mhurhangee/ep-ind-claims huggingface dataset:
A laundry appliance comprising: a motor configured to operate a rotatable drum for processing laundry; a cabinet comprising a rear wall located behind the rotatable drum; an interior wall that is offset from the rear wall and that defines a cavity therebetween; characterized in that further comprises first and second insulating members (26, 28) that are positioned in an offset configuration within the cavity; wherein the first insulating member is attached to the rear wall and the second insulating member is attached to the interior wall; wherein the first and second insulating members (26, 28) are oriented in a parallel configuration within the cavity; wherein a gap is defined between the first and second insulating members (26, 28), and wherein the gap and the first and second insulating members (26, 28) cooperate to absorb vibrations generated by the rotatable drum during operation of the motor. a motor configured to operate a rotatable drum for processing laundry; a cabinet comprising a rear wall located behind the rotatable drum; an interior wall that is offset from the rear wall and that defines a cavity therebetween; characterized in that further comprises first and second insulating members (26, 28) that are positioned in an offset configuration within the cavity; wherein the first insulating member is attached to the rear wall and the second insulating member is attached to the interior wall; wherein the first and second insulating members (26, 28) are oriented in a parallel configuration within the cavity; wherein a gap is defined between the first and second insulating members (26, 28), and wherein the gap and the first and second insulating members (26, 28) cooperate to absorb vibrations generated by the rotatable drum during operation of the motor.
A pull-out piece indexing device (100; 100') for a timepiece or for a clock movement, in particular a lever device for a pull-out piece or lever/spring device for a pull-out piece or pull-out piece device, comprising: - an indexing member (4; 1'), and - an indexing element (3; 3') which comprises at least two sets of flanks (31a, 31b, 31c; 32a, 32b; 31a', 31b', 31c'; 32a', 32b') for defining indexing positions of a pull-out piece (10; 10') and which is mounted on the indexing member (4; 1'), the indexing device being characterized in that the indexing member (4; 1') and the indexing element (3; 3') are arranged or configured so as to define at least two fixing positions of the indexing element (3; 3') on the indexing member (4; 1'). - an indexing member (4; 1'), and - an indexing element (3; 3') which comprises at least two sets of flanks (31a, 31b, 31c; 32a, 32b; 31a', 31b', 31c'; 32a', 32b') for defining indexing positions of a pull-out piece (10; 10') and which is mounted on the indexing member (4; 1'), the indexing device being characterized in that the indexing member (4; 1') and the indexing element (3; 3') are arranged or configured so as to define at least two fixing positions of the indexing element (3; 3') on the indexing member (4; 1').
Process for marking a chip card electronic module face arrangement (10, 20, 30, 60, 90), the face arrangement (10, 20, 30, 60, 90) including a metal layer, the process comprising the step consisting in depositing a coating layer on a partial zone of the metal layer, the process comprising a step prior to said deposition of the coating layer on a partial zone of the metal layer, which prior step consists in putting a mask in place over a distinct zone of said partial zone such that the mask prevents the coating layer from being deposited on said distinct zone, characterized in that the coating layer deposited on the partial zone of the metal layer is composed of a material chosen from the group consisting of palladium and of an alloy comprising at least 50% palladium by weight.
A bone implant, comprising a ceramic body formed on the basis of yttrium-stabilised and/or aluminium-oxide-stabilised zirconium oxide, the surface of said ceramic body being provided, at least in a partial region, with a structure having nanoscopic pores or being otherwise formed nanoscopically, and said surface having a depletion zone having a reduced yttrium or aluminium oxide content in comparison to the inner volume, wherein the depletion zone is arranged in a part of the ceramic body that can be inserted into a bone.
