mhurhangee/ep-ind-claims huggingface dataset:
A latch assembly (200; 300; 400; 500a, 500b) for opening and closing an openable structure, the latch assembly (200; 300; 400; 500a, 500b) comprising: a housing (204; 304) defining a cavity, characterised by: a handle (202; 302) movably mounted to the housing (204; 304); and a latching mechanism (214; 314) in the cavity and disposed between the handle (202; 302) and the housing (204; 304), the latching mechanism (214; 314) comprising: a first body (234; 334; 534a, 534b) the first body (234; 334; 534a, 534b) having a first latching element (206; 306; 406) extending through the housing (204; 304); a second body (236; 336; 536a, 536b) the second body (236; 336; 536a, 536b) having a second latching element (208; 308; 408) extending through the housing (204; 304); a first link attached to the first body (234; 334; 534a, 534b); a second link attached to the second body (236; 336; 536a, 536b); and a link connector (244; 344) operably connecting the first link to the second link, wherein movement of the link connector (244; 344) urges the first latching element (206; 306; 406) and the second latching element (208; 308; 408) apart through movement of the first link and the second link and the first body (234; 334; 534a, 534b) and the second body (236; 336; 536a, 536b); characterized in at least one guide pin (224; 324) being mounted to the housing (204; 304); wherein the first body (234; 334; 534a, 534b) and the second body (236; 336; 536a, 536b) are movable along the at least one guide pin (224; 324). a housing (204; 304) defining a cavity, characterised by: a handle (202; 302) movably mounted to the housing (204; 304); and a latching mechanism (214; 314) in the cavity and disposed between the handle (202; 302) and the housing (204; 304), the latching mechanism (214; 314) comprising: a handle (202; 302) movably mounted to the housing (204; 304); and a latching mechanism (214; 314) in the cavity and disposed between the handle (202; 302) and the housing (204; 304), the latching mechanism (214; 314) comprising: a first body (234; 334; 534a, 534b) the first body (234; 334; 534a, 534b) having a first latching element (206; 306; 406) extending through the housing (204; 304); a second body (236; 336; 536a, 536b) the second body (236; 336; 536a, 536b) having a second latching element (208; 308; 408) extending through the housing (204; 304); a first link attached to the first body (234; 334; 534a, 534b); a second link attached to the second body (236; 336; 536a, 536b); and a link connector (244; 344) operably connecting the first link to the second link, wherein movement of the link connector (244; 344) urges the first latching element (206; 306; 406) and the second latching element (208; 308; 408) apart through movement of the first link and the second link and the first body (234; 334; 534a, 534b) and the second body (236; 336; 536a, 536b); characterized in at least one guide pin (224; 324) being mounted to the housing (204; 304); wherein the first body (234; 334; 534a, 534b) and the second body (236; 336; 536a, 536b) are movable along the at least one guide pin (224; 324).
A rotor, comprising: a rotor core provided with a plurality of magnet implantable holes arranged in a circumferential direction of the rotor core; and a permanent magnet buried in each of the magnet implantable holes, wherein the rotor core is further provided with a gap formed of base holes extending to an outer side of the rotor core from both ends, in the circumferential direction, of each of the magnet implantable holes, and a projecting hole which projects in the circumferential direction of the rotor core from at least one of peripheral portions (35a, 35a), opposed to each other, of the base holes provided at both of the ends of each of the magnet implantable holes, when viewed in an axial direction, the projecting hole is located closer to the magnet implantable hole than to an outer peripheral side end of the base hole, characterized in that the rotor core is made of a magnetic material of which saturated magnetic flux density is greater than or equal to 2.3 T, and the projecting hole is in a semicircular shape when viewed in the axial direction. a rotor core provided with a plurality of magnet implantable holes arranged in a circumferential direction of the rotor core; and a permanent magnet buried in each of the magnet implantable holes, wherein the rotor core is further provided with a gap formed of base holes extending to an outer side of the rotor core from both ends, in the circumferential direction, of each of the magnet implantable holes, and a projecting hole which projects in the circumferential direction of the rotor core from at least one of peripheral portions (35a, 35a), opposed to each other, of the base holes provided at both of the ends of each of the magnet implantable holes, when viewed in an axial direction, the projecting hole is located closer to the magnet implantable hole than to an outer peripheral side end of the base hole, characterized in that the rotor core is made of a magnetic material of which saturated magnetic flux density is greater than or equal to 2.3 T, and the projecting hole is in a semicircular shape when viewed in the axial direction.
