mhurhangee/ep-ind-claims huggingface dataset:
Self-locking slide-contact arrangement for a module, which can be inserted in a device housing, comprising: • a module housing with pressure contacts protruding through openings (Ö1) of the base plate and with spring contacts protruding as ground contacts through openings (Ö2) of the base plate, • a base circuit card with several recesses (A1, A2, A3) mounted parallel to the bottom plate of the module housing and in the device housing of the device and • at least a locking means arranged on the bottom of the module housing, such that upon insertion of the module housing the pressure contacts for making a device-side electrical connection contact surfaces on the base board, that the spring contacts are guided in first recesses of the base circuit board and both make the electrical ground connection and the mechanical connection between the module housing and base card and that locking means when reaching a stop engages in a second recess of the base circuit board. • a module housing with pressure contacts protruding through openings (Ö1) of the base plate and with spring contacts protruding as ground contacts through openings (Ö2) of the base plate, • a base circuit card with several recesses (A1, A2, A3) mounted parallel to the bottom plate of the module housing and in the device housing of the device and • at least a locking means arranged on the bottom of the module housing,
A probe-based system for the combined mechanical and electrical testing of a MEMS structure comprising: - a microforce sensor; - at least two multi-axis micropositioning units; - at least one optical microscope (3, 13); - at least one electrical probe; - a data acquisition unit; - a sample holder, wherein the MEMS structure to be tested is mounted on the sample holder; wherein - at least one of said multi-axis micropositioning units is motorized, includes position encoders and has a microforce sensor mounted on it for probing the MEMS structure; - said microforce sensor being mounted on one of said multi-axis micropositioning units by a rotatable adapter piece to change between vertical and horizontal mechanical testing or any other angle; - another one of said at least two micropositioning units is equipped with at least one electrical probe to apply electrical signals or to measure electrical signals at one or multiple locations on the MEMS structure; - the output signal generated by the microforce sensor, the signal of the position encoders and the signals of the electrical probes are recorded by the data acquisition unit. - a microforce sensor; - at least two multi-axis micropositioning units; - at least one optical microscope (3, 13); - at least one electrical probe; - a data acquisition unit; - a sample holder, wherein the MEMS structure to be tested is mounted on the sample holder; wherein - at least one of said multi-axis micropositioning units is motorized, includes position encoders and has a microforce sensor mounted on it for probing the MEMS structure; - said microforce sensor being mounted on one of said multi-axis micropositioning units by a rotatable adapter piece to change between vertical and horizontal mechanical testing or any other angle; - another one of said at least two micropositioning units is equipped with at least one electrical probe to apply electrical signals or to measure electrical signals at one or multiple locations on the MEMS structure; - the output signal generated by the microforce sensor, the signal of the position encoders and the signals of the electrical probes are recorded by the data acquisition unit.
A method for processing a heart activity measurement signal in an exercise monitoring apparatus, the method comprising: acquiring a first heart activity measurement signal of a user during a physical exercise performed by the user, wherein the heart activity measurement signal characterizes an electric activity of a heart and is measured by a first measurement configuration using at least one electrode pair in contact with the user's skin; acquiring at least a second heart activity measurement signal of the user during the physical exercise, wherein the second heart activity measurement signal is measured by a second measurement configuration using at least one electrode pair not used for measuring said first heart activity measurement signal; monitoring a phase of a QRS complex waveform of the first and second heart activity measurement signals; determining beforehand at least one phase of a QRS complex waveform of the heart activity measurement signals that results in a maximal absolute value of an R wave amplitude in QRS complex waveforms of the heart activity measurement signals; computing phases of the first and second heart activity measurement signals and selecting for further analysis the heart activity measurement signal that has its phase of the QRS complex waveform closest to the determined at least one phase of the QRS complex waveform that results in the maximal absolute value of the R wave amplitude; and determining an action to perform on the basis of the phase of the QRS complex waveform of the selected heart activity measurement signal and performing said action. acquiring a first heart activity measurement signal of a user during a physical exercise performed by the user, wherein the heart activity measurement signal characterizes an electric activity of a heart and is measured by a first measurement configuration using at least one electrode pair in contact with the user's skin; acquiring at least a second heart activity measurement signal of the user during the physical exercise, wherein the second heart activity measurement signal is measured by a second measurement configuration using at least one electrode pair not used for measuring said first heart activity measurement signal; monitoring a phase of a QRS complex waveform of the first and second heart activity measurement signals; determining beforehand at least one phase of a QRS complex waveform of the heart activity measurement signals that results in a maximal absolute value of an R wave amplitude in QRS complex waveforms of the heart activity measurement signals; computing phases of the first and second heart activity measurement signals and selecting for further analysis the heart activity measurement signal that has its phase of the QRS complex waveform closest to the determined at least one phase of the QRS complex waveform that results in the maximal absolute value of the R wave amplitude; and determining an action to perform on the basis of the phase of the QRS complex waveform of the selected heart activity measurement signal and performing said action.