Method for determining oscillations occurring in a measurement signal, having the following steps of: - receiving a measurement signal (10; u, u_s, y), - determining the extreme values (11, 12, 13, 14) of the received measurement signal, characterized by - determining closed loops of the measurement signal (10; u, u_s, y), wherein the rainflow counting method is used to determine the closed loops of the measurement signal (10; u, u_s, y) and the closed loops correspond to the oscillations occurring in the measurement signal, by a) identifying a closed loop in the measurement signal (10; u, u_s, y), wherein the closed loop is formed by a first half-loop and a second half-loop which corresponds to the first half-loop and has an identical oscillation width and an opposite direction, wherein the first half-loop begins at a starting maximum and ends at a minimum which is opposite the temporally closest maximum which has a greater value than the starting maximum, b) storing the identified closed loop, c) removing the identified closed loop from the measurement signal, and d) repeating steps a) to c) until all closed loops have been determined. - receiving a measurement signal (10; u, u_s, y), - determining the extreme values (11, 12, 13, 14) of the received measurement signal, characterized by - determining closed loops of the measurement signal (10; u, u_s, y), wherein the rainflow counting method is used to determine the closed loops of the measurement signal (10; u, u_s, y) and the closed loops correspond to the oscillations occurring in the measurement signal, by a) identifying a closed loop in the measurement signal (10; u, u_s, y), wherein the closed loop is formed by a first half-loop and a second half-loop which corresponds to the first half-loop and has an identical oscillation width and an opposite direction, wherein the first half-loop begins at a starting maximum and ends at a minimum which is opposite the temporally closest maximum which has a greater value than the starting maximum, b) storing the identified closed loop, c) removing the identified closed loop from the measurement signal, and d) repeating steps a) to c) until all closed loops have been determined. a) identifying a closed loop in the measurement signal (10; u, u_s, y), wherein the closed loop is formed by a first half-loop and a second half-loop which corresponds to the first half-loop and has an identical oscillation width and an opposite direction, wherein the first half-loop begins at a starting maximum and ends at a minimum which is opposite the temporally closest maximum which has a greater value than the starting maximum, b) storing the identified closed loop, c) removing the identified closed loop from the measurement signal, and d) repeating steps a) to c) until all closed loops have been determined.
End plug for liner systems for pipe and sewer rehabilitation, with a liner which is arranged between two end plugs and can be pressurised with a pressure medium and which can be arranged reversibly on the circumference of the end plug, the end plug changing in its cross-section composed of a plurality of profile parts (101, 102, 103, 104, 105) which are partially ring-shaped and/or partially tubular and taper from the outside inwards, wherein at least one profile part has a configuration which tapers from the inside to the outside, the Profile parts (100, 101, 102, 103, 104, 105) are in positive and/or positive contact at their edges, characterised in that the end plug comprises at least one cover part which can close the opening formed by the annular or tubular profile parts and can be arranged reversibly and in a force-fitting and/or form-fitting manner on the profile parts (100, 101, 102, 103, 104, 105).
An apparatus for generating a decorrelated signal comprising: a receiving unit for receiving phase information; a transient separator (310; 410; 510; 610; 710; 910) for separating an input signal into a first signal component and into a second signal component such that the first signal component comprises transient signal portions of the input signal and such that the second signal component comprises non-transient signal portions of the input signal; a transient decorrelator (320; 420; 520; 620; 720; 920) for decorrelating the first signal component according to a first decorrelation method to obtain a first decorrelated signal component; a further second decorrelator (330; 430; 530; 630; 730; 930) for decorrelating the second signal component according to a second decorrelation method to obtain a second decorrelated signal component, wherein the second decorrelation method is different from the first decorrelation method; and a combining unit (340; 440; 540; 640; 740; 940) for combining the first decorrelated signal component and the second decorrelated signal component to obtain a decorrelated output signal; wherein the transient decorrelator (320; 420; 520; 620; 720; 920) is adapted to apply the phase information to the first signal component. a receiving unit for receiving phase information; a transient separator (310; 410; 510; 610; 710; 910) for separating an input signal into a first signal component and into a second signal component such that the first signal component comprises transient signal portions of the input signal and such that the second signal component comprises non-transient signal portions of the input signal; a transient decorrelator (320; 420; 520; 620; 720; 920) for decorrelating the first signal component according to a first decorrelation method to obtain a first decorrelated signal component; a further second decorrelator (330; 430; 530; 630; 730; 930) for decorrelating the second signal component according to a second decorrelation method to obtain a second decorrelated signal component, wherein the second decorrelation method is different from the first decorrelation method; and a combining unit (340; 440; 540; 640; 740; 940) for combining the first decorrelated signal component and the second decorrelated signal component to obtain a decorrelated output signal; wherein the transient decorrelator (320; 420; 520; 620; 720; 920) is adapted to apply the phase information to the first signal component.
Floor for a tank casing of a hot water tank, with the floor featuring a depression for accommodating a container and the depression being at least partly surrounded by a bead, with the bead featuring at least one contact surface for contacting with the container, characterized in that the bead features at least one indentation with a first opening for arranging a base or roller.
