mhurhangee/ep-ind-claims huggingface dataset:
Hip joint self-treatment device for attaching around a leg, which joint self-treatment device comprises a three-way strap, which is formed of two parts - a foot/ankle strap with two free-ends, and, - an attachment strap with one free end, wherein the foot/ankle strap with two free-ends is a foot/ankle brace which during use is fastened around the leg of a user and which has fastening means on both free ends of the strap so to allow said fastening of the strap around the leg of the user, and wherein the attachment strap with one free end is attached to the middle of the foot/ankle strap with two free-ends and comprises an anchoring mechanism with a fastening pin for securing the free end of the strap to a holding point such as a door chink. - a foot/ankle strap with two free-ends, and, - an attachment strap with one free end, wherein the foot/ankle strap with two free-ends is a foot/ankle brace which during use is fastened around the leg of a user and which has fastening means on both free ends of the strap so to allow said fastening of the strap around the leg of the user, and wherein the attachment strap with one free end is attached to the middle of the foot/ankle strap with two free-ends and comprises an anchoring mechanism with a fastening pin for securing the free end of the strap to a holding point such as a door chink.
A package comprising: an apparatus comprising: a display; a processor; and a sensing element; a first part configured for supporting an apparatus; a second part configured to fit around the first part for closing the package and enclosing the apparatus therein; wherein the first part and the second part are configured to be movable relative to each other from a closed position to an open position by moving the second part from around the first part; wherein the package comprises an element for generating a signal in response to the first part and the second part being moved from the closed position to the open position; and wherein the processor is configured to: detect the signal with the sensing element; power up the apparatus in response to the signal; and automatically display information on the display. an apparatus comprising: a display; a processor; and a sensing element; a display; a processor; and a sensing element; a first part configured for supporting an apparatus; a second part configured to fit around the first part for closing the package and enclosing the apparatus therein; wherein the first part and the second part are configured to be movable relative to each other from a closed position to an open position by moving the second part from around the first part; wherein the package comprises an element for generating a signal in response to the first part and the second part being moved from the closed position to the open position; and wherein the processor is configured to: detect the signal with the sensing element; power up the apparatus in response to the signal; and automatically display information on the display. detect the signal with the sensing element; power up the apparatus in response to the signal; and automatically display information on the display.
An antenna structure, comprising: an antenna pattern, comprising a first portion and a second portion, the first portion being rectangular and having a first side, a second side, a third side and a fourth side connected in sequence, the second portion extending and protruding outwardly from a corner formed by the first side and the second side; a ground layer, disposed below the antenna pattern and having two slots, respective projections of the two slots projected onto the antenna pattern being close to the third side and the fourth side; and two microstrip lines, disposed below the ground layer, respective projections of the two microstrip lines projected onto the antenna pattern being perpendicular to the third side and the fourth side, and respective projections of the two microstrip lines projected onto the ground layer traversing the two slots, the antenna structure being characterized in that each of the two microstrip lines has a first section and a second section in an extending direction, wherein a projection of the second section projected onto the antenna pattern being closer to a center of the first portion than a projection of the first section, and a width of the first section is greater than a width of the second section. an antenna pattern, comprising a first portion and a second portion, the first portion being rectangular and having a first side, a second side, a third side and a fourth side connected in sequence, the second portion extending and protruding outwardly from a corner formed by the first side and the second side; a ground layer, disposed below the antenna pattern and having two slots, respective projections of the two slots projected onto the antenna pattern being close to the third side and the fourth side; and two microstrip lines, disposed below the ground layer, respective projections of the two microstrip lines projected onto the antenna pattern being perpendicular to the third side and the fourth side, and respective projections of the two microstrip lines projected onto the ground layer traversing the two slots, the antenna structure being characterized in that each of the two microstrip lines has a first section and a second section in an extending direction, wherein a projection of the second section projected onto the antenna pattern being closer to a center of the first portion than a projection of the first section, and a width of the first section is greater than a width of the second section.