A method for reducing or removing the effects of coupling to an external electric field corresponding to an external object charged with static electricity or acting as an antenna for a source ( V int) of electromagnetic interference from force values measured using piezoelectric sensors, comprising: receiving, from a touch panel, force values corresponding to a plurality of piezoelectric sensors, each piezoelectric sensor corresponding to a physical location (x m, y n) on the touch panel; determining an identification of which, if any, of the force values are influenced by coupling to the external electric field; in response to one or more force values being identified as influenced by coupling to the external electric field, setting the corresponding force values as excluded force values, and setting the remaining force values as valid force values; interpolating and/or extrapolating, based on the valid force values, one or more reconstructed force values corresponding to the same physical locations as the respective excluded force values. receiving, from a touch panel, force values corresponding to a plurality of piezoelectric sensors, each piezoelectric sensor corresponding to a physical location (x m, y n) on the touch panel; determining an identification of which, if any, of the force values are influenced by coupling to the external electric field; in response to one or more force values being identified as influenced by coupling to the external electric field, setting the corresponding force values as excluded force values, and setting the remaining force values as valid force values; interpolating and/or extrapolating, based on the valid force values, one or more reconstructed force values corresponding to the same physical locations as the respective excluded force values.
A weighted duvet for applying stimulating pressure to one or more duvet users comprising: - a first fabric layer, a second fabric layer; - at least two duvet sections along the length of the weighted duvet, where the duvet sections are delimited by sectioning stitches extending through said first fabric layer and said second fabric layer; - wherein at least one of said duvet sections contains a discrete segment of connected weight elements placed between said first and said second fabric layer; and - retaining means different from said sectioning stiches for guiding the weight distribution within said duvet sections characterized in that one or more of said discrete segments of said connected weight elements form a loop within one or more of said duvet sections. - a first fabric layer, a second fabric layer; - at least two duvet sections along the length of the weighted duvet, where the duvet sections are delimited by sectioning stitches extending through said first fabric layer and said second fabric layer; - wherein at least one of said duvet sections contains a discrete segment of connected weight elements placed between said first and said second fabric layer; and - retaining means different from said sectioning stiches for guiding the weight distribution within said duvet sections characterized in that one or more of said discrete segments of said connected weight elements form a loop within one or more of said duvet sections.
Use of a lead-through for molding into a floor element and leading through a line, which lead-through has a jacket tube and a molding body, which are molded into the floor element in such a way that the jacket tube extends below the molding body and an upper portion (4.1) of the molding body projects beyond an upper edge of the floor element, wherein, after the molding, the upper portion (4.1) of the molding body is removed and a mounting attachment with a pipe socket is positioned in a mounting position relative to the jacket tube, characterized in that the molding body is provided from a foamed plastic material. which lead-through has a jacket tube and a molding body, which are molded into the floor element in such a way that the jacket tube extends below the molding body and an upper portion (4.1) of the molding body projects beyond an upper edge of the floor element, wherein, after the molding, the upper portion (4.1) of the molding body is removed and a mounting attachment with a pipe socket is positioned in a mounting position relative to the jacket tube, characterized in that the molding body is provided from a foamed plastic material.
An in situ vaccine for use in the treatment of cancer, the in situ vaccine comprising a therapeutically effective amount of empty cowpea mosaic viruses that is administered intratumorally to cancer in a subject, wherein the empty cowpea mosaic viruses are devoid of an antigen or drug.