Method for trapping prevention for a motor-operated closing system, comprising the following steps: - identifying a reduced motor speed in a first step; - then switching off the motor; - then analysing a sensor signal for identifying a trapping situation; - deciding whether there is a trapping situation; - and controlling the motor depending on a trapping situation being identified, wherein the rotation direction of the motor is reversed and the motor speed is increased if it is identified that an object is trapped in the closing system. - identifying a reduced motor speed in a first step; - then switching off the motor; - then analysing a sensor signal for identifying a trapping situation; - deciding whether there is a trapping situation; - and controlling the motor depending on a trapping situation being identified,
Device (100, 200) for locking a door, characterised in that it comprises: - a bolt comprising a bar configured to engage in a housing secured to the frame accommodating the door; and - a pusher means secured to the bar; the bolt being positioned on the door at a height of between thirty and eighty centimetres relative to the bottom of the door, such that the bar of the bolt can be engaged with or disengaged from the housing secured to the frame by pressure applied by a user's knee against the pusher means; wherein the bar of the bolt slides in a panel secured to a pull plate (45, 65) fixed to the door, and wherein the pull plate comprises an extension (46, 49) positioned close to the bottom of the door and configured to be driven by the foot or the lower leg of the user. - a bolt comprising a bar configured to engage in a housing secured to the frame accommodating the door; and - a pusher means secured to the bar; the bolt being positioned on the door at a height of between thirty and eighty centimetres relative to the bottom of the door, such that the bar of the bolt can be engaged with or disengaged from the housing secured to the frame by pressure applied by a user's knee against the pusher means; wherein the bar of the bolt slides in a panel secured to a pull plate (45, 65) fixed to the door, and wherein the pull plate comprises an extension (46, 49) positioned close to the bottom of the door and configured to be driven by the foot or the lower leg of the user.
A system analysis device comprising: a correlation model storage means for storing a correlation model expressing correlations between metrics each being a performance index in a system; and a display control means for dividing a display region into n divided regions in such a way that an area of a divided region i (1 ≤ i ≤ n) is equal to or larger than an area of a divided region i+1, allocating each cluster of a plurality of clusters each being a group of metrics obtained by tracking the correlations in the correlation model to the divided region i sequentially selected from i = 1, in the decreasing order of the number of metrics contained in each of the clusters, in such a way that the allocated number of the clusters increases in accordance with increase in i, and drawing the cluster allocated to the divided region i in the divided region i, characterized in that the display control means is configured to divide the region i into sub regions of a number equivalent to the number of the clusters allocated to the divided region i, and to draw clusters allocated to the divided region i in the corresponding sub regions respectively. a correlation model storage means for storing a correlation model expressing correlations between metrics each being a performance index in a system; and a display control means for dividing a display region into n divided regions in such a way that an area of a divided region i (1 ≤ i ≤ n) is equal to or larger than an area of a divided region i+1, allocating each cluster of a plurality of clusters each being a group of metrics obtained by tracking the correlations in the correlation model to the divided region i sequentially selected from i = 1, in the decreasing order of the number of metrics contained in each of the clusters, in such a way that the allocated number of the clusters increases in accordance with increase in i, and drawing the cluster allocated to the divided region i in the divided region i, characterized in that the display control means is configured to divide the region i into sub regions of a number equivalent to the number of the clusters allocated to the divided region i, and to draw clusters allocated to the divided region i in the corresponding sub regions respectively.
A welding system, comprising: a laser welding apparatus; a gas metal arc welding apparatus; and characterised by a gas tungsten arc welding apparatus; and wherein the laser welding apparatus, the gas metal arc welding apparatus, and the gas tungsten arc welding apparatus produce a combined molten pool to weld an article along a weld path; and further characterised in that the system is arranged such that the weld path includes welding from the gas metal arc welding apparatus first, welding from the laser welding apparatus second and welding from the gas tungsten arc welding apparatus third, wherein the gas metal arc welding apparatus is positioned first and the gas metal arc welding apparatus and the laser welding apparatus are close enough, i.e. from 0 to 15 mm, to form a hybrid laser/gas metal arc welding and wherein the gas tungsten arc welding apparatus is positioned to remelt a portion of the solidifying weld. a laser welding apparatus; a gas metal arc welding apparatus; and characterised by a gas tungsten arc welding apparatus; and wherein the laser welding apparatus, the gas metal arc welding apparatus, and the gas tungsten arc welding apparatus produce a combined molten pool to weld an article along a weld path; and further characterised in that the system is arranged such that the weld path includes welding from the gas metal arc welding apparatus first, welding from the laser welding apparatus second and welding from the gas tungsten arc welding apparatus third, wherein the gas metal arc welding apparatus is positioned first and the gas metal arc welding apparatus and the laser welding apparatus are close enough, i.e. from 0 to 15 mm, to form a hybrid laser/gas metal arc welding and wherein the gas tungsten arc welding apparatus is positioned to remelt a portion of the solidifying weld.
