mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle body front portion structure for a saddled vehicle, comprising: a headlight unit that includes a heat sink for cooling light sources ; wherein the headlight unit includes at least: the heat sink ; light-emitting diodes as light sources disposed at rear portions of the heat sink ; reflectors that reflect light emitted by the light-emitting diodes toward a front of the vehicle; and lenses disposed anterior to the reflectors to transmit the light emitted by the light-emitting diodes , characterised by a stay that connects a top bridge and a bottom bridge , the top bridge and the bottom bridge connecting left and right parts of a front fork , the headlight unit being disposed in the stay , wherein the heat sink is disposed between the top bridge and the bottom bridge at a frontmost position in the headlight unit so as to be subject to air being blown thereagainst during forward travel of the saddled vehicle; and wherein the reflectors and the lenses are disposed to surround the heat sink . a headlight unit that includes a heat sink for cooling light sources ; wherein the headlight unit includes at least: the heat sink ; light-emitting diodes as light sources disposed at rear portions of the heat sink ; reflectors that reflect light emitted by the light-emitting diodes toward a front of the vehicle; and lenses disposed anterior to the reflectors to transmit the light emitted by the light-emitting diodes , characterised by the heat sink ; light-emitting diodes as light sources disposed at rear portions of the heat sink ; reflectors that reflect light emitted by the light-emitting diodes toward a front of the vehicle; and lenses disposed anterior to the reflectors to transmit the light emitted by the light-emitting diodes , characterised by a stay that connects a top bridge and a bottom bridge , the top bridge and the bottom bridge connecting left and right parts of a front fork , the headlight unit being disposed in the stay , wherein the heat sink is disposed between the top bridge and the bottom bridge at a frontmost position in the headlight unit so as to be subject to air being blown thereagainst during forward travel of the saddled vehicle; and wherein the reflectors and the lenses are disposed to surround the heat sink .
Electrical connector comprising a mating axis (X) and a mating direction (XD) along the mating axis, a sliding axis (Z) perpendicular to the mating axis, a pivoting axis (Y) perpendicular to the mating axis and the sliding axis; the electrical connector comprises a connector housing for receiving a corresponding mating connector ; a cable guide cover attachable to the connector housing, a mate assist system for assisting in mating to the corresponding mating connector, wherein the mate assist system comprises; a lever pivotably arranged on the connector housing , wherein the lever is pivotable from a lever assembly position to a lever open position and from the lever open position to a lever closed position , wherein the lever comprises gear means gearing with a slider ; the slider slidably provided in the connector housing , the slider comprising complementary gear means for gearing with the lever for correspondingly sliding the slider from a slider first position to a slider second position , wherein the lever is releasable and attachable to the connector housing only in the lever assembly position , characterized in that the slider can be slide from the slider second position to a slider third position and wherein the cable guide cover is attachable to the connector housing only when the lever is in the lever closed position and wherein the slider is blocked in the slider second position by blocking means of the cable guide cover , cooperating with a blocking means of the slider and wherein said blocking means of the guide cover comprises a tongue protruding from the cable guide cover into a recess in the slider , thereby blocking the slider of the cable guide cover , and wherein the slider comprises releasing means for cooperating with releasing means of the corresponding mating connector to unblock the slider while mating, whereby the releasing means of the slider comprise a flexible arm formed on the slider , whereby an end portion of the flexible arm is arranged adjacent to the tongue and aligned along the sliding axis (Z) with the tongue , the flexible arm comprises a release protrusion protruding inwards of the connector housing into a receiving portion , adapted to receive a portion of the corresponding mating connector , whereby releasing means of the corresponding mating connector push the release protrusion out of the receiving portion while mating, thereby flexing the flexible arm outwards and move the end portion out of alignment to the tongue , enabling movement of the lever to the lever closed position , thereby moving the slider to the slider third position .