An image processing method, comprising: acquiring an accuracy level of a target application in response to an image collecting instruction initiated by the target application, the accuracy level relates to a level of importance of the target application and/or a safety level of an application operation corresponding to the image collecting instruction; adjusting an accuracy of an image to be sent according to the accuracy level, and obtaining a target image, comprising: adjusting a number of speckle points contained in a collected speckle image according to the accuracy level, and acquiring the target image according to the adjusted speckle image, in which the speckle image is an image formed by irradiating laser speckles collected by a laser camera on an object; and sending the target image to the target application, wherein sending the target image to the target application comprises: acquiring a reference image pre-stored in an electronic device, and performing an encryption processing on the target image according to the reference image, in which the reference image is an image containing reference speckle points and obtained by calibration; and sending the encrypted target image to the target application. acquiring an accuracy level of a target application in response to an image collecting instruction initiated by the target application, the accuracy level relates to a level of importance of the target application and/or a safety level of an application operation corresponding to the image collecting instruction; adjusting an accuracy of an image to be sent according to the accuracy level, and obtaining a target image, comprising: adjusting a number of speckle points contained in a collected speckle image according to the accuracy level, and acquiring the target image according to the adjusted speckle image, in which the speckle image is an image formed by irradiating laser speckles collected by a laser camera on an object; and sending the target image to the target application, wherein sending the target image to the target application comprises: acquiring a reference image pre-stored in an electronic device, and performing an encryption processing on the target image according to the reference image, in which the reference image is an image containing reference speckle points and obtained by calibration; and sending the encrypted target image to the target application. acquiring a reference image pre-stored in an electronic device, and performing an encryption processing on the target image according to the reference image, in which the reference image is an image containing reference speckle points and obtained by calibration; and sending the encrypted target image to the target application.
A gearbox comprising first and second rotational members, the first rotational member having a shaft portion extending away from the gearbox, the first rotational member carrying one or more projections, the second rotational member carrying one or more complementary projections, the projections carried by the first rotational member being configured to be drivingly engaged with the complementary projections carried by the second rotational member to transmit torque in a first torque connection but not in a torque connection that is opposed to the first torque connection, wherein the gearbox further comprises a one way clutch (111, 115, 118) adapted such that the first and second rotational members can be drivingly engaged to transmit torque in a second torque connection, wherein the second torque connection is opposed to the first torque connection.
A firearm stock extension, including a first body section, a second body section and a folding butt, the first and second body sections (31, 32) being foldable against each other, and the folding butt being foldable against the second body section, said firearm stock extension being removably attachable to a pistol at a connection location provided in the first body section, wherein the connection location is a pistol grip lock well, which is configured to cooperate with a rim on a stock of the pistol, characterized in that a reversed magazine catch locking system is provided, which reversed magazine catch locking system locks the rim to the pistol grip lock well by means of frame stock rim catch plate which is pushed into a locked position by frame stock rim catch plate spring
A light spreading complex lens through which light is irradiated and transmitted from a rear side toward a front side, comprising: a main body having a predetermined thickness and formed with an aperture penetrated in a vertical direction; and a refraction lens part that protrudes toward the rear side of the lens from a first surface proximate to the front side of the lens in the inner surfaces of the aperture; a serration part including a plurality of protruding parts that protrude toward the front side of the lens from a second surface proximate to the rear side of the lens in the inner surfaces of the aperture, characterized in that the protruding part protrudes in a triangular shape when viewed from a top direction, wherein the protruding part satisfies: 0.375 < h / p < 0.5 wherein, h is a length of from the second surface to an apex of the protruding part and p is a length of a base line of the protruding part.
