mhurhangee/ep-ind-claims huggingface dataset:
A metallic laminate composite comprising: a first metallic layer, selected from nickel or nickel alloys, comprising 0.3% to 8% of the laminate composite by volume; a second metallic layer having good resistance welding properties, selected from stainless steels, comprising 8.2% to 39.7% of the laminate composite by volume; a third metallic layer having low electrical resistivity, selected from copper or copper alloys, comprising 20% to 83% of the laminate composite by volume; a fourth metallic layer, selected from stainless steels, comprising 8.2% to 39.7% of the laminate composite by volume; and a fifth metallic layer having good soldering properties, selected from nickel or nickel alloys, comprising 0.3% to 8% of the laminate composite by volume, wherein the third metallic layer is bonded to the second metallic layer and the fourth metallic layer, the first metallic layer is bonded to the second metallic layer, and the fifth metallic layer is bonded to the fourth metallic layer, and further wherein the conductivity of the composite ranges from 1.16 x 10 7 to 4.64 x 10 7 S/m, corresponding to 20% IACS - 80% IACS. a first metallic layer, selected from nickel or nickel alloys, comprising 0.3% to 8% of the laminate composite by volume; a second metallic layer having good resistance welding properties, selected from stainless steels, comprising 8.2% to 39.7% of the laminate composite by volume; a third metallic layer having low electrical resistivity, selected from copper or copper alloys, comprising 20% to 83% of the laminate composite by volume; a fourth metallic layer, selected from stainless steels, comprising 8.2% to 39.7% of the laminate composite by volume; and a fifth metallic layer having good soldering properties, selected from nickel or nickel alloys, comprising 0.3% to 8% of the laminate composite by volume, wherein the third metallic layer is bonded to the second metallic layer and the fourth metallic layer, the first metallic layer is bonded to the second metallic layer, and the fifth metallic layer is bonded to the fourth metallic layer, and further wherein the conductivity of the composite ranges from 1.16 x 10 7 to 4.64 x 10 7 S/m, corresponding to 20% IACS - 80% IACS.
Method for detecting a security breach allowing sensitive data to be recovered, said method being implemented by a device of the network gateway type holding said sensitive data, said sensitive data allowing a terminal of the network managed by the device to connect to said device, said method comprising steps for: - analysing messages sent, via said device, by at least a first terminal of the network, referred to as terminal known by said device, to another terminal; - detecting a said security breach upon detection of the presence of said sensitive data in one of the analysed messages. - analysing messages sent, via said device, by at least a first terminal of the network, referred to as terminal known by said device, to another terminal; - detecting a said security breach upon detection of the presence of said sensitive data in one of the analysed messages.
A control method for an electric vehicle, the control method configured to set a motor torque command value based on vehicle information and to control torque of a first motor connected to a first drive wheel, the first drive wheel being one of a front drive wheel and a rear drive wheel, the control method comprising: calculating a first torque command value by a feedforward computation based on the motor torque command value; detecting a rotation angular velocity of the first motor; estimating a rotation angular velocity of the first motor based on the first torque command value by using a vehicle model Gp(s) that simulates a transfer characteristic from a torque input to the first drive wheel to a rotation angular velocity of the first motor; calculating a second torque command value from a deviation between a detected value and an estimated value of the rotation angular velocity of the first motor by using a filter H(s)/Gp(s) composed of an inverse characteristic of the vehicle model Gp(s) and a band-pass filter H(s) with a center frequency close to a torsional vibration frequency of the vehicle; and controlling the torque of the first motor according to a first final torque command value obtained by adding the first torque command value and the second torque command value together; characterized by correcting, when a braking/driving torque for a second drive wheel being the drive wheel other than the first drive wheel is input, the estimated value of the rotation angular velocity of the first motor based on the braking/driving torque for the second drive wheel. calculating a first torque command value by a feedforward computation based on the motor torque command value; detecting a rotation angular velocity of the first motor; estimating a rotation angular velocity of the first motor based on the first torque command value by using a vehicle model Gp(s) that simulates a transfer characteristic from a torque input to the first drive wheel to a rotation angular velocity of the first motor; calculating a second torque command value from a deviation between a detected value and an estimated value of the rotation angular velocity of the first motor by using a filter H(s)/Gp(s) composed of an inverse characteristic of the vehicle model Gp(s) and a band-pass filter H(s) with a center frequency close to a torsional vibration frequency of the vehicle; and controlling the torque of the first motor according to a first final torque command value obtained by adding the first torque command value and the second torque command value together; characterized by correcting, when a braking/driving torque for a second drive wheel being the drive wheel other than the first drive wheel is input, the estimated value of the rotation angular velocity of the first motor based on the braking/driving torque for the second drive wheel.