A data transmission method, comprising: adjusting (Step 101), by a first device in a Load Based Equipment, LBE, operation mode, an initial backoff value of clear channel assessment CCA of a channel in an unlicensed spectrum after the first device determines that the first device collides with another device when occupying the channel in the unlicensed spectrum to transmit data, wherein the initial backoff value is a randomly selected value and the randomly selected value is less than or equal to a variable value, wherein the adjusting comprises randomly increasing or decreasing (Step 403), by the first device, the variable value; and occupying (Step 102), by the first device according to the adjusted initial backoff value of clear channel assessment CCA the channel in the unlicensed spectrum to transmit data; wherein the occupying comprises performing CCA detection and decreasing by 1 a current backoff value, Nc, when the channel is idle, wherein the current backoff value, Nc, remains unchanged when the channel is occupied, and wherein the occupying further comprises occupying the channel when the current backoff value, Nc, is zero. adjusting (Step 101), by a first device in a Load Based Equipment, LBE, operation mode, an initial backoff value of clear channel assessment CCA of a channel in an unlicensed spectrum after the first device determines that the first device collides with another device when occupying the channel in the unlicensed spectrum to transmit data, wherein the initial backoff value is a randomly selected value and the randomly selected value is less than or equal to a variable value, wherein the adjusting comprises randomly increasing or decreasing (Step 403), by the first device, the variable value; and occupying (Step 102), by the first device according to the adjusted initial backoff value of clear channel assessment CCA the channel in the unlicensed spectrum to transmit data; wherein the occupying comprises performing CCA detection and decreasing by 1 a current backoff value, Nc, when the channel is idle, wherein the current backoff value, Nc, remains unchanged when the channel is occupied, and wherein the occupying further comprises occupying the channel when the current backoff value, Nc, is zero.
Container of a cosmetic or medical product, comprising an outer casing inside which an element is housed to at least partially contain the product (P), to at least a part of the casing or of the element being constrained, in an inaccessible position during the normal use of the product by an end user, an RFID chip , wherein the outer casing has an identifier of the position of the RFID chip in the container , so that a user can univocally identify the position of the RFID chip simply by viewing the outer casing of the container , the position of the RFID chip being used by the user tc position an RFID chip reader that is a smartphone, a tablet or a notebook in proximity of the RFID chip and access the information contained therein, the product containment element isolating the product from contact with the casing, the RFID chip being positioned in a gap defined between at least a part of said casing and the containment element .
Portable power tool having a housing , having a motor unit , which comprises a motor housing , at least one motor and a motor shaft, wherein the motor and the motor shaft are surrounded at least partially by the motor housing , having a receiving unit for mounting and fastening the motor unit within the portable power tool, wherein the receiving unit is intended to receive at least one drive element and is in the form of an intermediate flange that is arranged within the portable power tool, and having a motor sleeve , via which the motor unit is coupled to the receiving unit , wherein the motor sleeve , in addition to the motor housing , surrounds the motor , wherein the motor sleeve surrounds the motor unit in a circumferential direction in an assembled state of the motor unit with the motor sleeve , wherein the motor sleeve has at least one fastening unit , which is intended for fastening the motor unit and/or the receiving unit , wherein the motor unit is fastened to the receiving unit via the motor sleeve .
An epoxy resin composition comprising: an epoxy resin; a curing agent; an inorganic filler; and a curing accelerator, wherein the curing accelerator includes an imidazole-based curing accelerator, wherein a content of the epoxy resin is equal to or more than 8% by mass and equal to or less than 20% by mass with respect to the total solid content of the epoxy resin composition, wherein a content of the imidazole-based curing accelerator is equal to or more than 4.0% by mass and equal to or less than 12.0% by mass with respect to the total solid content of the epoxy resin composition, wherein the inorganic filler comprises a first filler having an average particle diameter D50 equal to or more than 0.01 μm and equal to or less than 1 μm, a second filler having an average particle diameter D50 of more than 1 μm to 15 μm or less, and a third filler having an average particle diameter D50 of more than 15 μm and equal to or less than 50 μm, and wherein a maximum exothermic peak temperature in a DSC curve of the epoxy resin composition obtained in a case of elevating a temperature from 30°C to 200°C under a condition of a temperature elevating rate of 10°C/min using a differential scanning calorimeter is equal to or higher than 80°C and equal to or lower than 145°C. an epoxy resin; a curing agent; an inorganic filler; and a curing accelerator, wherein the curing accelerator includes an imidazole-based curing accelerator, wherein a content of the epoxy resin is equal to or more than 8% by mass and equal to or less than 20% by mass with respect to the total solid content of the epoxy resin composition, wherein a content of the imidazole-based curing accelerator is equal to or more than 4.0% by mass and equal to or less than 12.0% by mass with respect to the total solid content of the epoxy resin composition, wherein the inorganic filler comprises a first filler having an average particle diameter D50 equal to or more than 0.01 μm and equal to or less than 1 μm, a second filler having an average particle diameter D50 of more than 1 μm to 15 μm or less, and a third filler having an average particle diameter D50 of more than 15 μm and equal to or less than 50 μm, and wherein a maximum exothermic peak temperature in a DSC curve of the epoxy resin composition obtained in a case of elevating a temperature from 30°C to 200°C under a condition of a temperature elevating rate of 10°C/min using a differential scanning calorimeter is equal to or higher than 80°C and equal to or lower than 145°C.
