mhurhangee/ep-ind-claims huggingface dataset:
Windrower including an engine compartment that holds an engine, an operator cab, front and rear wheels (130, 140) or tracks and a crop mowing head (150, 400) that moves across the ground, the front and rear wheels (130, 140) or tracks support the windrower, including the engine compartment and operator cab above the ground, and the operator cab includes controls for an operator to control the windrower, including the engine, wheels (130, 140) or tracks and the crop mowing head (150, 400), and the engine provides power to turn the wheels (130, 140) or tracks to propel the windrower, wherein the mowing head (150, 400) comprises a ground contour sensing system (420, 520) comprising: a first sensor system configured to measure a first ground contour of the ground in front of the mowing head (150, 400), and to generate first contour measurement signals; a controller configured to receive the first contour measurement signals, to determine whether to move the mowing head (150, 400) based on the first contour measurement signals, and to generate and send movement commands to the mowing head (150, 400) when it determines to move the mowing head (150, 400) based on the first contour measurement signals wherein the first sensor system comprises: a pivot arm (436, 536) with a proximal end and a distal end, the distal end configured to move in response to changes in the first ground contour in front of the mowing head (150, 400), and wherein the first contour measurement signals are based on movement of the pivot arm (436, 536). a first sensor system configured to measure a first ground contour of the ground in front of the mowing head (150, 400), and to generate first contour measurement signals; a controller configured to receive the first contour measurement signals, to determine whether to move the mowing head (150, 400) based on the first contour measurement signals, and to generate and send movement commands to the mowing head (150, 400) when it determines to move the mowing head (150, 400) based on the first contour measurement signals wherein the first sensor system comprises: a pivot arm (436, 536) with a proximal end and a distal end, the distal end configured to move in response to changes in the first ground contour in front of the mowing head (150, 400), and wherein the first contour measurement signals are based on movement of the pivot arm (436, 536).
An interlayer film for a laminated glass, comprising a thermoplastic resin and a plasticizer, the thermoplastic resin being a polyvinyl acetal resin, the polyvinyl acetal resin having a hydroxyl content of at most 31 mol%, wherein the thermoplastic resin contains a high molecular weight component with an absolute molecular weight of 1000000 or more, and the ratio of the high molecular weight component in the thermoplastic resin is 7.4% or higher, or the thermoplastic resin contains a high molecular weight component with a polystyrene-equivalent molecular weight of 1000000 or more, and the ratio of the high molecular weight component in the thermoplastic resin is 9% or higher.
A method of wireless communication, comprising: generating a clear to send message comprising a specific medium access control, MAC, address identifiable by a first subset of a plurality of wireless devices as instructing not to update an associated network allocation vector according to a duration field in the message, the specific MAC address not being identifiable by a second subset of the plurality of wireless devices such that the second subset are instructed to update an associated network allocation vector according to the duration field, wherein the specific MAC address is not assigned to physical devices; and transmitting the message, thereby reserving wireless communication access for the first subset of the plurality of wireless devices, wherein identifying the specific MAC address in the message further instructs the first subset of the plurality of wireless devices that additional information is located in a service field of a physical layer header of the message. generating a clear to send message comprising a specific medium access control, MAC, address identifiable by a first subset of a plurality of wireless devices as instructing not to update an associated network allocation vector according to a duration field in the message, the specific MAC address not being identifiable by a second subset of the plurality of wireless devices such that the second subset are instructed to update an associated network allocation vector according to the duration field, wherein the specific MAC address is not assigned to physical devices; and transmitting the message, thereby reserving wireless communication access for the first subset of the plurality of wireless devices, wherein identifying the specific MAC address in the message further instructs the first subset of the plurality of wireless devices that additional information is located in a service field of a physical layer header of the message.
