mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing hydromagnesite in an aqueous environment, the process comprising the steps of: a) providing at least one magnesium oxide source; wherein the at least one magnesium oxide source is selected from the group consisting of dolomite, huntite and mixtures thereof; b) providing gaseous CO 2 and/or carbonate-comprising anions; c) slaking of said magnesium oxide source of step a) to convert the magnesium oxide at least partially into magnesium hydroxide, wherein an aqueous suspension is obtained and wherein said suspension has a solid content of between 1 wt.-% and 20 wt.-%, based on the total weight of the suspension; d) contacting the obtained magnesium hydroxide of step c) with said gaseous CO 2 and/or carbonate-comprising anions of step b) to convert the magnesium hydroxide at least partially into precipitated nesquehonite; and e) treating the obtained precipitated nesquehonite of step d) in a heat-ageing step, wherein said heat-ageing step is carried out at a temperature in the range between 110°C and 150°C and for a period of time of 20 min to 60 min. a) providing at least one magnesium oxide source; wherein the at least one magnesium oxide source is selected from the group consisting of dolomite, huntite and mixtures thereof; b) providing gaseous CO 2 and/or carbonate-comprising anions; c) slaking of said magnesium oxide source of step a) to convert the magnesium oxide at least partially into magnesium hydroxide, wherein an aqueous suspension is obtained and wherein said suspension has a solid content of between 1 wt.-% and 20 wt.-%, based on the total weight of the suspension; d) contacting the obtained magnesium hydroxide of step c) with said gaseous CO 2 and/or carbonate-comprising anions of step b) to convert the magnesium hydroxide at least partially into precipitated nesquehonite; and e) treating the obtained precipitated nesquehonite of step d) in a heat-ageing step, wherein said heat-ageing step is carried out at a temperature in the range between 110°C and 150°C and for a period of time of 20 min to 60 min.
Apparatus for the non-destructive and contactless detection of defects in a test piece, having a stationary measuring device for carrying out an eddy current measurement or a magnetic leakage flux measurement on a test piece which is continuously advanced relative to the measuring device; a device for positioning the test piece with respect to the measuring device in a plane which is perpendicular to the direction of movement of the test piece, and a monitoring unit having at least three distance sensors which are arranged in a manner distributed around the test piece in the circumferential direction and are intended to contactlessly detect the distance between that surface of the test piece which faces the respective sensor and the respective sensor, and a unit for evaluating the sensor signals, the evaluation unit being designed to use the sensor signals to determine the position of the test piece relative to the measuring device in a plane perpendicular to the direction of movement of the test piece, and the evaluation unit being designed to use the sensor signals to determine the cross section of the test piece, if the latter is cylindrical, and/or the straightness of the test piece, characterized in that the distance sensors operate capacitively, inductively or with ultrasound, in that a position of the distance sensors with respect to the measuring device is stationary, and in that the monitoring unit is provided at an inflow of the measuring device, the device being arranged on the inlet side and a guide device for advancing the test piece with respect to the measuring device being arranged on the outlet side.
A method for controlling a linear motor, applicable to an electronic device, wherein the electronic device comprises a linear motor, and the method comprises: determining, in response to an operation instruction, a vibration description file of an operation object of the operation instruction; and outputting a vibration sensation that meets a waveform requirement of the vibration description file, wherein the vibration sensation is provided by a linear motor in a first vibration state; the method characterised in that: the first vibration state matches a resonant frequency of the linear motor; and the outputting a vibration sensation that meets a waveform requirement of the vibration description file further comprises: outputting a vibration sensation corresponding to a waveform that has a first change trend within a startup time and has a second change trend within a stop time, wherein the first change trend is that an amplitude of a steady-state waveform changes smoothly from zero to an amplitude of a linear motor stable vibration state, and the second change trend is that the amplitude of the steady-state waveform changes smoothly from the amplitude of the linear motor stable vibration state to zero. determining, in response to an operation instruction, a vibration description file of an operation object of the operation instruction; and outputting a vibration sensation that meets a waveform requirement of the vibration description file, wherein the vibration sensation is provided by a linear motor in a first vibration state; the method characterised in that: the first vibration state matches a resonant frequency of the linear motor; and the outputting a vibration sensation that meets a waveform requirement of the vibration description file further comprises: outputting a vibration sensation corresponding to a waveform that has a first change trend within a startup time and has a second change trend within a stop time, wherein the first change trend is that an amplitude of a steady-state waveform changes smoothly from zero to an amplitude of a linear motor stable vibration state, and the second change trend is that the amplitude of the steady-state waveform changes smoothly from the amplitude of the linear motor stable vibration state to zero. the first vibration state matches a resonant frequency of the linear motor; and the outputting a vibration sensation that meets a waveform requirement of the vibration description file further comprises: outputting a vibration sensation corresponding to a waveform that has a first change trend within a startup time and has a second change trend within a stop time, wherein the first change trend is that an amplitude of a steady-state waveform changes smoothly from zero to an amplitude of a linear motor stable vibration state, and the second change trend is that the amplitude of the steady-state waveform changes smoothly from the amplitude of the linear motor stable vibration state to zero.