An aircraft comprising: an airframe ; a plurality of propellers disposed at a center of the airframe ; a first power source to rotate the plurality of propellers ; a plurality of attitude control propellers (31-1, 31-2, 31-3, 31-4); a second power source (32-1, 32-2, 32-3, 32-4) to rotate the plurality of attitude control propellers, the second power source being lower in output than the first power source ; and a control circuit configured to control attitude of the airframe including a second yaw rotation generation control unit to control a second yaw rotation generated by torques generated by a difference in rotation speed between the plurality of attitude control propellers (31-1, 31-2, 31-3, 31-4), characterized by a pitch adjuster (51-1, 51-2, 52) to change pitch angles of the plurality of propellers ; and in that the control circuit further includes a first yaw rotation generation control unit to control first yaw rotation generated by torques of the plurality of propellers with the pitch adjuster; and is configured to control the first yaw rotation generation control unit and the second yaw rotation generation control unit in accordance with a magnitude of a command value of yaw rotation. an airframe ; a plurality of propellers disposed at a center of the airframe ; a first power source to rotate the plurality of propellers ; a plurality of attitude control propellers (31-1, 31-2, 31-3, 31-4); a second power source (32-1, 32-2, 32-3, 32-4) to rotate the plurality of attitude control propellers, the second power source being lower in output than the first power source ; and a control circuit configured to control attitude of the airframe including a second yaw rotation generation control unit to control a second yaw rotation generated by torques generated by a difference in rotation speed between the plurality of attitude control propellers (31-1, 31-2, 31-3, 31-4), characterized by a pitch adjuster (51-1, 51-2, 52) to change pitch angles of the plurality of propellers ; and in that the control circuit further includes a first yaw rotation generation control unit to control first yaw rotation generated by torques of the plurality of propellers with the pitch adjuster; and is configured to control the first yaw rotation generation control unit and the second yaw rotation generation control unit in accordance with a magnitude of a command value of yaw rotation.
Gas/liquid separation column extending mainly along a vertical axis (V) and comprising a cylindrical external wall delimiting an internal space in which are arranged at least one first contact member in which the liquid and the gas are brought into contact, at least one dispensing device configured to collect the liquid resulting from the first contact member and to distribute it to a second contact member , at least one device for separating a two-phase fluid arranged in the internal space of the column between the first contact member and the dispensing device , at least one orifice for injecting the two-phase fluid being made in the external wall of the column , this injection orifice being configured to enable the injection of the two-phase fluid into the internal space of the column , between the first contact member and the dispensing device , the separation device comprising at least one duct arranged, at least partially, between the orifice for injecting the two-phase fluid into the internal space of the column and at least two separation boxes , these at least two separation boxes being configured to enable the separation of the liquid and gaseous phases of the two-phase fluid and being contiguous with the external wall and the at least one duct having a length such that the distance travelled by the two-phase fluid between the injection orifice and the separation box is at least equal to 80%, or even at least equal to 90%, of the diameter of the column, characterized in that the at least two separation boxes are each delimited by a peripheral wall and a vertical wall , forming a chord of the circular cross section of the column, and by at least one lower horizontal wall arranged between a lower end of the vertical wall and the peripheral wall, the duct having at least three branches among which a first branch passes through the orifice for injecting the two-phase fluid and a second branch and a third branch , each extending perpendicularly to the first branch, respectively connect the first branch to one of the separation boxes , each of the branches passing through the vertical wall so that an end of the duct is found in the separation box, the separation boxes or pairs of separation boxes (220; 221) being diametrically opposite.
A method of making a coated abrasive article comprising the step of: applying a make coat to a first major surface of a backing ; applying shaped abrasive particles to the make coat to form a first abrasive layer consisting essentially of shaped abrasive particles; applying diluent particles to the make coat over the shaped abrasive particles to form a final abrasive layer; applying a size coat over the final abrasive layer; curing the make and size coats; and wherein the shaped abrasive particles comprise a vertex opposite a base and a width of the shaped abrasive particle tapers from the base to the vertex. applying a make coat to a first major surface of a backing ; applying shaped abrasive particles to the make coat to form a first abrasive layer consisting essentially of shaped abrasive particles; applying diluent particles to the make coat over the shaped abrasive particles to form a final abrasive layer; applying a size coat over the final abrasive layer; curing the make and size coats; and wherein the shaped abrasive particles comprise a vertex opposite a base and a width of the shaped abrasive particle tapers from the base to the vertex.
