mhurhangee/ep-ind-claims huggingface dataset:
An agricultural harvesting machine with a sensor system, wherein the sensor system comprises at least one LiDAR sensor, a camera and a processing unit, wherein the LiDAR sensor and the camera respectively detect a surrounding area of the working machine, wherein the LiDAR sensor and the camera detect at least a portion of the same surrounding area of the working machine, wherein the LiDAR sensor transfers sensor data to the processing unit and the camera transfers image data to the processing unit, characterized in that the processing unit is provided and configured to segment the sensor data from the LiDAR sensor into segments and to classify the segments, wherein the processing unit is provided and configured to associate image data from the camera with at least one ambiguously classified segment of the sensor data from the LiDAR sensor and to enhance the classification of the segment of the sensor data from the LiDAR sensor with the aid of the image data from the camera, wherein the image data from the camera show at least a portion of the same surrounding area of the working machine as the ambiguously classified segment. wherein the sensor system comprises at least one LiDAR sensor, a camera and a processing unit, wherein the LiDAR sensor and the camera respectively detect a surrounding area of the working machine, wherein the LiDAR sensor and the camera detect at least a portion of the same surrounding area of the working machine, wherein the LiDAR sensor transfers sensor data to the processing unit and the camera transfers image data to the processing unit, characterized in that the processing unit is provided and configured to segment the sensor data from the LiDAR sensor into segments and to classify the segments, wherein the processing unit is provided and configured to associate image data from the camera with at least one ambiguously classified segment of the sensor data from the LiDAR sensor and to enhance the classification of the segment of the sensor data from the LiDAR sensor with the aid of the image data from the camera, wherein the image data from the camera show at least a portion of the same surrounding area of the working machine as the ambiguously classified segment.
A method of operating a first communications device in a system where communications resources may be used by multiple devices at the same time, the method comprising: transmitting data during a first time interval in a set of recurring time intervals corresponding to said first device; characterized by: pseudo randomly selecting a second time interval in said set of recurring time intervals to be used as a combined data transmission and channel measurement time interval; transmitting data during a first portion of the second time interval; and performing a channel measurement during a second portion of the second time interval in said set of recurring time intervals, said second portion of the second time interval being a period of time in which said first communications device does not transmit. transmitting data during a first time interval in a set of recurring time intervals corresponding to said first device; characterized by: pseudo randomly selecting a second time interval in said set of recurring time intervals to be used as a combined data transmission and channel measurement time interval; transmitting data during a first portion of the second time interval; and performing a channel measurement during a second portion of the second time interval in said set of recurring time intervals, said second portion of the second time interval being a period of time in which said first communications device does not transmit. pseudo randomly selecting a second time interval in said set of recurring time intervals to be used as a combined data transmission and channel measurement time interval; transmitting data during a first portion of the second time interval; and performing a channel measurement during a second portion of the second time interval in said set of recurring time intervals, said second portion of the second time interval being a period of time in which said first communications device does not transmit.
A curable composition comprising an organic polymer containing a reactive silicon group, and a bound substance of kaolinite and quartz at a proportion of 30 - 200 parts by weight relative to 100 parts by weight of the component. an organic polymer containing a reactive silicon group, and a bound substance of kaolinite and quartz at a proportion of 30 - 200 parts by weight relative to 100 parts by weight of the component.
A mining vehicle having a carriage, driving equipment for moving the carriage, at least one mining work device, at least one electric motor for supplying power to the mining work device, a connection for supplying electric power to the electric motor from an electrical network of a mine, an energy source, whereby the electric motor comprises at least a primary stator winding and a secondary stator winding such that the primary stator winding and the secondary stator winding are galvanically isolated from each other, and when the mining vehicle is connected to the electrical network of the mine via the primary stator winding, the electric motor is arranged, at least for a period of time, to supply power to the at least one mining work device and, at least for a period of time, to supply power via the secondary stator winding for charging the energy source whereby the electrical network of the mine and the energy source are galvanically isolated from each other.
A method of operating a contra-rotating propeller engine having front and rear propellers (23, 24) comprising variable pitch blades, wherein the engine is operated during at least a take-off, a climb, a cruise phase and an approach phase, during the cruise phase the engine operates with a generally constant propeller tip speed, the method is characterised by: the step of operating the tip speed of at least one of the propellers, during at least one of take-off, climb or approach at a tip speed that is 20% +/-5% greater than cruise tip speed; and when the tip speed at take-off, climb or approach is increased to greater than the cruise design tip speed, the blades are rotated closed relative to those that would be required on a design without a tip speed increase. the step of operating the tip speed of at least one of the propellers, during at least one of take-off, climb or approach at a tip speed that is 20% +/-5% greater than cruise tip speed; and when the tip speed at take-off, climb or approach is increased to greater than the cruise design tip speed, the blades are rotated closed relative to those that would be required on a design without a tip speed increase.