An oral care implement comprising: an elongated body comprising a head portion and a handle portion, the handle portion comprising a socket; at least one tooth cleaning element mounted to the head portion of the elongated body; and a first grip component comprising: an annular rim defining a central opening, the annular rim formed of a rigid material; and a resilient body mounted to the annular rim that covers the central opening, the resilient body formed of a resilient material; the first grip component mounted within the socket; and wherein the resilient body comprises a dome shaped outer surface protruding from an upper edge of the annular rim, characterised in that the upper edge of the annular rim and the dome-shaped outer surface of the resilient body forming a continuous, uninterrupted, and smooth surface with a front surface of the handle portion. an elongated body comprising a head portion and a handle portion, the handle portion comprising a socket; at least one tooth cleaning element mounted to the head portion of the elongated body; and a first grip component comprising: an annular rim defining a central opening, the annular rim formed of a rigid material; and a resilient body mounted to the annular rim that covers the central opening, the resilient body formed of a resilient material; the first grip component mounted within the socket; and wherein the resilient body comprises a dome shaped outer surface protruding from an upper edge of the annular rim, characterised in that the upper edge of the annular rim and the dome-shaped outer surface of the resilient body forming a continuous, uninterrupted, and smooth surface with a front surface of the handle portion. an annular rim defining a central opening, the annular rim formed of a rigid material; and a resilient body mounted to the annular rim that covers the central opening, the resilient body formed of a resilient material;
A method for forwarding packets on a leaf-spine network, the method comprising: receiving a packet at an ingress leaf device; determining based, at least in part, on a header of the packet whether the packet is to be transmitted to a destination device of the leaf-spine network; ascertaining based, at least in part, on (i) the header of the packet and (ii) whether the packet is to be transmitted into a fabric of the leaf-spine network or outside the fabric of the leaf-spine network, whether to perform encapsulation on the packet; encapsulating the packet according to a result of the ascertaining such that an encapsulated packet is generated, and when the ingress leaf device does not have a location of the destination device, the encapsulated packet including in a destination locator field an address of a proxy device of the leaf-spine network; and after encapsulating the packet according to the result of the ascertaining, transmitting the encapsulated packet to the proxy device of the leaf-spine network, wherein the proxy device is capable of inserting the location of the destination device into the encapsulation header of the packet. receiving a packet at an ingress leaf device; determining based, at least in part, on a header of the packet whether the packet is to be transmitted to a destination device of the leaf-spine network; ascertaining based, at least in part, on (i) the header of the packet and (ii) whether the packet is to be transmitted into a fabric of the leaf-spine network or outside the fabric of the leaf-spine network, whether to perform encapsulation on the packet; encapsulating the packet according to a result of the ascertaining such that an encapsulated packet is generated, and when the ingress leaf device does not have a location of the destination device, the encapsulated packet including in a destination locator field an address of a proxy device of the leaf-spine network; and after encapsulating the packet according to the result of the ascertaining, transmitting the encapsulated packet to the proxy device of the leaf-spine network, wherein the proxy device is capable of inserting the location of the destination device into the encapsulation header of the packet.
A washing machine comprising: a motor; a communication unit receiving power rate information for each time period from an energy management system; an input unit receiving an operation command from a user; and a controller characterised in that the controller determines whether a drying operation execution time includes a time period corresponding to power rates higher than standard power rates based on the power rate information for each time period when a washing operation command and a drying operation command are input, and adjusts an algorithm of a final spinning mode of the motor in the washing operation if the drying operation execution time includes the time period corresponding to power rates higher than the standard power rates. a motor; a communication unit receiving power rate information for each time period from an energy management system; an input unit receiving an operation command from a user; and a controller characterised in that the controller determines whether a drying operation execution time includes a time period corresponding to power rates higher than standard power rates based on the power rate information for each time period when a washing operation command and a drying operation command are input, and adjusts an algorithm of a final spinning mode of the motor in the washing operation if the drying operation execution time includes the time period corresponding to power rates higher than the standard power rates.
