mhurhangee/ep-ind-claims huggingface dataset:
Implant having a first implant part and a second implant part, wherein the first and the second implant part (12, 14) are connected to one another in a connecting position by way of a screw connection comprising a nut, wherein the nut is configured in the form of a medical nut, which defines a longitudinal axis and has an internal thread and an external polygon, characterized in that the nut comprises at least one inner part and at least one outer part at least partially, in particular completely or substantially completely, surrounding the inner part, in that the at least one inner part comprises the internal thread, in that the at least one outer part comprises the external polygon, in that the nut comprises a torque limiting device, which is configured in such a way that the at least one outer part and the at least one inner part are non-rotatable relative to one another in a tightening direction when a torque acting in the tightening direction on the at least one outer part is smaller than a limit torque, in that the at least one outer part and the at least one inner part are rotatable relative to one another in the tightening direction when a torque acting in the tightening direction on the at least one outer part corresponds at least to the limit torque, in that the at least one inner part and the at least one outer part are non-releasably coupled to one another, in that the medical nut is of two-part configuration and comprises only one single inner part and one single outer part, or in that the medical nut is of three-part configuration and comprises only one single inner part and two outer parts (44, 45).
A computer implemented method for an end-user to perform in-situ calibration of the imagery of a head-up display in a vehicle, the method comprising performing, by a processor of the head-up display system, the following steps in response to receiving instruction to enter a head-up display calibration mode: obtaining information on the real-world scene within a field of view of the head-up display from a vehicle sensor system of the vehicle; using the information obtained from the vehicle sensor system to determine at least one feature in the field of view, characterized by: assessing whether each determined feature satisfies a suitability criterion for the head-up display calibration mode, and identifying one or more features that satisfy the suitability criterion; projecting an image using the head-up display, wherein the image comprises an image element corresponding to each identified feature; receiving at least one first user-input and changing the image in response to each first user-input, the user input being provided to align the or each respective image element with the corresponding identified feature. obtaining information on the real-world scene within a field of view of the head-up display from a vehicle sensor system of the vehicle; using the information obtained from the vehicle sensor system to determine at least one feature in the field of view, characterized by: assessing whether each determined feature satisfies a suitability criterion for the head-up display calibration mode, and identifying one or more features that satisfy the suitability criterion; projecting an image using the head-up display, wherein the image comprises an image element corresponding to each identified feature; receiving at least one first user-input and changing the image in response to each first user-input, the user input being provided to align the or each respective image element with the corresponding identified feature. assessing whether each determined feature satisfies a suitability criterion for the head-up display calibration mode, and identifying one or more features that satisfy the suitability criterion; projecting an image using the head-up display, wherein the image comprises an image element corresponding to each identified feature; receiving at least one first user-input and changing the image in response to each first user-input, the user input being provided to align the or each respective image element with the corresponding identified feature.
Assembly for securing a load on a frame, comprising a cable, one end of which is adapted for co-operating with a fastening element secured to the load or to the frame and tension in which is obtained by the displacement along a rack of a housing to which the opposite end of the cable is fastened, said housing comprising, on one hand, a pinion and crank system adapted for co-operating with a bar forming the rack which is angle-adjustable about two pivot pins held by the frame and along which said pinion housing is adapted to be displaced due to the action of the crank for adjusting the tension of said cable, characterised in that the securing assembly comprises, on the other hand, braking means adapted for preventing the displacement of said housing along said bar by rotational locking of said pinion, said braking means comprising a brake which acts directly on the pinion and a lock which acts directly on the brake so that said brake can be operated to release the pinion only when said lock is in a released position in which it does not lock the brake.