Building element (10, 20, 60) comprising a base element (11, 61), whereby the building element (10, 20, 60) comprises at least two primary screw foundations (12, 62), which are able to be introduced into the ground through insertion openings (16, 64) of the base element (11, 21, 61) and by means of which a non-positive connection is able to be created between the base element (11, 61) and the ground, the primary screw foundations (12, 62) are able to be replaced without the base element (11, 61) having to be removed from the ground, characterized in that the building element (10, 20, 60) comprises one or more sensors and/or signal sources for monitoring the stability and integrity of the primary screw foundations and/or of the secondary screw foundations, whereby the primary screw foundations (12, 62) and/or the secondary screw foundations have through holes (12c, 23c, 62c), through which the sensors (40, 42) and/or the signal sources are able to be introduced. the building element (10, 20, 60) comprises at least two primary screw foundations (12, 62), which are able to be introduced into the ground through insertion openings (16, 64) of the base element (11, 21, 61) and by means of which a non-positive connection is able to be created between the base element (11, 61) and the ground, the primary screw foundations (12, 62) are able to be replaced without the base element (11, 61) having to be removed from the ground, characterized in that the building element (10, 20, 60) comprises one or more sensors and/or signal sources for monitoring the stability and integrity of the primary screw foundations and/or of the secondary screw foundations, whereby the primary screw foundations (12, 62) and/or the secondary screw foundations have through holes (12c, 23c, 62c), through which the sensors (40, 42) and/or the signal sources are able to be introduced.
An integrated filtration and sample transfer device comprising: a hollow elongated shaped body having a first end or tip that is provided with, or capped with a filtration material, wherein said filtration material is located adjacent to and protruding from said first end or tip; wherein said hollow elongated body is filled, or packed, with an adsorbent to provide support to the filtration material; and a second end operable for providing fluid flow for filtration. a hollow elongated shaped body having a first end or tip that is provided with, or capped with a filtration material, wherein said filtration material is located adjacent to and protruding from said first end or tip; wherein said hollow elongated body is filled, or packed, with an adsorbent to provide support to the filtration material; and a second end operable for providing fluid flow for filtration.
A ventilation unit with high sound absorption and thermal insulation performance, the ventilation unit comprising a heat exchanger, the noise emission of which said ventilation unit is designed to abate, the ventilation unit being made as a self-supporting structure with a plurality of modules, wherein the modular structure includes a plurality of areas configured for the abatement of high and low sound frequencies, the low frequency abatement areas comprising a plurality of Helmholtz resonators, wherein the modular structure comprises a section configured for the abatement of high and low frequencies and a section configured for the abatement of high frequencies, characterized in that the modules of the modular structure are separated from each other by metal partitions which are respectively composed of a metal frame and a frame in insulating material and configured to act effectively as absorbers of low frequencies, and in that the modules are coated with metallic insulating material so to optimize noise reduction.
A cosmetic comprising an acryl silicone copolymer that has a refractive index of 1.47 or more, the acryl silicone copolymer having a (meth)acrylic chain in a main chain and a structure containing at least a silicone macromonomer shown by the following general formula as a monomer unit: wherein in the formula, X represents a divalent aromatic group having 6 to 12 carbon atoms or -COOR 4 -, where R 4 represents a divalent aliphatic group optionally containing an oxygen atom bonded to Si; R 1 represents a hydrogen atom or a methyl group; each R 2 represents the same or different unsubstituted monovalent alkyl group having 1 to 6 carbon atoms; R 3 represents a phenyl group; n is an integer of 1 to 100, m is an integer of 1 to 100, and a component ratio n/m is in a range of 1/2 to 4/1.
A surgical instrument, comprising: a surgical end effector having an actuation assembly operable to effect a surgical procedure when actuated, a part (60, 1060, 102) of the actuation assembly being movable between a first position and second position; a handle connected to the end effector for actuating the actuation assembly, the handle having: a power supply disposed within the handle; a motor disposed within the handle and electrically powered by the power supply; and a transmission connecting the motor to the movable part (60, 1060, 102) and operational to displace the movable part (60, 1060, 102) anywhere between the first and second positions when the motor is operated; characterized in that the surgical instrument further comprises a manual release mechanism that selectively interrupts the transmission and, during interruption, displaces the movable part (60, 1060, 102) towards the first position independent of operation of the motor. a surgical end effector having an actuation assembly operable to effect a surgical procedure when actuated, a part (60, 1060, 102) of the actuation assembly being movable between a first position and second position; a handle connected to the end effector for actuating the actuation assembly, the handle having: a power supply disposed within the handle; a motor disposed within the handle and electrically powered by the power supply; and a power supply disposed within the handle; a motor disposed within the handle and electrically powered by the power supply; and a transmission connecting the motor to the movable part (60, 1060, 102) and operational to displace the movable part (60, 1060, 102) anywhere between the first and second positions when the motor is operated; characterized in that the surgical instrument further comprises a manual release mechanism that selectively interrupts the transmission and, during interruption, displaces the movable part (60, 1060, 102) towards the first position independent of operation of the motor.
