mhurhangee/ep-ind-claims huggingface dataset:
A working machine comprising an undercarriage, a working machine main body mounted on the undercarriage, a front working mechanism attached pivotally in an up-and-down direction to the working machine main body, and a safety system provided with a controller for controlling the undercarriage, working machine main body and front working mechanism, wherein: the controller is provided with a zero moment point calculating means for calculating coordinates of a ZMP by using position information, acceleration information and external force information on respective movable portions of the main body, which includes the front working mechanism, and undercarriage, and a stability computing means for calculating a support polygon formed by plural ground contact points of the working machine with a ground, and, when the ZMP position is included in a warning region formed inside a perimeter of the support polygon, producing a tipping warning; the safety system is provided with a display for displaying a top plan view of the working machine and the ZMP position of the working machine relative to the support polygon; the ZMP calculating means and stability computing means compute and display the ZMP position and the support polygon including the warning region therein; and the safety system produces the tipping warning when the calculated ZMP position is included in the warning region formed inside the perimeter of the support polygon, characterized in that the controller has a ZMP storing means for storing a record of the ZMP position during a predetermined time period set beforehand, and displays the record of the ZMP position by the display. the controller is provided with a zero moment point calculating means for calculating coordinates of a ZMP by using position information, acceleration information and external force information on respective movable portions of the main body, which includes the front working mechanism, and undercarriage, and a stability computing means for calculating a support polygon formed by plural ground contact points of the working machine with a ground, and, when the ZMP position is included in a warning region formed inside a perimeter of the support polygon, producing a tipping warning; the safety system is provided with a display for displaying a top plan view of the working machine and the ZMP position of the working machine relative to the support polygon; the ZMP calculating means and stability computing means compute and display the ZMP position and the support polygon including the warning region therein; and the safety system produces the tipping warning when the calculated ZMP position is included in the warning region formed inside the perimeter of the support polygon, characterized in that the controller has a ZMP storing means for storing a record of the ZMP position during a predetermined time period set beforehand, and displays the record of the ZMP position by the display.
A speaker position detection system comprising: a first speaker unit having at least one speaker; a second speaker unit having a speaker and a plurality of microphones(22a,22b); a detection unit configured to calculate position information between the first speaker unit and the second speaker unit; wherein the detection unit is configured to cause the speaker included in the first speaker unit to output a test sound, characterised in that the detection unit is further configured to acquire a time difference (ΔT1) between times (t1L, t1R) when the microphones (22a,22b) receive the test sound; to normalize the time difference, based on the times (t1L, t1R) taken for the test sound to reach the microphones from the speaker; and to calculate the position information representing the position between the first speaker unit and the second speaker unit, based on the normalized difference. a first speaker unit having at least one speaker; a second speaker unit having a speaker and a plurality of microphones(22a,22b); a detection unit configured to calculate position information between the first speaker unit and the second speaker unit; wherein the detection unit is configured to cause the speaker included in the first speaker unit to output a test sound, characterised in that the detection unit is further configured to acquire a time difference (ΔT1) between times (t1L, t1R) when the microphones (22a,22b) receive the test sound; to normalize the time difference, based on the times (t1L, t1R) taken for the test sound to reach the microphones from the speaker; and to calculate the position information representing the position between the first speaker unit and the second speaker unit, based on the normalized difference.