A riding work machine comprising: a vehicle body frame supported by a pair of left and right front wheels and a pair of left and right rear wheels; a deck panel mounted on the vehicle body frame; a driving section having a driver's seat disposed at a front portion of the vehicle body frame and upwardly of the deck panel; an engine section having an engine accommodated in a hood at a rear portion of the vehicle body frame; various electric components; and a battery configured to provide electric power to the electric components, wherein the electric components are disposed under the deck panel at a laterally outer portion of the vehicle body frame and within a spacing between the front wheels and the rear wheels in a front/rear direction; between the front wheels or the rear wheels and the electric components, there is provided a shielding member configured to suppress falling of scattering water splashed from the front wheels or the rear wheels; characterized in that a battery support portion that is distinct from the shielding member and configured to support the battery is provided under the deck panel at the laterally outer portion of the vehicle body frame and within the spacing between the front wheels and the rear wheels in the front/rear direction; and the shielding member is located at a portion overlapped with the battery support portion as seen in the plan view and seen in the front/rear direction, and the electric component is disposed between the deck panel and the battery support portion disposed downwardly thereof. a vehicle body frame supported by a pair of left and right front wheels and a pair of left and right rear wheels; a deck panel mounted on the vehicle body frame; a driving section having a driver's seat disposed at a front portion of the vehicle body frame and upwardly of the deck panel; an engine section having an engine accommodated in a hood at a rear portion of the vehicle body frame; various electric components; and a battery configured to provide electric power to the electric components, wherein the electric components are disposed under the deck panel at a laterally outer portion of the vehicle body frame and within a spacing between the front wheels and the rear wheels in a front/rear direction; between the front wheels or the rear wheels and the electric components, there is provided a shielding member configured to suppress falling of scattering water splashed from the front wheels or the rear wheels; characterized in that a battery support portion that is distinct from the shielding member and configured to support the battery is provided under the deck panel at the laterally outer portion of the vehicle body frame and within the spacing between the front wheels and the rear wheels in the front/rear direction; and the shielding member is located at a portion overlapped with the battery support portion as seen in the plan view and seen in the front/rear direction, and the electric component is disposed between the deck panel and the battery support portion disposed downwardly thereof.
An orthopedic implant in the form of a plate including a longitudinal axis and adapted to be fixed between two bone parts by screws engaged in holes formed in the thickness of said plate and having arrangements that ensure, under a screwing effect, an adjustable compression force adapted to bring the two bone parts closer, the arrangements being formed by at least one seat having a cross-section defining several distinct regions (1b1), (1b2), and (1b3) adapted to cooperate with a screw in order to generate a progressive, translational displacement of the screw during a screwing action corresponding to a displacement of at least one of the bone parts, causing the compression force, said plate having a seat for the insertion of a pin on the side of one of the bone parts and another seat for the insertion of a pin on the side of the other bone part, one of the seats being a circular hole whose diameter corresponds substantially to that of the pin whereas the other seat is formed by an elongated slot, characterized in that the axis of the elongated slot is angularly oriented relative to the longitudinal axis of the plate at an angle comprised between 1° and 15°.
Method for ascertaining a direction of view of an eye, wherein a laser beam emitted by a laser source is scanned via a reflection element and a deflection element over at least two scan points on the eye; a self-mixing effect of the scanned laser beam, which is reflected off the eye into the laser source, is used to determine, for the at least two scan points, the optical path length from the laser source to the at least two scan points on the eye surface, characterized in that a self-mixing effect of the scanned laser beam, which is reflected off the eye into the laser source, is used to additionally determine the reflectivity of the eye at the at least two scan points, and a surface profile of the eye is ascertained by virtue of the self-mixing effect, which causes a modulation of the laser power during a scanning of the laser beam over the eye, being used to ascertain a change in an optical path length from the laser source to a current scan point on the eye surface, wherein the at least two scan points are located on the sclera and on the cornea. wherein a laser beam emitted by a laser source is scanned via a reflection element and a deflection element over at least two scan points on the eye; a self-mixing effect of the scanned laser beam, which is reflected off the eye into the laser source, is used to determine, for the at least two scan points, the optical path length from the laser source to the at least two scan points on the eye surface, characterized in that a self-mixing effect of the scanned laser beam, which is reflected off the eye into the laser source, is used to additionally determine the reflectivity of the eye at the at least two scan points, and a surface profile of the eye is ascertained by virtue of the self-mixing effect, which causes a modulation of the laser power during a scanning of the laser beam over the eye, being used to ascertain a change in an optical path length from the laser source to a current scan point on the eye surface, wherein the at least two scan points are located on the sclera and on the cornea.