A method of automatically presenting magnified viewports of an in-focus input control and a responsive output region on a graphic user interface presented on a display monitor, the method comprising the steps of: displaying a graphic user interface on the display monitor, the graphic user interface having an input control and a corresponding output region, the input control and the output region belonging to a software application, wherein content of the output region is generated responsive to an end user interaction with the input control; intercepting messaging between an operating system and the software application, the messaging indicating the input control has focus; displaying on the monitor a primary viewport showing the input control at a first magnification level wherein the end user can interact with the input control; intercepting messaging between the operating system and the software application indicating the content displayed in the output region has changed as a result of the end user interaction with the input control; and responsive to detecting the change in the content of the output region, launching a secondary viewport displaying the output region, and simultaneously displaying on the monitor the primary viewport displaying the input control and the secondary viewport displaying the output region, the output region depicting the content generated responsive to the end user interaction with the input control, whereby the input control in the primary viewport remains in focus. displaying a graphic user interface on the display monitor, the graphic user interface having an input control and a corresponding output region, the input control and the output region belonging to a software application, wherein content of the output region is generated responsive to an end user interaction with the input control; intercepting messaging between an operating system and the software application, the messaging indicating the input control has focus; displaying on the monitor a primary viewport showing the input control at a first magnification level wherein the end user can interact with the input control; intercepting messaging between the operating system and the software application indicating the content displayed in the output region has changed as a result of the end user interaction with the input control; and responsive to detecting the change in the content of the output region, launching a secondary viewport displaying the output region, and simultaneously displaying on the monitor the primary viewport displaying the input control and the secondary viewport displaying the output region, the output region depicting the content generated responsive to the end user interaction with the input control, whereby the input control in the primary viewport remains in focus.
A clamp assembly (30, 157, 205) for securing a rail thereto comprising: a) a clamp base (66, 238); b) first and second clamping members (88, 215, 216) each advanceable into and out of clamping engagement with a rail supported on said clamp base (66, 238, 242) respectively; c) clamping means for advancing said first and second clamping members (88, 215, 216) into simultaneous clamping engagement with a rail supported on said clamp base (66, 238) to clamp the rail to said clamp base (66, 238); wherein said first clamping member (88, 215, 216) restrains said rail from sliding in a first longitudinal direction relative to said clamp assembly (30, 157, 205) and said second clamping member (88, 215, 216) restrains said rail from sliding in a second longitudinal direction relative to said clamp assembly (30, 157, 205); and d) release means for advancing said first and second clamping members (88, 215, 216) out of clamping engagement with the rail supported on said clamp base (66, 238). characterized in that, the clamping members (88, 215, 216) are each slideably mounted on a guide rod (89, 256, 257, 258) that is mounted below the clamp base (66, 238), each clamping member (88, 215, 216) extending through a respective clamp slot (83, 245, 246) in the clamp base (66, 238). a) a clamp base (66, 238); b) first and second clamping members (88, 215, 216) each advanceable into and out of clamping engagement with a rail supported on said clamp base (66, 238, 242) respectively; c) clamping means for advancing said first and second clamping members (88, 215, 216) into simultaneous clamping engagement with a rail supported on said clamp base (66, 238) to clamp the rail to said clamp base (66, 238); wherein said first clamping member (88, 215, 216) restrains said rail from sliding in a first longitudinal direction relative to said clamp assembly (30, 157, 205) and said second clamping member (88, 215, 216) restrains said rail from sliding in a second longitudinal direction relative to said clamp assembly (30, 157, 205); and d) release means for advancing said first and second clamping members (88, 215, 216) out of clamping engagement with the rail supported on said clamp base (66, 238).