An equipment actuation system comprising: a transmitter configured to encode a data message (301, 701, 801) into a transmission code using a first coding format and a second coding format, wherein the first coding format is characterized by a first bit representation and the second coding format is characterized by a second bit representation different from the first bit representation; and transmit the transmission code including bits encoded according to the first coding format and bits encoded according to the second coding format, characterized in that a bit placement bit pattern of the transmission code includes a random bit placement bit pattern having a fixed ratio between bits of the data message encoded according to the first coding format and the second coding format, wherein the bit placement bit pattern of the transmission code assigns the first coding format to a different set of bit assignment locations for consecutive transmission codes where the consecutive transmission codes represent the same data message with randomly changing bit pattern assignment for each transmission. a transmitter configured to encode a data message (301, 701, 801) into a transmission code using a first coding format and a second coding format, wherein the first coding format is characterized by a first bit representation and the second coding format is characterized by a second bit representation different from the first bit representation; and transmit the transmission code including bits encoded according to the first coding format and bits encoded according to the second coding format, characterized in that a bit placement bit pattern of the transmission code includes a random bit placement bit pattern having a fixed ratio between bits of the data message encoded according to the first coding format and the second coding format, wherein the bit placement bit pattern of the transmission code assigns the first coding format to a different set of bit assignment locations for consecutive transmission codes where the consecutive transmission codes represent the same data message with randomly changing bit pattern assignment for each transmission.
Conveyor belt system having a conveyor belt and a device for sealing the side regions (1.2, 1. 3) of the conveyor belt, a series of sealing elements arranged at a distance from one another and facing the surface of the conveyor belt being arranged on both sides of the longitudinal axis of the conveyor belt in each case in the edge region of the conveyor belt, the individual sealing elements being designed in the form of strips, are arranged at an oblique angle to the longitudinal axis of the conveyor belt and point with their inner ends in the running direction of the conveyor belt, the individual sealing elements being designed as narrow guide strips, in that the ratio of the width of the respective guide strip to the distance between two of the guide strips which define an intermediate space is greater than 1: 3, wherein an end strip extends along the respective lateral edge of the conveyor belt, which end strip connects the outer ends of the guide strips arranged there, so that the intermediate space between the guide strips is closed off outwards towards the edge region of the conveyor belt, characterised in that the end strip is made of a rubber-elastic material and is provided with at least one adjusting means for adjusting its distance relative to the surface of the conveyor belt, so that the end strip can be arranged floating above the conveyor belt at a distance in the range from 1.0 mm to 10 mm from the surface of the conveyor belt, wherein the guide strips are dimensioned with respect to the end strips so that they can also be arranged floating above the conveyor belt at a small distance from the surface of the conveyor belt.
Arrangement for automated detection of an electrical hazard before carrying out assembly work on a high-voltage battery, wherein the high-voltage battery comprises at least one conductive battery housing part (1.1) and can be lifted out of an apparatus by means of a lifting device and can be supplied to a manual assembly station, that the arrangement is associated with a measuring device, by means of which a potential difference between the battery housing part (1.1) and a potential (P1W, P2W, PnW) assumed by a worker during assembly work can be determined, characterized in that the measuring device comprises at least one measuring mandrel (M1, M2, Mn) which is part of the lifting device, and in that the measuring mandrel (M1, M2, Mn) is operatively connected to the measuring device.
Control method of a battery-driven power tool for controlling a motor which drives a tool in an ON position of a motor switch, wherein, in a first step, an electronic device of a control system is initialised and the motor is switched on and, in a second step, a continuous monitoring of a motor current and of a battery voltage takes place and, in a third step which alternates with the second step, a continuous comparison of the battery voltage with a limit value stored in a memory of the electronic device takes place, characterised in that, in a further step which follows a detection of an OFF position of the motor switch by the electronic device, a continuous monitoring of the battery voltage takes place for a time period.
Tool box for holding and transporting hand tools, in particular for holding ratchets, screwdrivers or other hand tools, wherein the tool box comprises a closure device, an upper housing part and a lower housing part, wherein the upper housing part and the lower housing part are coupled to one another rotatably about an axis of rotation and on the lower housing part a support is arranged which is pivotable relative to the lower housing part, by means of which the lower housing part can be supported in a support position, wherein a pivot axis of the support runs parallel to the axis of rotation of the tool box and in that the support is arranged on a depression of the lower housing part, wherein the support in a folded down position essentially forms a planar surface with the outside of the lower housing part, characterised in that feet are arranged on a foot side, wherein at least one foot is designed as a catching means and the foot is designed at least partly as a web, wherein on the support at least one tongue is formed and in a folded down position the tongue and the web can be moved into engagement with one another in a form-fitting manner.