A microreactor comprising: a network of hollow microchannel conduits formed of a corrosion-resistant material; and surrounding and in contact with the microchannel conduits, a matrix comprising a matrix material having a thermal conductivity larger than a thermal conductivity of the corrosion-resistant material, wherein the corrosion-resistant material comprises at least one of niobium, molybdenum, tantalum, tungsten, rhenium, titanium, or zirconium, and the matrix material comprises at least one of aluminum, gold, brass, silver, or copper characterized in that a portion of the matrix proximate the microchannel conduits comprises a mixed and/or graded composition comprising the corrosion-resistant material and the matrix material. a network of hollow microchannel conduits formed of a corrosion-resistant material; and surrounding and in contact with the microchannel conduits, a matrix comprising a matrix material having a thermal conductivity larger than a thermal conductivity of the corrosion-resistant material, wherein the corrosion-resistant material comprises at least one of niobium, molybdenum, tantalum, tungsten, rhenium, titanium, or zirconium, and the matrix material comprises at least one of aluminum, gold, brass, silver, or copper characterized in that a portion of the matrix proximate the microchannel conduits comprises a mixed and/or graded composition comprising the corrosion-resistant material and the matrix material.
Coated wire comprising, in a concentric manner and from inside to outside, the following layers: a steel core; a zinc galvanization layer; a protective layer, with a thickness comprised between 1 μm and 4 μm, of a composition comprising: between 0.1% and 12% chromium trichloride, between 0.5% and 10% hexafluorotitanic acid, between 0.1 and 2.5% orthophosphoric acid, between 0.7% and 15% cobalt hydroxide, between 65% and 85% acrylic polymer and between 4% and 6% pigment. a steel core; a zinc galvanization layer; a protective layer, with a thickness comprised between 1 μm and 4 μm, of a composition comprising: between 0.1% and 12% chromium trichloride, between 0.5% and 10% hexafluorotitanic acid, between 0.1 and 2.5% orthophosphoric acid, between 0.7% and 15% cobalt hydroxide, between 65% and 85% acrylic polymer and between 4% and 6% pigment.
An extraction clcancr for a floor surface comprising a portable extractor comprising a suction hose for manually suctioning fluid from the floor surface, a recovery tank interconnected to the suction hose for receiving recovered fluid from the floor surface, and a fluid delivery system for dispensing a cleaning fluid onto the floor surface, and a base adapted to be moved to perform a cleaning operation on the floor surface when the portable extractor is operably mounted to the base, the base comprising a suction nozzle juxtaposed with the floor surface; the portable extractor further comprises: a first electrical component (52, 142, 144, 148); a power cord electrically coupled to the first electrical component; and a first electrical connection electrically coupled to the power cord; and the base further comprises: a second electrical component (158, 160, 186); and a second electrical connection electrically coupled to the second electrical component and adapted to be connected with the first electrical connection when the portable extractor is operably mounted to the base, such that the second electrical component is electrically interconnected to the power cord by the interconnection of the first and second electrical connections; and characterized in that the extraction cleaner further comprises: a cover positioned adjacent at least one of the first and second electrical connections, wherein the cover is movable between a first position covering the at least one of the first and second electrical connections when the portable extractor is detached from the base and a second position exposing the at least one of the first and second electrical connections when the portable extractor is moved toward the base so that the first and second electrical connections are in alignment with one another. a first electrical component (52, 142, 144, 148); a power cord electrically coupled to the first electrical component; and a first electrical connection electrically coupled to the power cord; and a second electrical component (158, 160, 186); and a second electrical connection electrically coupled to the second electrical component and adapted to be connected with the first electrical connection when the portable extractor is operably mounted to the base, such that the second electrical component is electrically interconnected to the power cord by the interconnection of the first and second electrical connections; and characterized in that the extraction cleaner further comprises: a cover positioned adjacent at least one of the first and second electrical connections, wherein the cover is movable between a first position covering the at least one of the first and second electrical connections when the portable extractor is detached from the base and a second position exposing the at least one of the first and second electrical connections when the portable extractor is moved toward the base so that the first and second electrical connections are in alignment with one another.