A collapsible foldable utility trailer for the transportation and/or storage of objects, said trailer comprising a supporting chassis frame; suspension means for supporting said chassis frame; bed means retained upon said chassis frame for receiving said objects and comprising a plurality of bed sections comprising (a) a first bed section having i) a first planar bed member for receiving an object thereupon; ii) a pair of opposing first bed side walls mounted on said first bed member; (b) a second bed section having i) a second planar bed member for receiving an object thereupon; ii) a pair of opposing second bed side walls mounted on said second bed member, wherein said second bed sidewalls have inner vertical edges; iii) a second bed end wall mounted to said second bed member between said pair of opposing second bed side walls; characterised in that said second planar bed member is hingedly connected between said pair of opposing second bed side walls to said first planar bed member between said pair of opposing first bed side walls to allow 90° rotation of said second bed section to effect abutment of said second bed sidewalls inner vertical edges with said first bed section first planar bed member: and wherein said pair of opposing first bed side walls are hingedly mounted on said first bed member as to be operably rotatable 90° to effect said first bed side walls in full abutment with and upon said first planar bed member. (a) a first bed section having i) a first planar bed member for receiving an object thereupon; ii) a pair of opposing first bed side walls mounted on said first bed member; i) a first planar bed member for receiving an object thereupon; ii) a pair of opposing first bed side walls mounted on said first bed member; (b) a second bed section having i) a second planar bed member for receiving an object thereupon; ii) a pair of opposing second bed side walls mounted on said second bed member, wherein said second bed sidewalls have inner vertical edges; iii) a second bed end wall mounted to said second bed member between said pair of opposing second bed side walls; characterised in that i) a second planar bed member for receiving an object thereupon; ii) a pair of opposing second bed side walls mounted on said second bed member, wherein said second bed sidewalls have inner vertical edges; iii) a second bed end wall mounted to said second bed member between said pair of opposing second bed side walls; characterised in that
Refrigerated sales cabinet comprising a door; a door operation motor configured to move the door between a closed position and an opened position; a control unit; a door opening sensor, particularly a touch or proximity sensor, said door opening sensor being configured to sense, if a customer touches the door opening sensor or if a customer moves close to the door opening sensor, and to transmit a door opening signal indicative of such touch or such movement to the control unit; and wherein the control unit is configured to drive the door operation motor in response to such door opening signal and to open the door; and a door obstruction detection sensor, particularly a proximity sensor, said door obstruction detection sensor being configured to sense, while the door is in its opened position, if an object is positioned in the way of the closing movement of the door, and to transmit a door closing signal indicative that no object is in the way to the control unit; wherein the control unit is configured to drive the door operation motor in response to such door closing signal and to close the door; characterized in that the door opening sensor is formed as a sensor on or within a glass pane of the door and the door obstruction detection sensor is formed as a sensor on or within the glass pane of the door, wherein the door obstruction detection sensor is arranged at the lateral inner portion of the door and extends over the full height of the glass pane; and a vertical middle portion of the door obstruction detection sensor forms the door opening sensor. a door; a door operation motor configured to move the door between a closed position and an opened position; a control unit; a door opening sensor, particularly a touch or proximity sensor, said door opening sensor being configured to sense, if a customer touches the door opening sensor or if a customer moves close to the door opening sensor, and to transmit a door opening signal indicative of such touch or such movement to the control unit; and wherein the control unit is configured to drive the door operation motor in response to such door opening signal and to open the door; and a door obstruction detection sensor, particularly a proximity sensor, said door obstruction detection sensor being configured to sense, while the door is in its opened position, if an object is positioned in the way of the closing movement of the door, and to transmit a door closing signal indicative that no object is in the way to the control unit; wherein the control unit is configured to drive the door operation motor in response to such door closing signal and to close the door; characterized in that the door opening sensor is formed as a sensor on or within a glass pane of the door and the door obstruction detection sensor is formed as a sensor on or within the glass pane of the door, wherein the door obstruction detection sensor is arranged at the lateral inner portion of the door and extends over the full height of the glass pane; and a vertical middle portion of the door obstruction detection sensor forms the door opening sensor.
Continuously transposed cable CTC extending according to a longitudinal development direction and having two opposite longitudinal ends (2, 3), said CTC cable comprising a plurality of strands arranged so to form at least a first and a second adjacent stacks, each extending along the longitudinal development direction, wherein said at least first and second stacks form a longitudinal interface therebetween, wherein the CTC cable further comprises one or more optical fibers positioned at the interface between the first and the second stacks, wherein the CTC cable comprises an insulating separator, made of electrically insulating material, at said interface extending along the longitudinal development direction, wherein the one or more optical fibers are inserted inside the insulating separator, characterized in that the insulating separator is made of paper or pressboard.