An exhaust aftertreatment system, EATS, for converting NOx emissions in exhaust gases from an engine, the EATS comprising: - a fluid channel for providing a fluid pathway for the exhaust gases, - a selective catalytic reduction, SCR, catalyst arranged in the fluid channel, the SCR catalyst being configured to store ammonia, - an injector configured to inject a reductant for providing ammonia to the SCR catalyst, the injector being arranged upstream of the SCR catalyst, - a fluid flow inducer (56, 58) configured to cause an induced fluid flow in at least a part of the fluid channel when the engine is turned off, characterized in that it further comprises a controlling apparatus configured to precondition the EATS prior to engine start by injecting the reductant into the fluid channel, and transport the reductant into the SCR catalyst by the induced fluid flow to store ammonia in the SCR catalyst. - a fluid channel for providing a fluid pathway for the exhaust gases, - a selective catalytic reduction, SCR, catalyst arranged in the fluid channel, the SCR catalyst being configured to store ammonia, - an injector configured to inject a reductant for providing ammonia to the SCR catalyst, the injector being arranged upstream of the SCR catalyst, - a fluid flow inducer (56, 58) configured to cause an induced fluid flow in at least a part of the fluid channel when the engine is turned off,
An instrument-cleaning method for on-site cleaning of liquid pathways of filling equipment that fills beverages, etc. into containers, such as bottles and cans, liquid-treatment equipment for filling solutions, or pipe equipment that connects the filling equipment and the liquid-treatment equipment, the instrument-cleaning method comprising: a pumping liquid step in which liquid that is water containing nanobubbles is pumped into the liquid pathways; characterized by a nanobubble water soaking step in which the liquid is allowed to be left undisturbed to soak for a prescribed period after the liquid pathways have been filled with the liquid by the pumping liquid step, wherein the pumping liquid step and the nanobubble water soaking step are performed, after a first hot water cleaning step in which the liquid pathways are cleaned with hot water, after the nanobubble water soaking step, an acid cleaning step is performed in which the liquid pathways are cleaned using an acid cleaning solution, after the acid cleaning step, a second hot water cleaning step is performed in which the liquid pathways are cleaned with hot water, after the second hot water cleaning step, a caustic cleaning step is performed in which the liquid pathways are cleaned using a caustic cleaning solution, and after the caustic cleaning step, a third hot water cleaning step is performed in which the liquid pathways are cleaned with hot water. a pumping liquid step in which liquid that is water containing nanobubbles is pumped into the liquid pathways; characterized by a nanobubble water soaking step in which the liquid is allowed to be left undisturbed to soak for a prescribed period after the liquid pathways have been filled with the liquid by the pumping liquid step, wherein the pumping liquid step and the nanobubble water soaking step are performed, after a first hot water cleaning step in which the liquid pathways are cleaned with hot water, after the nanobubble water soaking step, an acid cleaning step is performed in which the liquid pathways are cleaned using an acid cleaning solution, after the acid cleaning step, a second hot water cleaning step is performed in which the liquid pathways are cleaned with hot water, after the second hot water cleaning step, a caustic cleaning step is performed in which the liquid pathways are cleaned using a caustic cleaning solution, and after the caustic cleaning step, a third hot water cleaning step is performed in which the liquid pathways are cleaned with hot water.
A chemical plasma processing gas supply member (30,15) comprising a gas supply pipe which is adapted to be inserted into a container held in a plasma processing chamber into which a microwave may be introduced, the gas supply member is adapted to supply a reactive gas which is used to form a CVD film on an inner surface of the container, wherein the gas supply pipe is sectionalized into two areas, i.e., an electric field intensity distribution stabilizing area and an end gas induction area which is positioned on an end side with respect to the electric field intensity distribution stabilizing area, at least a metal portion which communicates with a shield wall constituting the plasma processing chamber and extends from a root portion to a boundary between the electric field intensity distribution stabilizing area and the end gas induction area in an axial direction, wherein the metal portion is formed in the electric field intensity distribution stabilizing area, and the end gas induction area is formed of a non-metal material.
A method implemented in a wireless device the method comprising: performing at least one round trip time, RTT, measurement over a measurement time, T m, the measurement time being a function of at least an association between a first periodicity, T RS1, of a first reference signal and a second periodicity, T RS2, of a second reference signal, the first reference signal being transmitted from the wireless device to a network node and the second reference signal being received by the wireless device from the network node; and using a result of the at least one RTT measurement for one or more operational tasks, wherein: the first reference signal is a sounding reference signal, SRS, and the second reference signal is a positioning reference signal, PRS; and the first periodicity is a periodicity of the SRS and the second periodicity is a periodicity of the PRS. performing at least one round trip time, RTT, measurement over a measurement time, T m, the measurement time being a function of at least an association between a first periodicity, T RS1, of a first reference signal and a second periodicity, T RS2, of a second reference signal, the first reference signal being transmitted from the wireless device to a network node and the second reference signal being received by the wireless device from the network node; and using a result of the at least one RTT measurement for one or more operational tasks, wherein: the first reference signal is a sounding reference signal, SRS, and the second reference signal is a positioning reference signal, PRS; and the first periodicity is a periodicity of the SRS and the second periodicity is a periodicity of the PRS. the first reference signal is a sounding reference signal, SRS, and the second reference signal is a positioning reference signal, PRS; and the first periodicity is a periodicity of the SRS and the second periodicity is a periodicity of the PRS.