A device for skimming petrochemical or chemical fluid storage tanks working by gravitation, the petrochemical or chemical fluid having a density d2 and being covered by a surface fluid with a density d1 lower than d2, the device comprising: - buoyancy means floating at the interface between the fluid with density d1 and the fluid with density d2; - means for collecting surface fluid to be skimmed including an opening emerging above the interface between the fluid with density d1 and the fluid with density d2, the collection means being connected to the buoyancy means, and connection means submerged in the fluid with density d2; and - means for discharging the collected surface fluid, the discharge means being connected to the connection means of the collecting means and extending vertically in the fluid with density d2 toward the bottom of the tank, characterized in that the discharge means comprise at least two flexible pipes (41, 42) connected symmetrically to the connection means, and in that the at least two flexible pipes (41, 42) are arranged in a Chinese lantern configuration. - buoyancy means floating at the interface between the fluid with density d1 and the fluid with density d2; - means for collecting surface fluid to be skimmed including an opening emerging above the interface between the fluid with density d1 and the fluid with density d2, the collection means being connected to the buoyancy means, and connection means submerged in the fluid with density d2; and - means for discharging the collected surface fluid, the discharge means being connected to the connection means of the collecting means and extending vertically in the fluid with density d2 toward the bottom of the tank,
A method for transferring energy from a stationary unit of a linear transport system to a movable unit of a linear transport system, wherein the linear transport system comprises a guide rail for guiding the movable unit, a plurality of stationary units, and a linear motor for driving the movable unit along the guide rail, wherein the linear motor comprises a stator and a rotor, wherein the stator comprises the stationary units, each comprising one or a plurality of drive coils, wherein the rotor is arranged on the movable unit and comprises one or a plurality of magnets, wherein the stationary units each comprise one or a plurality of energy-transmitting coils, wherein the movable unit comprises at least one energy-receiving coil, wherein the linear transport system comprises a controller, wherein the following steps are carried out by the controller: - determining position data of the energy-receiving coil of the movable unit; - selecting at least one energy-transmitting coil within the linear transport system based on position data from the energy-receiving coil; - outputting a control signal to the stationary unit comprising the at least one energy-transmitting coil, comprising an identification information by which the at least one energy-transmitting coil may be identified, wherein the control signal comprises energy quantity information, wherein the energy quantity information comprises an energy quantity to be transmitted, wherein the quantity of energy comprises a load energy quantity at a first point in time and an idle energy quantity at a second point in time, wherein the load energy quantity is sufficient to operate a tool arranged on the movable unit, wherein the idle energy quantity is sufficient to maintain a power supply to a communication unit of the movable unit, however, is not sufficient to have the tool carry out an additional action. - determining position data of the energy-receiving coil of the movable unit; - selecting at least one energy-transmitting coil within the linear transport system based on position data from the energy-receiving coil; - outputting a control signal to the stationary unit comprising the at least one energy-transmitting coil, comprising an identification information by which the at least one energy-transmitting coil may be identified, wherein the control signal comprises energy quantity information, wherein the energy quantity information comprises an energy quantity to be transmitted, wherein the quantity of energy comprises a load energy quantity at a first point in time and an idle energy quantity at a second point in time, wherein the load energy quantity is sufficient to operate a tool arranged on the movable unit, wherein the idle energy quantity is sufficient to maintain a power supply to a communication unit of the movable unit, however, is not sufficient to have the tool carry out an additional action.
Coating device arrangement for a 3D printer, comprising: a coating device having a container which is formed to be elongate and which defines an inner cavity for receiving particulate construction material, which leads to an opening for outputting the particulate construction material, which is formed as an elongate slot, and a closing device configured to selectively close the opening for outputting the particulate construction material, wherein the closing device comprises at least one closing member attached to the coating device, which is elongate in shape and which is configured to selectively cover the opening at least in part as a result of a lateral movement and/or deformation, characterized in that the at least one closing member is formed by a hollow body, the inner cavity of which is limited by a deformable portion, the hollow body being configured to be deformed outward by a pressure fluid supplied to the hollow body, thereby expanding the inner cavity, to thereby cover the opening at least in part. a coating device having a container which is formed to be elongate and which defines an inner cavity for receiving particulate construction material, which leads to an opening for outputting the particulate construction material, which is formed as an elongate slot, and a closing device configured to selectively close the opening for outputting the particulate construction material, wherein the closing device comprises at least one closing member attached to the coating device, which is elongate in shape and which is configured to selectively cover the opening at least in part as a result of a lateral movement and/or deformation, characterized in that the at least one closing member is formed by a hollow body, the inner cavity of which is limited by a deformable portion, the hollow body being configured to be deformed outward by a pressure fluid supplied to the hollow body, thereby expanding the inner cavity, to thereby cover the opening at least in part.
A charging stand for a vacuum cleaner, comprising: a body; a pedal, disposed to the body and pivotable between a first position and a second position; and a safety protection device, disposed to the body, normally cooperating with the pedal, and separating from cooperation with the pedal to make the pedal move from the first position to the second position when the safety protection device is moved, wherein the pedal is horizontally disposed when located at the first position. a body; a pedal, disposed to the body and pivotable between a first position and a second position; and a safety protection device, disposed to the body, normally cooperating with the pedal, and separating from cooperation with the pedal to make the pedal move from the first position to the second position when the safety protection device is moved, wherein the pedal is horizontally disposed when located at the first position.