Thermoformable complex in sheet, characterized in that it comprises: - an inner layer of expanded polyethylene terephthalate (XPET), and - a first surface layer of glycolised polyethylene terephthalate (PETG) adjacent to the inner layer of expanded polyethylene terephthalate (XPET). - an inner layer of expanded polyethylene terephthalate (XPET), and - a first surface layer of glycolised polyethylene terephthalate (PETG) adjacent to the inner layer of expanded polyethylene terephthalate (XPET).
An adhesive composition, curable via free radical polymerisation, the composition comprising the following, based on the total weight of components,, and: from 20% to 70% (meth)acrylate ester monomer; from 1 to 35% chlorinated elastomeric polymer; from 1 to 35% core-shell impact modifier; and from 1 to 40% urethane (meth)acrylate oligomer. from 20% to 70% (meth)acrylate ester monomer; from 1 to 35% chlorinated elastomeric polymer; from 1 to 35% core-shell impact modifier; and from 1 to 40% urethane (meth)acrylate oligomer.
Activation installation for a motor vehicle door, having a distribution installation and a flexible transmission means (5, 5a-5e), wherein the distribution installation has a first input and a first output as well as a second output, and is configured for distributing an activation movement to two functional units (9, 10), and wherein the flexible transmission means (5, 5a-5e) is configured for transmitting the activation movement at least in portions from the distribution installation to the first functional unit, or for transmitting the activation movement at least in portions from the distribution installation to the second functional unit, wherein in the assembled state of the activation installation, on a first portion of an activation movement that acts on the first input of the distribution installation, the first input for transmitting the activation movement in portions to the second functional unit is coupled or is to be coupled to the second output, wherein at the commencement of a second portion of the activation movement, the first input and the second output for interrupting the transmission of the activation movement to the second functional unit are decoupled, characterized in that in the assembled state of the activation installation, on a second portion of an activation movement that acts on the first input of the distribution installation, the first input for transmitting the activation movement in portions to the first functional unit is coupled or is to be coupled to the first output, and in that in the assembled state of the activation installation, on a first portion of an activation movement that acts on the first input of the distribution installation, the first input for transmitting the activation movement in portions to the first functional unit is coupled or is to be coupled to the first output.
A loudspeaker (10, 100) comprising: a motor assembly (14, 114) including a disk or annular magnet (20, 120) having a first face and a second face, a back plate (26, 126) abutting the magnet first face, a pole piece (28, 128) centrally disposed with respect to the back plate (26, 126) and extending upwardly beyond the magnet second face, and a top plate (30, 130) concentrically disposed with respect to the pole piece (28, 128) abutting either the second face of the magnet (20, 120) if an annular magnet is provided or the back plate (26, 126) if a disk magnet is provided, and extending upwardly beyond the magnet second face; a non-magnetic electrically conducting frame (12, 112) attached to the top plate (30, 130); a non-magnetic electrically conducting cap (36, 136) disposed within the motor assembly (14, 114) and encircling the pole piece (28, 128); a first non-magnetic electrically conducting ring (34, 134) disposed within the top plate (30, 130) or the pole piece (28, 128) and encircling the pole piece (28, 128); and at least one second non-magnetic electrically conducting ring (38, 138) disposed within the motor assembly (14, 114) and abutting the back plate (26, 126). a motor assembly (14, 114) including a disk or annular magnet (20, 120) having a first face and a second face, a back plate (26, 126) abutting the magnet first face, a pole piece (28, 128) centrally disposed with respect to the back plate (26, 126) and extending upwardly beyond the magnet second face, and a top plate (30, 130) concentrically disposed with respect to the pole piece (28, 128) a disk or annular magnet (20, 120) having a first face and a second face, a back plate (26, 126) abutting the magnet first face, a pole piece (28, 128) centrally disposed with respect to the back plate (26, 126) and extending upwardly beyond the magnet second face, and a top plate (30, 130) concentrically disposed with respect to the pole piece (28, 128) abutting either the second face of the magnet (20, 120) if an annular magnet is provided or the back plate (26, 126) if a disk magnet is provided, and extending upwardly beyond the magnet second face; a non-magnetic electrically conducting frame (12, 112) attached to the top plate (30, 130); a non-magnetic electrically conducting cap (36, 136) disposed within the motor assembly (14, 114) and encircling the pole piece (28, 128); a first non-magnetic electrically conducting ring (34, 134) disposed within the top plate (30, 130) or the pole piece (28, 128) and encircling the pole piece (28, 128); and at least one second non-magnetic electrically conducting ring (38, 138) disposed within the motor assembly (14, 114) and abutting the back plate (26, 126).