A method of communicating with a wireless terminal executed at a radio network controller, the method comprising: providing first information responsive to receiving first and second multiple-input-multiple-output, MIMO, data streams from the wireless terminal through a first antenna array (117a, 117a') of a first sector (A, A') during a first transmission time interval; providing second information responsive to receiving the first and second MIMO data streams from the wireless terminal through a second antenna array (117b, 117b") of a second sector (B, B") during the first transmission time interval, wherein the first sector (A, A') and the second sector (B, B") are different and wherein the first antenna array (117a, 117a') and the second antenna array (117b, 117b") are different; generating a first offset value responsive to the first information and generating a second offset value responsive to the second information, wherein the first offset value defines a first difference between data rates of the first and second MIMO data streams for a second transmission time interval after the first transmission time interval, and wherein the second offset value defines a second difference between data rates of the first and second MIMO data streams for the second transmission time interval; and transmitting the first and second offset values to the wireless terminal. providing first information responsive to receiving first and second multiple-input-multiple-output, MIMO, data streams from the wireless terminal through a first antenna array (117a, 117a') of a first sector (A, A') during a first transmission time interval; providing second information responsive to receiving the first and second MIMO data streams from the wireless terminal through a second antenna array (117b, 117b") of a second sector (B, B") during the first transmission time interval, wherein the first sector (A, A') and the second sector (B, B") are different and wherein the first antenna array (117a, 117a') and the second antenna array (117b, 117b") are different; generating a first offset value responsive to the first information and generating a second offset value responsive to the second information, wherein the first offset value defines a first difference between data rates of the first and second MIMO data streams for a second transmission time interval after the first transmission time interval, and wherein the second offset value defines a second difference between data rates of the first and second MIMO data streams for the second transmission time interval; and transmitting the first and second offset values to the wireless terminal.
A port for connecting a non-atmospheric pressure source to a wound dressing, the port comprising: a first aperture configured to connect to the non-atmospheric pressure source; a wound dressing contact surface; the wound dressing contact surface comprising a second aperture in fluid communication with the first aperture and configured to allow fluid communication with the wound dressing; and a piercing means configured to pierce the wound dressing as the wound dressing contact surface of the port is applied to the wound dressing, wherein the port further comprises a housing, wherein the piercing means is configured to extend from the housing, wherein the port is characterised in that the piercing means is configured to be retractable into the housing.
A motion sensor, comprising: one or more proof masses (44, PM1 802B, PM2 802A) having one or more planar surfaces; a plurality of electrodes located opposite the one or more planar surfaces; a first signal generator configured to apply an auxiliary signal to the plurality of electrodes, the auxiliary signal having a first harmonic frequency; and processing circuitry configured to receive a signal representative of a capacitance formed between the plurality of electrodes and the one or more proof masses, to determine a sensed signal from the received signal, and to identify a first portion of the sensed signal having the first harmonic frequency, the processing circuitry further configured to determine when a residual voltage is present on the one or more proof masses (44, PM1 802B, PM2 802A) or on one or more of the plurality electrodes based on the first portion of the sensed signal, and to identify an error when first portion of the sensed signal exceeds a threshold. one or more proof masses (44, PM1 802B, PM2 802A) having one or more planar surfaces; a plurality of electrodes located opposite the one or more planar surfaces; a first signal generator configured to apply an auxiliary signal to the plurality of electrodes, the auxiliary signal having a first harmonic frequency; and processing circuitry configured to receive a signal representative of a capacitance formed between the plurality of electrodes and the one or more proof masses, to determine a sensed signal from the received signal, and to identify a first portion of the sensed signal having the first harmonic frequency, the processing circuitry further configured to determine when a residual voltage is present on the one or more proof masses (44, PM1 802B, PM2 802A) or on one or more of the plurality electrodes based on the first portion of the sensed signal, and to identify an error when first portion of the sensed signal exceeds a threshold.