A method of shifting the isoelectric profile of a recombinant protein product having seven protein subpopulations with an isoelectric point between about 5.45 and about 6.55, wherein the recombinant protein product is eculizumab and the method comprises: (a) fed batch culturing mammalian cells comprising a nucleic acid encoding a recombinant protein in a production bioreactor under conditions sufficient to produce the product for a first period of time that consists of a growth phase or a growth phase and a stationary phase of the mammalian cells or that comprises a growth phase of the mammalian cells and terminates at a critical time point; (b) incubating the product under conditions sufficient to shift the isoelectric profile of the product toward a more acidic profile for a second period of time that consists of at least 6 hours of a decline phase of the mammalian cells, wherein the more acidic profile comprises an increase in the quantity of the fourth most acidic protein subpopulations of the seven protein subpopulations, and a decrease in the quantity of the first and second most basic protein subpopulations of the seven protein subpopulations, wherein the conditions sufficient to shift the isoelectric profile of the product toward a more acidic profile comprise (i) incubating in a dissolved oxygen concentration of between about 20% to about 45%; (ii) incubating in a medium having a pH of between about 7.0 and about 7.3; and/or (iii) incubating at a temperature of between about 30 °C and about 37.5 °C. (a) fed batch culturing mammalian cells comprising a nucleic acid encoding a recombinant protein in a production bioreactor under conditions sufficient to produce the product for a first period of time that consists of a growth phase or a growth phase and a stationary phase of the mammalian cells or that comprises a growth phase of the mammalian cells and terminates at a critical time point; (b) incubating the product under conditions sufficient to shift the isoelectric profile of the product toward a more acidic profile for a second period of time that consists of at least 6 hours of a decline phase of the mammalian cells, wherein the more acidic profile comprises an increase in the quantity of the fourth most acidic protein subpopulations of the seven protein subpopulations, and a decrease in the quantity of the first and second most basic protein subpopulations of the seven protein subpopulations, wherein the conditions sufficient to shift the isoelectric profile of the product toward a more acidic profile comprise (i) incubating in a dissolved oxygen concentration of between about 20% to about 45%; (ii) incubating in a medium having a pH of between about 7.0 and about 7.3; and/or (iii) incubating at a temperature of between about 30 °C and about 37.5 °C.
A positive electrode active material for a lithium secondary battery comprising a sulfur-carbon composite; and a coating layer which is located on the surface of the sulfur-carbon composite and comprises a carbon nanostructure and iron oxyhydroxynitrate represented by Formula 1 below: [Formula 1] FeO(NO 3) x 1-x (wherein, 0 < x < 1).
Apparatus for recording a movement-dependent variable of a motor vehicle, having a recording device and having a movement sensor connected to the recording device, wherein the movement sensor is suitable for capturing a rotational movement of an encoder wheel, wherein an illumination device for illuminating a surface structure of the encoder wheel is present and wherein the movement sensor is an optical sensor and configured such that the movement sensor captures a rotational movement of the encoder wheel on the basis of the light from the illumination device that is reflected by the surface structure, characterized in that a controller is present and in that the controller is configured such that the light from the illumination device for illuminating the surface structure is controlled by the controller with respect to the polarization and/or wavelength of the light, in that the controller has a random generator and in that the controller is configured such that the polarization and/or wavelength of the light is controlled in dependence on the random generator.
An apparatus comprising: a housing; a reservoir comprising a fluid and having an openable end; an applicator having a first major surface comprising a microneedle array; a pathway communicable between the openable end and the microneedle array; the housing supporting independently the applicator and the reservoir; a first stored energy device actuatable for applying force to the applicator to accelerate the applicator in a direction generally normal to the first major surface; and characterized by a second stored energy device actuatable for automatically opening the openable end, such that the openable end and the pathway are in fluid communication, and wherein the actuated second stored energy device forces the fluid through the openable end, the pathway, and the microneedle array. a housing; a reservoir comprising a fluid and having an openable end; an applicator having a first major surface comprising a microneedle array; a pathway communicable between the openable end and the microneedle array; the housing supporting independently the applicator and the reservoir; the housing supporting independently the applicator and the reservoir; a first stored energy device actuatable for applying force to the applicator to accelerate the applicator in a direction generally normal to the first major surface; and characterized by a second stored energy device actuatable for automatically opening the openable end, such that the openable end and the pathway are in fluid communication, and wherein the actuated second stored energy device forces the fluid through the openable end, the pathway, and the microneedle array.