A Floating Production, Storage and Offloading (FPSO) vessel anode for controlling the corrosion of a hull of a FPSO vessel, the anode including: a first portion being electrically conductive; a second portion being electrically insulative; and a connector being electrically insulative; wherein the connector is attached to an end of the second portion and the first portion is attached at an opposite end of the second portion from the connector, the first and second portions (32, 34) each having a width of equal to or more than 5cm and a total combined length of equal to or more than 100cm; and the anode being configured for protruding through and outside the hull through a hole in the hull. a first portion being electrically conductive; a second portion being electrically insulative; and a connector being electrically insulative; wherein the connector is attached to an end of the second portion and the first portion is attached at an opposite end of the second portion from the connector, the first and second portions (32, 34) each having a width of equal to or more than 5cm and a total combined length of equal to or more than 100cm; and the anode being configured for protruding through and outside the hull through a hole in the hull.
A method for producing coal, asphalt, liquid hydrocarbon, organic acids, methane gas and/or hydrogen from a waste material comprising: a) providing a waste material; b) subjecting the waste material to irradiation with low frequency macro waves, with a wavelength of between 700 nm and 1 mm, whereby the temperature is between 205°C and 900°C and the pressure is between 1.0 bar and 19.0 bar, thereby producing coal; wherein in step b) said waste material is subjected to irradiation in a reaction vessel having a double metal wall, whereby an outer metal wall of said reaction vessel is heated by a primary source of radiation, whereby a heat source is located peripherally whereby the reaction vessel is not in direct contact with the heat source, whereby said outer metal wall and an inner metal wall of said double metal wall are not in direct heat transducing contact with one another, whereby said outer wall blocks the transfer of thermal energy by conduction and convection, whereby said outer metal wall is a secondary source of radiation for said material contained within said inner metal wall and whereby photon radiation from said outer wall passes through said inner wall of said reaction vessel, so that the material contained within said inner wall of said reaction vessel is irradiated by both said inner wall and said outer wall of said reaction vessel; wherein said waste material has a composition with a carbon content of 9-85%, a hydrogen content of 1-15% and an oxygen content of 0-65% based on dry weight of the material. a) providing a waste material; b) subjecting the waste material to irradiation with low frequency macro waves, with a wavelength of between 700 nm and 1 mm, whereby the temperature is between 205°C and 900°C and the pressure is between 1.0 bar and 19.0 bar, thereby producing coal;
An adapter (70") for a power tool powered by a detachable battery pack, comprising: first means for detachably connecting to the battery pack, second means for detachably connecting to the power tool, an adapter controller, at least one memory in communication with the adapter controller, a first communication port configured to electrically communicate with a controller located in the battery pack, a second communication port configured to electrically communicate with a controller located in the power tool, and means for wirelessly communicating information concerning the power tool and/or the battery pack to an external device. first means for detachably connecting to the battery pack, second means for detachably connecting to the power tool, an adapter controller, at least one memory in communication with the adapter controller, a first communication port configured to electrically communicate with a controller located in the battery pack, a second communication port configured to electrically communicate with a controller located in the power tool, and means for wirelessly communicating information concerning the power tool and/or the battery pack to an external device.
A process for producing nanoparticles represented by the formula: AB 1-x B' x Se 2-y C y where A is Cu; B and B' are each independently selected from the group consisting of In and Ga; C is selected from the group consisting of S and Te; x is greater than or equal to 0 and less than or equal to 1; y is greater than or equal to 0 and less than 2; subject to the proviso that where x is greater than 0, B' is not equal to B; the process comprising effecting conversion of a nanoparticle precursor composition comprising A and B ions, and optionally B' ions; wherein the conversion is effected in the presence of a selenol compound wherein the selenol compound is incorporated into the nanoparticles as a capping agent. A is Cu; B and B' are each independently selected from the group consisting of In and Ga; C is selected from the group consisting of S and Te; x is greater than or equal to 0 and less than or equal to 1; y is greater than or equal to 0 and less than 2;
A hydraulic distributor, of the closed-center, load sensing type, comprising a. one or more working sections (E1..En), each of which provides for a slide (C1..Cn) that, if it is actuated, causes a deviation of the flow from a first high-pressure line towards a connecting channel to a respective utility (A1,B1,...An, Bn), b. a second high-pressure line, arranged in parallel to said first high-pressure line; c. a low-pressure channel; d. a channel of the load sensing signal; e. a valve device (10, 100) suitable to bring said second high-pressure line into communication with said low-pressure channel; characterized in that said valve (10;100) defines a connection that is: ∘ normally open by the action of an elastic member and by a counter-pressure of the low-pressure channel, ∘ closed and driven to the switching position by a high-pressure signal present in the second high-pressure line and by the load sensing signal in the respective channel. a. one or more working sections (E1..En), each of which provides for a slide (C1..Cn) that, if it is actuated, causes a deviation of the flow from a first high-pressure line towards a connecting channel to a respective utility (A1,B1,...An, Bn), b. a second high-pressure line, arranged in parallel to said first high-pressure line; c. a low-pressure channel; d. a channel of the load sensing signal; e. a valve device (10, 100) suitable to bring said second high-pressure line into communication with said low-pressure channel; characterized in that said valve (10;100) defines a connection that is: ∘ normally open by the action of an elastic member and by a counter-pressure of the low-pressure channel, ∘ closed and driven to the switching position by a high-pressure signal present in the second high-pressure line and by the load sensing signal in the respective channel. ∘ normally open by the action of an elastic member and by a counter-pressure of the low-pressure channel, ∘ closed and driven to the switching position by a high-pressure signal present in the second high-pressure line and by the load sensing signal in the respective channel.
