mhurhangee/ep-ind-claims huggingface dataset:
Device for the simultaneous grinding of a plurality of samples contained in containers, characterized in that it comprises a plurality of pivoting rods each located in a non-pivoting nut and provided at least with one thread of which the pitch is greater than the diameter of said rods, said rods being rotated by a translational movement of their respective non-pivoting nut along said rods.
Framework for an electronic or network cabinet, having a) a first and a second vertical profile frame, b) each having two horizontal frame struts (12, 17) and two vertical frame struts (13, 18), and c) the framework further comprising four depth struts (21, 22), d) wherein each depth strut (21, 22) is indirectly connected at corresponding positions to a vertical frame strut (13, 18) of the first vertical profile frame and of the second vertical profile frame, the depth struts (21, 22) being each indirectly connected in the upper and lower region of the vertical frame struts (13, 18) to the vertical frame struts (13, 18), e) wherein the depth struts (21, 22) are dimensioned in order to be able to absorb and compensate tilting forces of the two vertical profile frames (11, 16) in the depth direction, f) wherein the vertical frame struts (13, 18) have a grid for fixing components to be incorporated, characterized in that g) the framework further comprises spacers to define the width of the framework provided between the vertical frame struts (13, 18) and the depth struts (21, 22) at each connection region, and in that the depth struts (21, 22) are fixed to the spacers and the spacers to the vertical frame struts (13, 18). a) a first and a second vertical profile frame, b) each having two horizontal frame struts (12, 17) and two vertical frame struts (13, 18), and c) the framework further comprising four depth struts (21, 22), d) wherein each depth strut (21, 22) is indirectly connected at corresponding positions to a vertical frame strut (13, 18) of the first vertical profile frame and of the second vertical profile frame, the depth struts (21, 22) being each indirectly connected in the upper and lower region of the vertical frame struts (13, 18) to the vertical frame struts (13, 18), e) wherein the depth struts (21, 22) are dimensioned in order to be able to absorb and compensate tilting forces of the two vertical profile frames (11, 16) in the depth direction, f) wherein the vertical frame struts (13, 18) have a grid for fixing components to be incorporated, characterized in that g) the framework further comprises spacers to define the width of the framework provided between the vertical frame struts (13, 18) and the depth struts (21, 22) at each connection region, and in that the depth struts (21, 22) are fixed to the spacers and the spacers to the vertical frame struts (13, 18).
A method of feeding a component tape towards a picking position of a component mounting machine by means of a feeding mechanism configured to engage the component tape at an engaging position and to disengage the component tape at a disengaging position, the method comprising: engaging the component tape at the engaging position; moving (520, 530), by means of the feeding mechanism, the component tape from the engaging position to the disengaging position; disengaging the component tape at the disengaging position; and returning the feeding mechanism from the disengaging position to the engaging position; wherein the feeding mechanism is configured to, during a feeding cycle, provide at least two sequentially arranged compartments (101, 102) of the component tape to the picking position before returning to the engaging position, wherein a distance between the engaging position and the disengaging position is determined by a number of sequentially arranged compartments that are provided to the picking position during the feeding cycle; and wherein the feeding mechanism moves the component tape in a linear motion between the engaging position and the disengaging position. engaging the component tape at the engaging position; moving (520, 530), by means of the feeding mechanism, the component tape from the engaging position to the disengaging position; disengaging the component tape at the disengaging position; and returning the feeding mechanism from the disengaging position to the engaging position; wherein the feeding mechanism is configured to, during a feeding cycle, provide at least two sequentially arranged compartments (101, 102) of the component tape to the picking position before returning to the engaging position, wherein a distance between the engaging position and the disengaging position is determined by a number of sequentially arranged compartments that are provided to the picking position during the feeding cycle; and wherein the feeding mechanism moves the component tape in a linear motion between the engaging position and the disengaging position.
