferred image transferred on the recording medium; and a cleansing device configured to remove residual toner remaining on the image bearing member, wherein the cleaning device comprises an elastic member having a blade form the front end of which is in contact with the image bearing member with a pressure of from 2 to 6 MPa and wherein the image forming apparatus contains a toner and the toner is granulated in an aqueous phase and comprises a laminar inorganic mineral in which at least part of metal cations between layers is substituted with quaternary ammonium ion and the mean value of the form factor SF-1 of the toner is from 130 to 160.
A dynamo-electric machine having a stator or a rotor including a wound coil formed by winding a conducting wire that is wrapped in a first insulant (2, 21) which is mainly formed of an inorganic material, a slot core containing the wound coil, a second insulant (2, 22) arranged around the wound coil and mainly formed of an inorganic material, and a third insulant arranged between the second insulant (2, 22) and the core and mainly formed of an organic material, wherein the third insulant includes a mixture of silica and polyimide.