Electronic arrangement comprising a radiation source and a controlled voltage transformer , which is embodied to provide a lamp voltage (V LP ) for the radiation source in order to operate the radiation source in an activated state for a pulse duration (t P ) , wherein the voltage transformer is embodied for such closed-loop control of the lamp voltage (V LP ) that a reference voltage (V FB ) at a feedback connector (FP) of the voltage transformer is kept substantially constant, characterized by a voltage source (DAC) connected to the feedback connector (FB), wherein the voltage source (DAC) is embodied to provide a time-dependent control voltage (V DAC ) with a predefined time profile and thus act on the closed-loop control of the voltage transformer via the feedback connector (FB) in such a way that the voltage transformer specifies a time profile of the lamp voltage (V LP ) on the basis of the predefined time profile of the control voltage (V DAC ) in such a way that a power of the radiation source deviates by no more than 25% from a constant power value (P LP ) during at least 90% of the pulse duration (t P ) .
A process for the production of a covered panel , the process comprising: applying a membrane to a panel construct so that said membrane is adjacent to a surface of said panel construct ; wherein said membrane is formed by applying a heat activated elastomeric resin-based material, in a liquid form, to a transfer film , and drying said liquid film so as to form said membrane on said transfer film , wherein said formed membrane is removably attached to said transfer film, and positioning said membrane on said panel construct so that said membrane is positioned adjacent to a surface of the panel construct, and pressing the resultant membrane covered panel construct , under conditions of heat and pressure, for sufficient time such that said heat activated elastomeric resin-based material is heat cured, and said membrane is bonded to said panel construct , wherein said heat activated elastomeric resin-based material is a solution or dispersion of an elastomeric resin in water, or another solvent, and said elastomeric resin-based material is based on a resin selected from polyurethane, polyethylene or polypropylene-based resins; Ethylene vinyl acetate; Ethylene vinyl alcohol; Polyesters; Polyolefin, modified Melamine-based thermoset resins; Urea and Urea modified resins; ESI (ethylene styrene interpolymer), or any of the styrene acrylic copolymers and Acrylic resins; rubber based materials including NBR (nitrile Butadiene), SBR (styrene butadiene), or CR (chloroprene), silicone, fluorocarbon, acrylamide, epichlorohydrin, and/or carboxylated, and natural and synthetic latexes. applying a membrane to a panel construct so that said membrane is adjacent to a surface of said panel construct ; wherein said membrane is formed by applying a heat activated elastomeric resin-based material, in a liquid form, to a transfer film , and drying said liquid film so as to form said membrane on said transfer film , wherein said formed membrane is removably attached to said transfer film, and positioning said membrane on said panel construct so that said membrane is positioned adjacent to a surface of the panel construct, and pressing the resultant membrane covered panel construct , under conditions of heat and pressure, for sufficient time such that said heat activated elastomeric resin-based material is heat cured, and said membrane is bonded to said panel construct , wherein said heat activated elastomeric resin-based material is a solution or dispersion of an elastomeric resin in water, or another solvent, and said elastomeric resin-based material is based on a resin selected from polyurethane, polyethylene or polypropylene-based resins; Ethylene vinyl acetate; Ethylene vinyl alcohol; Polyesters; Polyolefin, modified Melamine-based thermoset resins; Urea and Urea modified resins; ESI (ethylene styrene interpolymer), or any of the styrene acrylic copolymers and Acrylic resins; rubber based materials including NBR (nitrile Butadiene), SBR (styrene butadiene), or CR (chloroprene), silicone, fluorocarbon, acrylamide, epichlorohydrin, and/or carboxylated, and natural and synthetic latexes.
Solid tyre made of elastomer material for a roller of an aerial tramway or gondola lift, comprising a solid body made of elastomer material and at least one, preferably integral annular insert made of a different material from that of the solid body, characterized in that the insert is arranged radially inside the solid body and forms at least a portion of the internal surface of the tyre.
Exterior cladding element for a vehicle, in particular for a rail vehicle , the exterior cladding element comprising at least a first and second area section (301-314) which are adjoining one another, both area sections (301-314) consisting at least in sections of essentially electrically non-conductive material, characterized in that between the first and second area section (301-314) a potential equalization conductor (401-421) is arranged for connection to the ground potential of the vehicle. the exterior cladding element comprising at least a first and second area section (301-314) which are adjoining one another, both area sections (301-314) consisting at least in sections of essentially electrically non-conductive material, characterized in that between the first and second area section (301-314) a potential equalization conductor (401-421) is arranged for connection to the ground potential of the vehicle.
Adjustment drive for a steering column for a motor vehicle, comprising a threaded spindle having an external thread, engaging with a corresponding internal thread of a spindle nut , wherein a thread tooth of the external thread and a thread groove of the internal thread have corresponding axially sliding thread flanks which are braced against each other, characterized in that at least one thread flank comprises at least one recessed lubricant uptake .