A railcar asset management system comprising: a communication system interface configured to receive data regarding railcar location information, railcar status information, and product status information, the railcar location information received from a radio frequency identification (RFID) tag attached to the railcar via a network comprising a plurality of RFID sensors located at designated points of a railway system, the railcar location and status information and the product status information received from a telematics sensor unit attached to the railcar; a database configured to store the data regarding the railcar location information, the railcar status information, and the product status information received from the communication system interface; a rules database configured to store a business rule defining a metric, a proactive alert and a task; a data processor in communication with the communication system interface and the databases, the data processor operable to evaluate the data against the metric, responsively issue the proactive alert and/or the task, and update a railcar location, a railcar status and a product status; an alert interface in communication with the data processor and operable to communicate the proactive alert outside the railcar asset management system; and a secure web interface in communication with the data processor and operable to interactively display the railcar location, the product status, the railcar status, the proactive alert, and the task. a communication system interface configured to receive data regarding railcar location information, railcar status information, and product status information, the railcar location information received from a radio frequency identification (RFID) tag attached to the railcar via a network comprising a plurality of RFID sensors located at designated points of a railway system, the railcar location and status information and the product status information received from a telematics sensor unit attached to the railcar; a database configured to store the data regarding the railcar location information, the railcar status information, and the product status information received from the communication system interface; a rules database configured to store a business rule defining a metric, a proactive alert and a task; a data processor in communication with the communication system interface and the databases, the data processor operable to evaluate the data against the metric, responsively issue the proactive alert and/or the task, and update a railcar location, a railcar status and a product status; an alert interface in communication with the data processor and operable to communicate the proactive alert outside the railcar asset management system; and a secure web interface in communication with the data processor and operable to interactively display the railcar location, the product status, the railcar status, the proactive alert, and the task.
A method of inspecting a material comprising: producing a plurality of eddy current excitations in a material under test; sensing, using an array of sensors, said plurality of eddy current excitations in the material under test; wherein the method comprises using a low cross-correlation coded spread spectrum to produce said plurality of eddy current excitations, and using a correlation technique to make a determination of amplitude and phase of the sensed eddy current excitations; wherein the method further comprises using the determination to make an assessment of the material under test; wherein each excitation is distinguished due to respective unique codes of the excitations. producing a plurality of eddy current excitations in a material under test; sensing, using an array of sensors, said plurality of eddy current excitations in the material under test; wherein the method comprises using a low cross-correlation coded spread spectrum to produce said plurality of eddy current excitations, and using a correlation technique to make a determination of amplitude and phase of the sensed eddy current excitations; wherein the method further comprises using the determination to make an assessment of the material under test; wherein each excitation is distinguished due to respective unique codes of the excitations.
A positive electrode material for an alkaline storage battery, comprising nickel hydroxide, wherein: Zn and an A element are held in solid solution in a crystallite of the nickel hydroxide, the A element being at least one element selected from the group consisting of Al and Ga; characterised in that the content of the A element, /([Ni] + + [Zn]), is 5 to 16% (where represents the molarity of the A element, [Ni] represents the molarity of nickel, and [Zn] represents the molarity of zinc in the crystallite); [Zn]/([Ni] + + [Zn]) is 1 to 10%; and the nickel hydroxide includes α-phase nickel hydroxide and β-phase nickel hydroxide. Zn and an A element are held in solid solution in a crystallite of the nickel hydroxide, the A element being at least one element selected from the group consisting of Al and Ga; characterised in that the content of the A element, /([Ni] + + [Zn]), is 5 to 16% (where represents the molarity of the A element, [Ni] represents the molarity of nickel, and [Zn] represents the molarity of zinc in the crystallite); [Zn]/([Ni] + + [Zn]) is 1 to 10%; and the nickel hydroxide includes α-phase nickel hydroxide and β-phase nickel hydroxide.