A system comprising: an aspirated smoke detector; a sampling pipe coupled to the aspirated smoke detector; a blowout device coupled to the sampling pipe; and a delay device coupled to the blowout device, wherein, responsive to the aspirated smoke detector detecting a triggering event, the aspirated smoke detector transmits a triggering event signal to the blowout device, wherein, responsive to the blowout device receiving the triggering event signal, the blowout device transmits a delay signal to the delay device, and wherein, responsive to the delay device receiving the delay signal, the delay device delays the blowout device from performing a blowout action in the sampling pipe by delaying transmission of an activation signal to the blowout device; and an in-line filter coupled to the sampling pipe and located upstream of the blowout device in the sampling pipe; a valve coupled to the blowout device; and an alternate flow path pipe coupled to the valve and to the sampling pipe, wherein the blowout action includes the blowout device activating the valve and sending compressed air to the sampling pipe via the alternate flow path pipe while avoiding the in-line filter. an aspirated smoke detector; a sampling pipe coupled to the aspirated smoke detector; a blowout device coupled to the sampling pipe; and a delay device coupled to the blowout device, wherein, responsive to the aspirated smoke detector detecting a triggering event, the aspirated smoke detector transmits a triggering event signal to the blowout device, wherein, responsive to the blowout device receiving the triggering event signal, the blowout device transmits a delay signal to the delay device, and wherein, responsive to the delay device receiving the delay signal, the delay device delays the blowout device from performing a blowout action in the sampling pipe by delaying transmission of an activation signal to the blowout device; and an in-line filter coupled to the sampling pipe and located upstream of the blowout device in the sampling pipe; a valve coupled to the blowout device; and an alternate flow path pipe coupled to the valve and to the sampling pipe, wherein the blowout action includes the blowout device activating the valve and sending compressed air to the sampling pipe via the alternate flow path pipe while avoiding the in-line filter.
A method of manufacturing a refrigerant distributor, the refrigerant distributor including - an inflow section made of aluminum, into which refrigerant enters from an inflow pipe, - a plurality of outflow pipes each of which is made of aluminum and each of which allows the entering refrigerant to flow out, and - a distributing section made of aluminum, the distributing section including a plurality of outflow sections each being connected to one of the plurality of outflow pipes, the method being characterised by comprising the following steps: - an applying step of applying flux that removes aluminum oxide to a surface of the plurality of outflow sections and the distributing section; - an alloy disposing step of disposing a zinc-containing aluminum-silicon alloy on the surface to which the flux is applied; - a forming step of forming a sacrifice positive electrode layer on the surface by heating the disposed zinc-containing aluminum-silicon alloy; - a brazing material disposing step of inserting the plurality of outflow pipes into the plurality of outflow sections, respectively, and disposing an aluminum-silicon alloy brazing material on the surface of the plurality of outflow sections; and - a brazing step of brazing the plurality of outflow sections with the plurality of outflow pipes, respectively, by heating the disposed aluminum-silicon alloy brazing material. - an inflow section made of aluminum, into which refrigerant enters from an inflow pipe, - a plurality of outflow pipes each of which is made of aluminum and each of which allows the entering refrigerant to flow out, and - a distributing section made of aluminum, the distributing section including a plurality of outflow sections each being connected to one of the plurality of outflow pipes, - an applying step of applying flux that removes aluminum oxide to a surface of the plurality of outflow sections and the distributing section; - an alloy disposing step of disposing a zinc-containing aluminum-silicon alloy on the surface to which the flux is applied; - a forming step of forming a sacrifice positive electrode layer on the surface by heating the disposed zinc-containing aluminum-silicon alloy; - a brazing material disposing step of inserting the plurality of outflow pipes into the plurality of outflow sections, respectively, and disposing an aluminum-silicon alloy brazing material on the surface of the plurality of outflow sections; and - a brazing step of brazing the plurality of outflow sections with the plurality of outflow pipes, respectively, by heating the disposed aluminum-silicon alloy brazing material.
An apparatus for separating a cone sleeve from a nested stack of cone sleeves the apparatus comprising a chamber having an upper and a lower surface connected by a wall or walls, the upper surface having an upper circular opening and the lower surface having a lower circular opening wherein - the upper circular opening has a circumference of 100-135% of the maximum circumference of the cone sleeve, - the lower circular opening has a circumference of 95-99.5% of the maximum circumference of the cone sleeve, and - the chamber has inlets connectable to a pressurised gas supply, characterised in that the inlets are configured to direct air horizontally or downwards into the chamber. - the upper circular opening has a circumference of 100-135% of the maximum circumference of the cone sleeve, - the lower circular opening has a circumference of 95-99.5% of the maximum circumference of the cone sleeve, and - the chamber has inlets connectable to a pressurised gas supply, characterised in that the inlets are configured to direct air horizontally or downwards into the chamber.