A contents reproducing method which is executable by using a portable device, the portable device comprising a first communication unit which is configured for performing short distance communication and a second communication unit which is configured for communicating with an electronic device, the contents reproducing method comprising: reproducing contents with the portable device; detecting, by using the first communication unit, an occurrence of a short distance communication with a remote control configured to control the electronic device; characterised by generating, with the portable device, data required by the electronic device for reproducing the contents with the electronic device based on a request from the electronic device; transmitting the generated data from the portable device to the remote control; after the generated data is transmitted to the remote control, receiving at the portable device a contents transmitting request signal from the electronic device and information relating to the electronic device via the remote control; activating the second communication unit based on the received information relating to the electronic device and setting a communication channel between the portable device and the electronic device; and transmitting the contents to the electronic device via the second communication unit. reproducing contents with the portable device; detecting, by using the first communication unit, an occurrence of a short distance communication with a remote control configured to control the electronic device; characterised by generating, with the portable device, data required by the electronic device for reproducing the contents with the electronic device based on a request from the electronic device; transmitting the generated data from the portable device to the remote control; after the generated data is transmitted to the remote control, receiving at the portable device a contents transmitting request signal from the electronic device and information relating to the electronic device via the remote control; activating the second communication unit based on the received information relating to the electronic device and setting a communication channel between the portable device and the electronic device; and transmitting the contents to the electronic device via the second communication unit.
A resistor pack assembly for a generator comprising: an anti-rotation housing comprising: a first surface; a second surface opposite the first surface; one or more anti-rotation lugs extending away from the first surface; and an internal cavity extending from the second surface into the anti-rotation housing towards the first surface; a positive rail located at least partially within the internal cavity; a negative rail having an inner circular face and an outer circular face located radially outward from the inner circular face; an insulator ring is interposed between the second surface of the anti-rotation housing and outer circular face of the negative rail; the assembly characterized by the anti-rotation housing being composed of a non-conductive material; and by one or more counter bore holes extending from the first surface to the second surface, wherein each of the one or more counter bore holes further comprise: a first hole extending from the first surface to a seat; and a second hole extending from the seat to the second surface of the anti-rotation housing; a washer located in the first hole; and a fastener extending through the washer, the first hole, and the second hole. a first surface; a second surface opposite the first surface; one or more anti-rotation lugs extending away from the first surface; and an internal cavity extending from the second surface into the anti-rotation housing towards the first surface; a positive rail located at least partially within the internal cavity; a negative rail having an inner circular face and an outer circular face located radially outward from the inner circular face; an insulator ring is interposed between the second surface of the anti-rotation housing and outer circular face of the negative rail; the assembly characterized by one or more counter bore holes extending from the first surface to the second surface, wherein each of the one or more counter bore holes further comprise: a first hole extending from the first surface to a seat; and a second hole extending from the seat to the second surface of the anti-rotation housing; a first hole extending from the first surface to a seat; and a second hole extending from the seat to the second surface of the anti-rotation housing;
A lighting system (100, 300), comprising: a back reflector (106, 327); a heatsink (101, 331) with a plurality of LED devices centrally disposed at the back reflector (106, 327); and a lens arrangement including a lens plate with a reflective filler opposite the plurality of LED devices characterized in that the lens arrangement includes two translucent lens plates adjacent to and on opposing sides of the reflective filler; wherein the lens plate with the reflective filler receives light from the plurality of LED devices from 85 to 105 degrees of an angular light pattern of the plurality of LED devices. a back reflector (106, 327); a heatsink (101, 331) with a plurality of LED devices centrally disposed at the back reflector (106, 327); and a lens arrangement including a lens plate with a reflective filler opposite the plurality of LED devices characterized in that the lens arrangement includes two translucent lens plates adjacent to and on opposing sides of the reflective filler; wherein the lens plate with the reflective filler receives light from the plurality of LED devices from 85 to 105 degrees of an angular light pattern of the plurality of LED devices.