A wind turbine rotor blade assembly comprising: a rotor blade having exterior surfaces defining a pressure side, a suction side, a leading edge and a trailing edge, each of the pressure side, the suction side, the leading edge and the trailing edge extending between a tip end and a root end, the rotor blade defining a span and a chord, a noise reducer configured on the rotor blade, the noise reducer comprising a plurality of aligned spine members, each spine member having a length and comprising a first section extending along a first part of the length of the spine member, and a second section extending along a second part of the length of the spine member, wherein the first section has a higher stiffness than the second section, wherein the first section is adjacent to the second section such that an interface is formed between the first section and the second section, characterised in that the chordwise location of the interface varies between different spine members of the noise reducer. a rotor blade having exterior surfaces defining a pressure side, a suction side, a leading edge and a trailing edge, each of the pressure side, the suction side, the leading edge and the trailing edge extending between a tip end and a root end, the rotor blade defining a span and a chord, a noise reducer configured on the rotor blade, the noise reducer comprising a plurality of aligned spine members, each spine member having a length and comprising a first section extending along a first part of the length of the spine member, and a second section extending along a second part of the length of the spine member, a first section extending along a first part of the length of the spine member, and a second section extending along a second part of the length of the spine member, wherein the first section has a higher stiffness than the second section, wherein the first section is adjacent to the second section such that an interface is formed between the first section and the second section, characterised in that the chordwise location of the interface varies between different spine members of the noise reducer.
A method of manufacturing an apparatus that provides a surface and which comprises a resin component and an aggregate component, the method comprising: a. pouring a resin component and a curing agent into an enclosure; b. vibrating the enclosure in a first vibration mode so as to agitate the resin and curing agent; c. adding a first aggregate component to the enclosure; d. vibrating the enclosure in a further vibration mode so as to agitate the resin component, curing agent and aggregate component and form a resin/ curing agent/ first aggregate component mixture, wherein the step of applying the further vibration mode comprises encouraging air to be released from an upper surface of the resin/ curing agent/ first aggregate component mixture. a. pouring a resin component and a curing agent into an enclosure; b. vibrating the enclosure in a first vibration mode so as to agitate the resin and curing agent; c. adding a first aggregate component to the enclosure; d. vibrating the enclosure in a further vibration mode so as to agitate the resin component, curing agent and aggregate component and form a resin/ curing agent/ first aggregate component mixture, wherein the step of applying the further vibration mode comprises encouraging air to be released from an upper surface of the resin/ curing agent/ first aggregate component mixture.
A copolymer of chlorotrifluoroethylene (CTFE) and vinyl chloride consisting essentially of chlorotrifluoroethylene monomeric units and vinyl chloride monomeric units, said copolymer having a Tg measured using DSC Q200 instrument at a 10 °C/min temperature increase of from 70°C to 87 °C.
Switchgear contact device for a low-voltage switchgear, comprising at least one first contact element and at least one second contact element, which can be pushed into one another to effect an electrically conductive connection, in particular form-fittingly can be pushed into one another, and can thereby be electrically conductively connected to one another, wherein the at least one first contact element comprises a cup-shaped contact socket and the at least one second contact element comprises a contact pin surrounded by a hollow cylindrical enclosure, arranged centrally therein, and wherein a circumferential free area is provided between the contact pin and the enclosure, which is closable at the front side by a ring-shaped, force-applied shutter, arranged displaceably in the axial direction of the contact pin, and wherein the free area, inner and outer diameter of the socket, the diameter of the pin and the clear width of the enclosure are matched to one another in such a way that the contact socket engages over the pin and into the free area with displacement of the ring-shaped shutter, and wherein the free area, inner and outer diameter of the socket, diameter of the pin, and clearance width of the enclosure are matched to one another in such a way that the contact socket engages over the pin and into the free area during contact closure with displacement of the ring-shaped shutter wherein the respective contact element comprises a contact element housing, preferably made of electrically non-conductive plastic, and wherein at least one, preferably two or more guide elements for guiding and/or retaining the ring-shaped shutter are integrated into the housing and/or the enclosure of the second contact element, wherein the ring-shaped shutter comprises complementary guide means, for example in the form of one or more pins; characterised in that the guide element is a groove or recess extending in the axial direction, arranged in and incorporated into the enclosure, and/or a radially circumferential cantilever extending in the direction of the contact pin. wherein the respective contact element comprises a contact element housing, preferably made of electrically non-conductive plastic, and wherein at least one, preferably two or more guide elements for guiding and/or retaining the ring-shaped shutter are integrated into the housing and/or the enclosure of the second contact element, wherein the ring-shaped shutter comprises complementary guide means, for example in the form of one or more pins; characterised in that the guide element is a groove or recess extending in the axial direction, arranged in and incorporated into the enclosure, and/or a radially circumferential cantilever extending in the direction of the contact pin.