Air cleaner for removing air-polluting materials from an air stream, comprising a filter device which includes at least one filter layer held by a filter holder in said airflow substantially perpendicular to a main flow direction thereof and including a plurality of stick-shaped filter elements neighboring each other, said filter holder including a preferably bar-shaped holding element to which all filter elements of a filter layer are rigidly connected, said holding element extending across the filter layer in said airflow, and a longitudinal axis of said holding element extending perpendicular to a longitudinal axis of the filter elements or diagonally to a longitudinal axis of the filter elements by forming an angle between said longitudinal axes of about 30° to 90°, characterized in that said filter holder including said holding element is formed integrally with said filter elements in one piece of the same material, and the filter elements are made of a porous material wetted by a fluid.
A method for displaying security images on a security monitor while maintaining privacy of humans shown in the security images, the security images provided by a video camera, the method comprising: receiving an image from the video camera; identifying one or more objects that are moving in the image by; comparing the image to a background image; identifying regions of the image that are different from the background image; and associating the regions of the image that are different from the background image as corresponding to the one or more objects that are moving in the image; obscuring the one or more objects that are identified as moving in the image; for at least those parts of the image that are not identified as containing any moving objects, identifying pixels that have a color falling within one or more defined color ranges that are associated with human skin; obscuring pixels that are identified as having a color falling within the one or more defined color ranges; displaying a resulting image on a display (18, 78), including any obscured moving objects and any obscured pixels that are identified as having a color falling within the one or more of the defined color ranges; and periodically updating the background image with a new background image. receiving an image from the video camera; identifying one or more objects that are moving in the image by; comparing the image to a background image; identifying regions of the image that are different from the background image; and associating the regions of the image that are different from the background image as corresponding to the one or more objects that are moving in the image; comparing the image to a background image; identifying regions of the image that are different from the background image; and associating the regions of the image that are different from the background image as corresponding to the one or more objects that are moving in the image; obscuring the one or more objects that are identified as moving in the image; for at least those parts of the image that are not identified as containing any moving objects, identifying pixels that have a color falling within one or more defined color ranges that are associated with human skin; obscuring pixels that are identified as having a color falling within the one or more defined color ranges; displaying a resulting image on a display (18, 78), including any obscured moving objects and any obscured pixels that are identified as having a color falling within the one or more of the defined color ranges; and periodically updating the background image with a new background image.
A method for X-ray grating interferometry for retrieving absorption, differential phase contrast and dark field images of an underlying sample from a Moiré fringe pattern obtained by detuning the X-ray grating interferometer using a phase grating and an analyzer grating and optionally a source grating, comprising the steps of: a) detuning of the X-ray grating interferometer by tilting the phase grating and/or the analyzer grating by a predetermined angle, so that each detector line of a multiple-line detector records an intensity signal corresponding to a different relative position of the gratings (G1, G2); b) scanning the underlying sample by a relative movement between the sample and the detuned grating interferometer, preferably including the X-ray source, the gratings and the multiple-line detector), so that each slice of the sample is scanned by multiple detector lines with a different phase step per line, in order to record a complete phase-stepping curve, wherein c) the tilting angle θ is calculated using the following information: a) period p 2 of the analyzer grating, b) number n of detector lines, c) number m of periods p 2 that are to be scanned; and d) separation D between detector lines, and employing the following formula: θ = arctan mp z nD (d) evaluation of the phase stepping curves corresponding to one position on the sample, in order to be able to retrieve the absorption, phase contrast and dark field images of the sample. a) detuning of the X-ray grating interferometer by tilting the phase grating and/or the analyzer grating by a predetermined angle, so that each detector line of a multiple-line detector records an intensity signal corresponding to a different relative position of the gratings (G1, G2); b) scanning the underlying sample by a relative movement between the sample and the detuned grating interferometer, preferably including the X-ray source, the gratings and the multiple-line detector), so that each slice of the sample is scanned by multiple detector lines with a different phase step per line, in order to record a complete phase-stepping curve, wherein c) the tilting angle θ is calculated using the following information: a) period p 2 of the analyzer grating, b) number n of detector lines, c) number m of periods p 2 that are to be scanned; and d) separation D between detector lines, and employing the following formula: θ = arctan mp z nD a) period p 2 of the analyzer grating, b) number n of detector lines, c) number m of periods p 2 that are to be scanned; and d) separation D between detector lines, and employing the following formula: θ = arctan mp z nD (d) evaluation of the phase stepping curves corresponding to one position on the sample, in order to be able to retrieve the absorption, phase contrast and dark field images of the sample.