A liquid process assembly, the assembly including a length of pipework, and a reversible pump for selectively reciprocally moving liquid through the pipework; wherein the reversible pump is a positive displacement replacement rotary pump; wherein the pump has a magnetic drive located on the exterior of the pump; and wherein the pump is controlled by a servo motor.
An absorbable iron-based alloy implantable medical device, comprising: a substrate of an iron-based alloy or pure iron, and further comprising a complex body, wherein the complex body comprises a complexing agent, characterized in that the complex body is disposed on the surface of or inside the substrate of an iron-based alloy or pure iron, and in a physiological solution, the substrate reacts with the complexing agent to generate a water-soluble iron complex which has a solubility greater than or equal to 10 mg/L in the physiological solution, wherein the complexing agent is a polydentate ligand containing at least two coordination groups selected from a sulfo group and a carbonyl group, the sulfo group consisting of sulfosalicylic acid and the carbonyl group consisting of oxalic acid, tartaric acid, malic acid, succinic acid, oxaloacetic acid, fumaric acid, maleic acid, citric acid, nitrilotriacetic acid, diethylene triamine penta(carboxylic acid), alginic acid, glutamic acid, aspartic acid, ornithine, lysine, potassium citrate, calcium citrate, acetylsalicylic acid, polyaspartic acid, polyglutamic acid, poly-ornithine, polylysine, and polymaleic anhydride. a substrate of an iron-based alloy or pure iron, and further comprising a complex body, wherein the complex body comprises a complexing agent, characterized in that the complex body is disposed on the surface of or inside the substrate of an iron-based alloy or pure iron, and in a physiological solution, the substrate reacts with the complexing agent to generate a water-soluble iron complex which has a solubility greater than or equal to 10 mg/L in the physiological solution, wherein the complexing agent is a polydentate ligand containing at least two coordination groups selected from a sulfo group and a carbonyl group, the sulfo group consisting of sulfosalicylic acid and the carbonyl group consisting of oxalic acid, tartaric acid, malic acid, succinic acid, oxaloacetic acid, fumaric acid, maleic acid, citric acid, nitrilotriacetic acid, diethylene triamine penta(carboxylic acid), alginic acid, glutamic acid, aspartic acid, ornithine, lysine, potassium citrate, calcium citrate, acetylsalicylic acid, polyaspartic acid, polyglutamic acid, poly-ornithine, polylysine, and polymaleic anhydride.
A method for forming a laminate structure, comprising: uniformly applying an isocyanate component to a first substrate, the isocyanate component comprising at least one isocyanate; uniformly applying a polyol component to a second substrate, the polyol component comprising at least one amine-initiated polyol comprising primary hydroxyl groups and a backbone incorporating tertiary amines, wherein the amine-initiated polyol has the structure I: wherein R 1, R 2, and R 3 are independently a linear or branched alkyl group; bringing the first and second substrates together, thereby mixing and reacting the isocyanate component and the polyol component to form an adhesive between the first and second substrates; and curing the adhesive to bond the first and second substrates. wherein R 1, R 2, and R 3 are independently a linear or branched alkyl group; bringing the first and second substrates together, thereby mixing and reacting the isocyanate component and the polyol component to form an adhesive between the first and second substrates; and curing the adhesive to bond the first and second substrates.
Filter bag for a vacuum cleaner, comprising a bag made of a filter material which comprises at least three filter material layers (1, 2, 3, 4, 5), at least one layer of which is a scrim (1, 3) and at least one layer a fibre nonwoven fabric layer, comprising staple fibres and/or filaments, and also an inlet opening introduced in the bag, the filter material of the filter bag in at least one region, which constitutes or constitute at most 20% of the throughflow surface of the filter bag, and also possibly in an additional region ' or additional regions which surrounds or surround the region or respectively a region, the additional region (X') or the additional regions constituting at most 80% of the surface of the region or respectively of the region, wherein the region or the regions is or are disposed in one region or the regions subjected directly to a flow by an air flow entering through the inlet opening into the interior of the filter bag having one or more joints, in the case of which the at least one fibre nonwoven fabric layer is joined at least to one of the at least two further layers of scrim (1, 3) so that, during operation of the filter bag, a permanent fixing of the staple fibres and/or filaments of the fibre nonwoven fabric layer to the at least one of the at least two further layers of scrim (1, 3) is ensured, characterised in that the proportion of pressed surface area of the one or more joints in this region or in each of these regions and also possibly in the additional region (X') or in the additional regions, is of 0.1 and 40% and is greater than in the remaining surfaces.