A method comprising: receiving, with an integrated network controller, state information from optical components of an optical transport system having a plurality of interconnected packet-optical transport devices; applying, with an analytics engine, a set of rules to identify a failure of any of the optical components, wherein identifying a failure of any of the optical components comprises applying, with the analytics engine, the set of rules to determine a likelihood of a future failure of any of the optical components; computing, with a path computation element of the controller and in response to identifying the failure, at least one updated path through a routing and switching network having a plurality of interconnected layer three routing components and layer two switching components for communicating packet-based network traffic; communicating, with a software defined network control module of the controller, updated routing information to the routing components to control packet flows through the routing and switching network in accordance with the updated path; and responsive to the updated routing information, configuring, with a routing wavelength and spectrum assignment control module of the controller, the packet-optical transport devices to operate at particular wavelengths based upon bandwidth requirements for the network traffic at each of the routing components. receiving, with an integrated network controller, state information from optical components of an optical transport system having a plurality of interconnected packet-optical transport devices; applying, with an analytics engine, a set of rules to identify a failure of any of the optical components, wherein identifying a failure of any of the optical components comprises applying, with the analytics engine, the set of rules to determine a likelihood of a future failure of any of the optical components; computing, with a path computation element of the controller and in response to identifying the failure, at least one updated path through a routing and switching network having a plurality of interconnected layer three routing components and layer two switching components for communicating packet-based network traffic; communicating, with a software defined network control module of the controller, updated routing information to the routing components to control packet flows through the routing and switching network in accordance with the updated path; and responsive to the updated routing information, configuring, with a routing wavelength and spectrum assignment control module of the controller, the packet-optical transport devices to operate at particular wavelengths based upon bandwidth requirements for the network traffic at each of the routing components.
Longitudinal adjuster for a vehicle seat, in particular motor vehicle seat, having a first rail, a second rail which is guided displaceably in a longitudinal direction (x) in the first rail, a spindle (6; 6a) which is arranged between the first rail and the second rail, and a gear, wherein the gear is in engagement with a thread of the spindle and is movable along the spindle, or the gear is arranged in a fixed position relative to the spindle and the spindle is drivable by the gear, wherein the gear is fastened to the second rail by a substantially U-shaped gear holder (30a, 30b, 30c), wherein the gear holder (30a, 30b, 30c) has at least two limbs which are arranged opposite one another in the longitudinal direction (x), wherein the gear holder (30a, 30b, 30c) has at least one recess in a base connecting the two limbs and running horizontally, characterized in that a gear housing surrounding the gear projects at least in sections into the at least one recess, wherein in the vertical direction (z) above outer regions of the base, a gap is provided between the base and the gear housing.
A method for determining a material property of a solid substrate, the method comprising: - providing an array of plasmonic nanostructures on at least one portion of the substrate, - illuminating the at least one portion of the substrate on which the array of plasmonic nanostructures is arranged, - determining an optical extinction and/or reflectance peak of the illuminated array of plasmonic nanostructures provided on the substrate, - based on the determined optical extinction and/or reflectance peak, determining the material property of the at least one portion of the substrate, wherein determining the material property comprises determining a chemical composition and/or an atomic composition of the at least one portion of the substrate by comparing the detected optical extinction and/or reflectance peak to stored data or a known relation describing said optical extinction and/or reflectance peak as a function of the material property. - providing an array of plasmonic nanostructures on at least one portion of the substrate, - illuminating the at least one portion of the substrate on which the array of plasmonic nanostructures is arranged, - determining an optical extinction and/or reflectance peak of the illuminated array of plasmonic nanostructures provided on the substrate, - based on the determined optical extinction and/or reflectance peak, determining the material property of the at least one portion of the substrate, wherein determining the material property comprises determining a chemical composition and/or an atomic composition of the at least one portion of the substrate by comparing the detected optical extinction and/or reflectance peak to stored data or a known relation describing said optical extinction and/or reflectance peak as a function of the material property.