A radio frequency, RF, ablation system comprising: a plurality of electrodes (102, 208) configured to be positioned at respective tissue sites within a patient's body; a ground pad configured to be positioned on the patient's body to provide a ground path from the patient's body; and a signal generator coupled to the ground pad and further coupled to the plurality of electrodes via corresponding channels (402, 502, 504, 506, 508), the corresponding channels including a selected channel and a plurality of unselected channels (504, 506, 508), the signal generator configured to: control switching circuits for the corresponding channels to close the selected channel and to open the plurality of unselected channels; measure a first impedance over the selected channel; control the switching circuits to close the selected channel and the plurality of unselected channels; measure a second impedance over the selected channel; compute a difference between the first impedance and the second impedance; and determine the ground pad has at least a poor electrical connection to the patient's body when the difference exceeds a threshold. a plurality of electrodes (102, 208) configured to be positioned at respective tissue sites within a patient's body; a ground pad configured to be positioned on the patient's body to provide a ground path from the patient's body; and a signal generator coupled to the ground pad and further coupled to the plurality of electrodes via corresponding channels (402, 502, 504, 506, 508), the corresponding channels including a selected channel and a plurality of unselected channels (504, 506, 508), the signal generator configured to: control switching circuits for the corresponding channels to close the selected channel and to open the plurality of unselected channels; measure a first impedance over the selected channel; control the switching circuits to close the selected channel and the plurality of unselected channels; measure a second impedance over the selected channel; compute a difference between the first impedance and the second impedance; and determine the ground pad has at least a poor electrical connection to the patient's body when the difference exceeds a threshold. control switching circuits for the corresponding channels to close the selected channel and to open the plurality of unselected channels; measure a first impedance over the selected channel; control the switching circuits to close the selected channel and the plurality of unselected channels; measure a second impedance over the selected channel; compute a difference between the first impedance and the second impedance; and determine the ground pad has at least a poor electrical connection to the patient's body when the difference exceeds a threshold.
Method for producing, on one same substrate, at least one first transistor and at least one second transistor, characterised in that the method comprises at least the following steps: - Production on a substrate of at least one first grid pattern (200, 200') and at least one second grid pattern (300, 300'); - Deposition on the first and second grid pattern (200, 200', 300, 300') of at least one first protective layer; - Masking of the second grid pattern (300, 300') by a masking layer; - After the masking step: isotropic modification of the first protective layer situated on the first grid pattern (200, 200') by isotropic implantation of ions in the first protective layer so as to form modified portions of the first layer; - Removal of the masking layer; - Before the masking step or after the step of removing the masking layer: anisotropic modification of the first protective layer by anisotropic implantation of ions in the first protective layer, the anisotropic implantation being done along a favoured direction parallel to the flanks of the second grid pattern (300, 300') so as to modify the first protective layer at least on a peak of the second grid pattern (300, 300') and outside of the first and second grid patterns (200, 200', 300, 300') while conserving non-modified portions of the first protective layer on the flanks of the second grid pattern (300, 300'); - Selective etching of modified portions of the first protective layer selectively at the non-modified portions of the first protective layer. - Production on a substrate of at least one first grid pattern (200, 200') and at least one second grid pattern (300, 300'); - Deposition on the first and second grid pattern (200, 200', 300, 300') of at least one first protective layer; - Masking of the second grid pattern (300, 300') by a masking layer; - After the masking step: isotropic modification of the first protective layer situated on the first grid pattern (200, 200') by isotropic implantation of ions in the first protective layer so as to form modified portions of the first layer; - Removal of the masking layer; - Before the masking step or after the step of removing the masking layer: anisotropic modification of the first protective layer by anisotropic implantation of ions in the first protective layer, the anisotropic implantation being done along a favoured direction parallel to the flanks of the second grid pattern (300, 300') so as to modify the first protective layer at least on a peak of the second grid pattern (300, 300') and outside of the first and second grid patterns (200, 200', 300, 300') while conserving non-modified portions of the first protective layer on the flanks of the second grid pattern (300, 300'); - Selective etching of modified portions of the first protective layer selectively at the non-modified portions of the first protective layer.