An optical measurement method for determining 3D coordinates of a multiplicity of measurement points of a measurement object surface, having the steps of • using a projector to illuminate the measurement object surface with a pattern sequence of different patterns (2a, 2b), • using a camera system to record an image sequence of measurement object surface illuminated with the pattern sequence and • determining the 3D coordinates of the measurement points by evaluating the image sequence, in particular a sequence of brightness values for identical measurement points of the measurement object surface being determined in respective images of the recorded image sequence, characterized in that translational and/or rotational accelerations • of the projector, • of the camera system and/or • of the measurement object are measured, and the illumination of the measurement object surface and/or the recording of the image sequence are/is reactively adapted, in particular substantially immediately and live during the measurement process in terms of time, as a function of the measured accelerations. • using a projector to illuminate the measurement object surface with a pattern sequence of different patterns (2a, 2b), • using a camera system to record an image sequence of measurement object surface illuminated with the pattern sequence and • determining the 3D coordinates of the measurement points by evaluating the image sequence, in particular a sequence of brightness values for identical measurement points of the measurement object surface being determined in respective images of the recorded image sequence, characterized in that translational and/or rotational accelerations • of the projector, • of the camera system and/or • of the measurement object
A method for condition monitoring of a cyclically moving machine component, wherein cycles of a motion of the machine component generates measurable movement characteristics, the method comprising; registering values (v 1) of the movement characteristics measured for the cycles, generating a frequency distribution (F v1) of the registered values, defining intervals for the occurrence of values in the frequency distribution (F v1), associating the intervals with defined indexes (a, b, c,...), associating the occurrence of values in the frequency distribution (F v1) with respective defined indexes (a, b, c,...) based on the intervals, generating a word string of the defined indexes (a, b, c,...) corresponding to the occurrence of values in the frequency distribution (F v1), segmenting said word string into a sub-set of segmented words (s 1, s 2,..., s i) of the defined indexes (a, b, c,...), determining a frequency of the occurrence of the segmented words (s 1, s 2,..., s i) in said word string as a first reference term frequency (TF 1), associating the first reference term frequency (TF 1) with a first machine component status (M 1), for a subsequently registered set of values of movement characteristics, determining a corresponding subsequent term frequency (TF n), and comparing the subsequent term frequency (TF n) with the first reference term frequency (TF 1) to determine a correlation with the first machine component status (M 1).
A power relay assembly comprising: a supporting plate having at least one electric element (10, 20, 30) mounted on one surface thereof and formed entirely of a plastic material having a heat dissipation property and an insulation property; and at least one bus bar electrically connected to the electric element and including a portion thereof buried in the supporting plate, wherein the bus bar includes a first portion buried in the supporting plate, a second portion configured to extend from an end portion of the first portion along a thickness direction of the supporting plate, and a third portion configured to extend from the second portion to protrude toward an outer side of the supporting plate, wherein the first portion and the second portion of the bus bar are buried inside the supporting plate so that the bus bar is fixed by the supporting plate, and characterized in that the plastic material of the supporting plate has insulating heat dissipation fillers dispersed on a polymer matrix, wherein the supporting plate further includes a plate-shaped metal member disposed to be spaced apart from a lower side of the portion of the bus bar buried in the supporting plate at an interval and disposed to be completely buried inside the supporting plate, and in that the supporting plate is integrated with the first portion and the second portion of the bus bar and the metal member buried therein through a resin-forming composition having a heat dissipation property and an insulation property and formed by insert-molding. a supporting plate having at least one electric element (10, 20, 30) mounted on one surface thereof and formed entirely of a plastic material having a heat dissipation property and an insulation property; and at least one bus bar electrically connected to the electric element and including a portion thereof buried in the supporting plate, wherein the bus bar includes a first portion buried in the supporting plate, a second portion configured to extend from an end portion of the first portion along a thickness direction of the supporting plate, and a third portion configured to extend from the second portion to protrude toward an outer side of the supporting plate, wherein the first portion and the second portion of the bus bar are buried inside the supporting plate so that the bus bar is fixed by the supporting plate, and characterized in that the plastic material of the supporting plate has insulating heat dissipation fillers dispersed on a polymer matrix, wherein the supporting plate further includes a plate-shaped metal member disposed to be spaced apart from a lower side of the portion of the bus bar buried in the supporting plate at an interval and disposed to be completely buried inside the supporting plate, and in that the supporting plate is integrated with the first portion and the second portion of the bus bar and the metal member buried therein through a resin-forming composition having a heat dissipation property and an insulation property and formed by insert-molding.