A control apparatus comprising: a measured NOx purification ratio calculation unit calculating a measured NOx purification ratio of a reduction catalyst reducing nitrogen oxide in an exhaust gas based on outputs of NOx sensors (14, 16) provided upstream and downstream of the reduction catalyst; an estimated NOx purification ratio calculation unit calculating an estimated NOx purification ratio of the reduction catalyst based on a temperature of the reduction catalyst, a flow rate of the exhaust gas, and an absorption amount of the reducing agent by the reduction catalyst; a reducing agent concentration estimation unit estimating a concentration of the reducing agent injected from the reducing agent injection valve based on the measured NOx purification ratio and the estimated NOx purification ratio; a quality sensor validity determination unit determining, based on the concentration of the reducing agent estimated by the reducing agent concentration estimation unit, the validity of an output of a quality sensor actually measuring a concentration of the reducing agent; and an injection amount correction unit correcting an injection amount of the reducing agent from the reducing agent injection valve based on the estimated concentration of the reducing agent and a prescribed concentration of the reducing agent when the quality sensor validity determination unit determines that the output of the quality sensor is not valid. a measured NOx purification ratio calculation unit calculating a measured NOx purification ratio of a reduction catalyst reducing nitrogen oxide in an exhaust gas based on outputs of NOx sensors (14, 16) provided upstream and downstream of the reduction catalyst; an estimated NOx purification ratio calculation unit calculating an estimated NOx purification ratio of the reduction catalyst based on a temperature of the reduction catalyst, a flow rate of the exhaust gas, and an absorption amount of the reducing agent by the reduction catalyst; a reducing agent concentration estimation unit estimating a concentration of the reducing agent injected from the reducing agent injection valve based on the measured NOx purification ratio and the estimated NOx purification ratio; a quality sensor validity determination unit determining, based on the concentration of the reducing agent estimated by the reducing agent concentration estimation unit, the validity of an output of a quality sensor actually measuring a concentration of the reducing agent; and an injection amount correction unit correcting an injection amount of the reducing agent from the reducing agent injection valve based on the estimated concentration of the reducing agent and a prescribed concentration of the reducing agent when the quality sensor validity determination unit determines that the output of the quality sensor is not valid.
A toner comprising: a binder resin; a colorant; and protruding portions on the surface of the toner, wherein the average length of long sides of the protruding portions is 0.1 μm or greater, but less than 0.5 μm, wherein the standard deviation of the lengths of the long sides of the protruding portions is 0.2 or less, and wherein the protruding portions have a coverage of 30% to 90%, with respect to the toner surface. a binder resin; a colorant; and protruding portions on the surface of the toner, wherein the average length of long sides of the protruding portions is 0.1 μm or greater, but less than 0.5 μm, wherein the standard deviation of the lengths of the long sides of the protruding portions is 0.2 or less, and wherein the protruding portions have a coverage of 30% to 90%, with respect to the toner surface.
A combination of an inkjet ejection device and an exhaust device for inkjet coating an object to be coated, wherein the inkjet ejection device comprises an inkjet head with an ejection nozzle configured to eject droplets to the object to be coated, and wherein the exhaust device comprises: a cover that is configured to cover at least a target range on the object to be coated, the target range being a range in which droplets land that are ejected, in operation, from the ejection nozzle of the inkjet head to a surface of the object to be coated; a closing member that is configured to close a gap between the cover and the object to be coated around the target range; an external communication portion through which a compartment surrounded by the cover, the object to be coated, and the closing member communicates with an outside; and an exhaust mechanism configured to exhaust air from the compartment (24;241,242,243). wherein the inkjet ejection device comprises an inkjet head with an ejection nozzle configured to eject droplets to the object to be coated, and wherein the exhaust device comprises: a cover that is configured to cover at least a target range on the object to be coated, the target range being a range in which droplets land that are ejected, in operation, from the ejection nozzle of the inkjet head to a surface of the object to be coated; a closing member that is configured to close a gap between the cover and the object to be coated around the target range; an external communication portion through which a compartment surrounded by the cover, the object to be coated, and the closing member communicates with an outside; and an exhaust mechanism configured to exhaust air from the compartment (24;241,242,243). a cover that is configured to cover at least a target range on the object to be coated, the target range being a range in which droplets land that are ejected, in operation, from the ejection nozzle of the inkjet head to a surface of the object to be coated; a closing member that is configured to close a gap between the cover and the object to be coated around the target range; an external communication portion through which a compartment surrounded by the cover, the object to be coated, and the closing member communicates with an outside; and an exhaust mechanism configured to exhaust air from the compartment (24;241,242,243).
A site machine equipped with tracked propulsion means driven by an hydrostatic drive powered by an internal combustion engine, the hydrostatic drive having a pump which processes the hydraulic fluid in the drive so as to give the tracks a suitable movement relative to the ground, and comprising a rotor with vanes as part of a cooling device for the hydraulic fluid; characterized in that the rotor is driven in rotation so as to send a flow of cooling air onto the pump body, is keyed directly on a driving shaft which directly drives the pump, and with reference to the direction of movement of the machine is located in a position such that it is in front of the engine.