Component for fastening a trim element to a dashboard and for fastening a lateral trim element to a lateral structural element of a vehicle, comprising: - a part for fastening to the lateral structural element, - on one edge of said fastening part, lugs for fastening the trim elements (6, 7), - on the same edge of the fastening part, cable fastening lugs, characterized in that the cable fastening lugs integral with said edge of the fastening part are disposed between the lugs for fastening trim elements. - a part for fastening to the lateral structural element, - on one edge of said fastening part, lugs for fastening the trim elements (6, 7), - on the same edge of the fastening part, cable fastening lugs,
A piston unit for a working cylinder, comprising a piston and a piston rod, wherein the piston has an axial bore hole in which the piston rod is received, wherein the piston rod and the piston are connected in a material-bonding manner by means of two circumferential laser ring weld seams, wherein the laser ring weld seams form a pressure medium-tight sealing plane, characterized in that the piston rod has a chromium-plated outer lateral surface, that the outer lateral surface has a non-chromium-plated cross-sectionally reduced ring section, that an annular compensation layer is arranged between the piston and the cross-sectionally reduced ring section, and that the piston rod is connected to the annular compensation layer by a radial inner laser ring weld seam, and the annular compensation layer is connected to the piston by a radial outer laser ring weld seam. comprising a piston and a piston rod, wherein the piston has an axial bore hole in which the piston rod is received, wherein the piston rod and the piston are connected in a material-bonding manner by means of two circumferential laser ring weld seams, wherein the laser ring weld seams form a pressure medium-tight sealing plane, characterized in that the piston rod has a chromium-plated outer lateral surface, that the outer lateral surface has a non-chromium-plated cross-sectionally reduced ring section, that an annular compensation layer is arranged between the piston and the cross-sectionally reduced ring section, and that the piston rod is connected to the annular compensation layer by a radial inner laser ring weld seam, and the annular compensation layer is connected to the piston by a radial outer laser ring weld seam.
An engineered Cry1Ba (eCry1Ba) protein comprising mutation Y150K at position 150 of SEQ ID NO: 5, said engineered protein having improved solubility and insecticidal activity against at least European corn borer ( Ostrinia nubilalis) when compared to a native or wild-type Cry1Ba protein.
A computer-implemented method of developing an underground reservoir, notably a petroleum reservoir, crossed by at least a first well from which a fluid is produced, wherein a position of at least a second well to be drilled is determined by means of a production indicators map comprising a set of cells, each cell being associated with a production indicator defining an impact on the fluid production of a well addition in this cell, characterized in that it comprises the following stages: - constructing said map by means of the following stages: a) selecting cells from the set of cells of said map b) determining production indicators in the cells selected c) interpolating said production indicators determined in stage b) on the set of cells of said map, by means of an interpolation model taking account of a distance between the cell to be interpolated and the well closest to said cell to be interpolated, and - defining the position of said second well by the cell where said production indicator is maximal. - constructing said map by means of the following stages: a) selecting cells from the set of cells of said map b) determining production indicators in the cells selected c) interpolating said production indicators determined in stage b) on the set of cells of said map, by means of an interpolation model taking account of a distance between the cell to be interpolated and the well closest to said cell to be interpolated, and a) selecting cells from the set of cells of said map b) determining production indicators in the cells selected c) interpolating said production indicators determined in stage b) on the set of cells of said map, by means of an interpolation model taking account of a distance between the cell to be interpolated and the well closest to said cell to be interpolated, and - defining the position of said second well by the cell where said production indicator is maximal.
An optoelectronic sensor, in particular laser scanner, for detecting objects in a monitored area, the sensor comprising a light transmitter for transmitting transmitted light, a light receiver for generating a received signal from received light from the monitored area, receiving optics for focusing the received light onto the light receiver, a movable deflection unit for periodically deflecting the transmitted light and the received light, a control and evaluation unit for detecting information about objects in the monitored area on the basis of the received signal, in particular for distance measurement using a light time-of-flight method, and an optical deflection element (18, 40), in particular a mirror element, in the beam path of the received light, characterized in that the deflection element (18, 40) has temperature-dependent beam shaping properties, in particular a temperature-dependent curvature, that counteract a temperature-dependent change in the beam shaping properties of the receiving optics in a compensatory manner.