A robotic system, comprising: a base supporting one or more articulating links (14,16), the base comprising: a front portion comprising a front wall; a rear portion removably attached to the front portion and comprising a back wall; and a bracket (46,104) supporting a heat generating component, a first side of the bracket (46,104) attached to the back wall of the rear portion of the base to form a first thermally conductive path that, in use, dissipates heat from the heat generating component; wherein, the robotic system is characterized by further comprising a thermal pad (56,108) attached to a second side of the bracket (46,104), the thermal pad (56,108) contacting the front wall of the base to form a second thermally conductive path that, in use, dissipates heat from the heat generating component. a base supporting one or more articulating links (14,16), the base comprising: a front portion comprising a front wall; a rear portion removably attached to the front portion and comprising a back wall; and a front portion comprising a front wall; a rear portion removably attached to the front portion and comprising a back wall; and a bracket (46,104) supporting a heat generating component, a first side of the bracket (46,104) attached to the back wall of the rear portion of the base to form a first thermally conductive path that, in use, dissipates heat from the heat generating component; wherein, the robotic system is characterized by further comprising a thermal pad (56,108) attached to a second side of the bracket (46,104), the thermal pad (56,108) contacting the front wall of the base to form a second thermally conductive path that, in use, dissipates heat from the heat generating component. the robotic system is characterized by further comprising a thermal pad (56,108) attached to a second side of the bracket (46,104), the thermal pad (56,108) contacting the front wall of the base to form a second thermally conductive path that, in use, dissipates heat from the heat generating component.
A piezoelectric cell support for an ultrasonic transducer, the support including a front face having formed thereon: • a first shoulder that defines a bearing surface and a bottom of a central cavity surrounded by the bearing surface, said bearing surface being arranged to support the edges of a rear face of a piezoelectric cell; • retention means for holding the piezoelectric cell on said bearing surface; the support being characterized in that it comprises: • a hole formed through said first shoulder and arranged to provide a passage for electric wires of the piezoelectric cell; and a rear face having a plane and sloping surface inclined with respect to the front face, that gives a first portion located at a first end of the support a first thickness between the front face and the rear face that is less than a second thickness between the front face and the rear face of a second portion located at a second end of the support situated opposite from the first portion. • a first shoulder that defines a bearing surface and a bottom of a central cavity surrounded by the bearing surface, said bearing surface being arranged to support the edges of a rear face of a piezoelectric cell; • retention means for holding the piezoelectric cell on said bearing surface; • a hole formed through said first shoulder and arranged to provide a passage for electric wires of the piezoelectric cell;
A photographing lens consisting of: a first lens, a second lens, a third lens, a fourth lens, and a fifth lens that are arranged sequentially from an object side, wherein the first lens has a concave surface toward the object side and has a positive refractive power, and the second lens is formed with a meniscus shape having a concave surface toward the image side and has a negative refractive power, and wherein the fourth lens is a meniscus lens having a convex surface toward the image side, the photographing lens has an angle of view ranging from 70° to 85° and each of the first through fifth lenses has at least one surface having an aspherical shape and wherein the aperture stop is disposed on the object side or the image side surface of the first lens. a first lens, a second lens, a third lens, a fourth lens, and a fifth lens that are arranged sequentially from an object side, wherein the first lens has a concave surface toward the object side and has a positive refractive power, and the second lens is formed with a meniscus shape having a concave surface toward the image side and has a negative refractive power, and wherein the fourth lens is a meniscus lens having a convex surface toward the image side, the photographing lens has an angle of view ranging from 70° to 85° and each of the first through fifth lenses has at least one surface having an aspherical shape and wherein the aperture stop is disposed on the object side or the image side surface of the first lens.
A microneedle application device for moving a microneedle array toward a target skin location, the microneedle application device comprising: a feedback sensor operably connected to the microneedle application device, wherein the feedback sensor is capable of generating an output corresponding to forces between the target skin location and the microneedle application device.
A mobile device comprising: an acceleration sensor configured to detect an acceleration value, wherein the acceleration sensor is provided with a plurality of different measurement ranges; and a controller configured to determine whether the mobile device is in a moving state or a non-moving state, based on the acceleration value, characterized in that the controller is configured to change a measurement range of the acceleration sensor according to a result of the determination, and the controller is further configured to change the measurement range of the acceleration sensor to a maximum measurement range, if the result of the determination is the moving state and the moving state corresponds to walking or cycling. an acceleration sensor configured to detect an acceleration value, wherein the acceleration sensor is provided with a plurality of different measurement ranges; and a controller configured to determine whether the mobile device is in a moving state or a non-moving state, based on the acceleration value, characterized in that the controller is configured to change a measurement range of the acceleration sensor according to a result of the determination, and the controller is further configured to change the measurement range of the acceleration sensor to a maximum measurement range, if the result of the determination is the moving state and the moving state corresponds to walking or cycling.