A thread milling cutter that cuts internal threads in a workpiece with a driving apparatus that rotates the thread milling cutter about an axis and moves the thread milling cutter relative to the workpiece, comprising: a tool body held and rotated about the axis by the driving apparatus; thread cutting edges(20a,24,29) in a plurality of threads projecting in directions perpendicular to the axis from a front end side of an outer circumference of the tool body; and end cutting edges formed on a front end face of the tool body, wherein each of the end cutting edges includes a first end cutting edge that is connected to a front end of the thread cutting edge, and the first end cutting edge and an imaginary plane perpendicular to the axis form an angle (θ1) of 6° or less, and characterized in that each of the end cutting edges includes a second end cutting edge that is connected to an end of the first end cutting edge on the side closer to the axis, and is angled more toward the rear end than the first end cutting edge, and an angle (θ2) formed by the imaginary plane perpendicular to the axis and the second end cutting edges is set to be greater than the angle formed by the imaginary plane perpendicular to the axis and the first end cutting edges, wherein the diameter passing through a boundary between the thread cutting edges and the first end cutting edges and the axis at the center is equal to a minor diameter between the threads. a tool body held and rotated about the axis by the driving apparatus; thread cutting edges(20a,24,29) in a plurality of threads projecting in directions perpendicular to the axis from a front end side of an outer circumference of the tool body; and end cutting edges formed on a front end face of the tool body, wherein each of the end cutting edges includes a first end cutting edge that is connected to a front end of the thread cutting edge, and the first end cutting edge and an imaginary plane perpendicular to the axis form an angle (θ1) of 6° or less, and characterized in that each of the end cutting edges includes a second end cutting edge that is connected to an end of the first end cutting edge on the side closer to the axis, and is angled more toward the rear end than the first end cutting edge, and an angle (θ2) formed by the imaginary plane perpendicular to the axis and the second end cutting edges is set to be greater than the angle formed by the imaginary plane perpendicular to the axis and the first end cutting edges, wherein the diameter passing through a boundary between the thread cutting edges and the first end cutting edges and the axis at the center is equal to a minor diameter between the threads.
An access device comprising: a splittable sheath comprising: a splittable sheath hub defining a longitudinal axis and forming an inner cavity through which the longitudinal axis extends; and a valve element comprising: a resilient plate comprising: a mounting portion being supported within the splittable sheath hub at a first non-orthogonal angle (Θ 1) with respect to the longitudinal axis, the first non-orthogonal angle (Θ 1) being between 1 degree and 20 degrees; wherein the valve element further comprises a sealing portion extending radially inward into the inner cavity, relative to the longitudinal axis, from a side of the inner cavity; and a sealing element comprising a first sealing surface and being supported by the resilient plate, wherein the first non-orthogonal angle (Θ 1) biases the sealing portion and the sealing element toward a position against a second sealing surface on the splittable sheath hub to substantially seal at least a portion of the inner cavity. a splittable sheath comprising: a splittable sheath hub defining a longitudinal axis and forming an inner cavity through which the longitudinal axis extends; and a valve element comprising: a resilient plate comprising: a mounting portion being supported within the splittable sheath hub at a first non-orthogonal angle (Θ 1) with respect to the longitudinal axis, the first non-orthogonal angle (Θ 1) being between 1 degree and 20 degrees; wherein the valve element further comprises a sealing portion extending radially inward into the inner cavity, relative to the longitudinal axis, from a side of the inner cavity; and a sealing element comprising a first sealing surface and being supported by the resilient plate, wherein the first non-orthogonal angle (Θ 1) biases the sealing portion and the sealing element toward a position against a second sealing surface on the splittable sheath hub to substantially seal at least a portion of the inner cavity. a resilient plate comprising: a mounting portion being supported within the splittable sheath hub at a first non-orthogonal angle (Θ 1) with respect to the longitudinal axis, the first non-orthogonal angle (Θ 1) being between 1 degree and 20 degrees; wherein the valve element further comprises a sealing portion extending radially inward into the inner cavity, relative to the longitudinal axis, from a side of the inner cavity; and a mounting portion being supported within the splittable sheath hub at a first non-orthogonal angle (Θ 1) with respect to the longitudinal axis, the first non-orthogonal angle (Θ 1) being between 1 degree and 20 degrees; wherein the valve element further comprises a sealing portion extending radially inward into the inner cavity, relative to the longitudinal axis, from a side of the inner cavity; and a sealing element comprising a first sealing surface and being supported by the resilient plate, wherein the first non-orthogonal angle (Θ 1) biases the sealing portion and the sealing element toward a position against a second sealing surface on the splittable sheath hub to substantially seal at least a portion of the inner cavity.