A polypeptide consisting of the amino acid sequence of any one of SEQ ID NO: 2 to SEQ ID NO: 4, wherein the target antigen of the polypeptide is interleukin-6 (IL-6).
Passive cooling device for cooling electrical cables, comprising a sleeve itself comprising at least two ducts for the passage of a cable through each of these ducts, and at least two fins, each of these ducts extending along a longitudinal axis, and the fins extending essentially radially from the ducts, towards outside the sleeve, characterized in that the at least two fins define therebetween a space forming a convection channel that is radially open towards outside the sleeve and that extends over at least one peripheral segment around the two ducts and between the ducts.
A compound of the formula (I-1) wherein n is 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24 or 25, R 1, R 2, R 3, R 4, R 5, R' 1, R' 2, R' 3, R' 4 and R' 5 are each independently from each other H or C 1 -C 8 -alkyl. n is 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24 or 25, R 1, R 2, R 3, R 4, R 5, R' 1, R' 2, R' 3, R' 4 and R' 5 are each independently from each other H or C 1 -C 8 -alkyl.
A wear-resistant steel plate, which consists of the following chemical components in weight percentages: C: 0.11-0.19%, Si: 0.15-0.45%, Mn: 1.10-1.80%, 0%≤P: ≤0.015%, 0%≤S: ≤0.010%, Nb: 0.010-0.040%, Al: 0.010-0.080%, B: 0.0006-0.0014%, Ti: 0.005-0.050%, Ca: 0.0010-0.0080%, 0%≤V≤0.080%, 0%≤Cr≤0.40%, 0%≤N≤0.0080%, 0%≤O≤0.0060%, 0%≤H≤0.0004%, wherein 0.025%≤Nb+Ti≤0.080%, 0.030%≤Al+Ti≤0.12%, and the balance being Fe and unavoidable impurities.
A de-icing device for supplying de-icing air to a turbomachine separation nozzle extending along a longitudinal axis, said device comprising: - the separation nozzle which is intended to be positioned downstream of a fan of the turbomachine and comprising an inner casing and an outer casing to form a separation between a primary flow duct for a primary flow and a secondary flow duct for a secondary flow, the said flows coming from the fan, the said inner casing and the said outer casing defining an inter-duct space; - guide vanes of said turbomachine intended to be fixed by screws to the internal casing, so that said screws extend into the inter-vane space, said de-icing device being positioned in the inter-vein space and comprises: - a plurality of channels extending from an air inlet to an air outlet; the channels being arranged with respect to each other so that they are intended to extend from the air inlet to the air outlet by passing between the screws fixing the guide vanes. - the separation nozzle which is intended to be positioned downstream of a fan of the turbomachine and comprising an inner casing and an outer casing to form a separation between a primary flow duct for a primary flow and a secondary flow duct for a secondary flow, the said flows coming from the fan, the said inner casing and the said outer casing defining an inter-duct space; - guide vanes of said turbomachine intended to be fixed by screws to the internal casing, so that said screws extend into the inter-vane space, said de-icing device being positioned in the inter-vein space and comprises: - a plurality of channels extending from an air inlet to an air outlet; the channels being arranged with respect to each other so that they are intended to extend from the air inlet to the air outlet by passing between the screws fixing the guide vanes.