A slider switch, comprising a base, a slider set in the base and several pins arranged in two rows, in which the slider is configured to glide in the glide direction defined by said two rows of pins; the slider switch further comprises a contact element respectively provided on each of two sides of the slider opposite to the pins, in which each of said contact elements are configured to electrically connect a pair of neighboring pins in the same row; and a first elastic element and a contact sheet provided along the glide direction in the base, in which one end of the first elastic element is configured to connect to the base, the other end of the first elastic element is configured to connect to the contact sheet, and one end surface of the slider adjacent to the contact sheet is configured to press against the contact sheet from a direction opposite to the first elastic element, wherein, when each of said contact elements is in contact with a pair of said pins closest to the contact sheet, the contact sheet is separate from said two pins closest to the contact sheet with the pressure from the slider, and when each of said contact elements is in contact with pairs of pins other than those closest (20a, 20b) to the contact sheet, the contact sheet is pressed against said two pins (20a, 20b) closest to the contact sheet by the first elastic element, characterized in that, when each of said contact elements is in contact with pairs of pins other than those closest (20a, 20b) to the contact sheet, the contact sheet is separate from the slider.
Process for making solid methylglycine diacetate (MGDA) alkali metal salt (a), said process comprising the steps of providing a 35 to 60% by weight aqueous solution of said MGDA salt having a temperature in the range of from 50 to 90°C, adding 0.01 to 2% by weight of a particulate solid with a pore volume in the range of from 0.25 to 0.75 cm 3 /g, determined by nitrogen adsorption in accordance with DIN 66134:1998-02 (b), the percentage referring to the content of (a), crystallizing (a), removing said crystalline (a) from the mother liquor. providing a 35 to 60% by weight aqueous solution of said MGDA salt having a temperature in the range of from 50 to 90°C, adding 0.01 to 2% by weight of a particulate solid with a pore volume in the range of from 0.25 to 0.75 cm 3 /g, determined by nitrogen adsorption in accordance with DIN 66134:1998-02 (b), the percentage referring to the content of (a), crystallizing (a), removing said crystalline (a) from the mother liquor.
A container including a reflexive lid, said lid comprising: a top panel including a top-panel front section and a top-panel rear section connected along a fold line; and a top front panel; wherein the top-panel rear section is foldably connected to a rear-panel top edge of the container, wherein the rear panel top edge of the container is at a height above a bottom panel of the container and the fold line is a depth from the rear panel top edge, characterized in that the depth is the same or substantially the same as the height, and the top panel is arranged to fold back over the rear-panel top edge such that (i) the fold line is substantially aligned with a rear-panel bottom edge of a rear panel and (ii) the top-panel front section and the top front panel are situated adjacent to the bottom panel of the container such that exposing of a compartment of the container is enabled. a top panel including a top-panel front section and a top-panel rear section connected along a fold line; and a top front panel; wherein the top-panel rear section is foldably connected to a rear-panel top edge of the container, wherein the rear panel top edge of the container is at a height above a bottom panel of the container and the fold line is a depth from the rear panel top edge, characterized in that the depth is the same or substantially the same as the height, and the top panel is arranged to fold back over the rear-panel top edge such that (i) the fold line is substantially aligned with a rear-panel bottom edge of a rear panel and (ii) the top-panel front section and the top front panel are situated adjacent to the bottom panel of the container such that exposing of a compartment of the container is enabled.
A camera device, comprising: a base; an elastic member disposed on the base and comprising a protrusion; a housing disposed on the base; a camera module comprising a lens and an image sensor and disposed on the protrusion of the elastic member in the housing; a magnet disposed on an outer peripheral surface of the camera module; and a coil disposed on the housing and facing the magnet, wherein the outer peripheral surface of the camera module comprises a first lateral surface and a second lateral surface disposed opposite to each other and a third lateral surface and a fourth lateral surface disposed opposite to each other between the first lateral surface and the second lateral surface, wherein the magnet comprises a first magnet disposed on each of the first lateral surface and the second lateral surface of the camera module and a second magnet disposed on each of the third lateral surface and the fourth lateral surface of the camera module, wherein the first magnet comprises a surface facing the coil and having different polarities on an upper portion and a lower portion thereof, wherein the second magnet comprises a surface facing the coil and having different polarities on both lateral portions thereof, and wherein the coil comprises a first coil facing the first magnet, a second coil facing the first magnet and electrically separated from the first coil, and a third coil facing the second magnet and electrically separated from the first coil and the second coil. a base; an elastic member disposed on the base and comprising a protrusion; a housing disposed on the base; a camera module comprising a lens and an image sensor and disposed on the protrusion of the elastic member in the housing; a magnet disposed on an outer peripheral surface of the camera module; and a coil disposed on the housing and facing the magnet, wherein the outer peripheral surface of the camera module comprises a first lateral surface and a second lateral surface disposed opposite to each other and a third lateral surface and a fourth lateral surface disposed opposite to each other between the first lateral surface and the second lateral surface, wherein the magnet comprises a first magnet disposed on each of the first lateral surface and the second lateral surface of the camera module and a second magnet disposed on each of the third lateral surface and the fourth lateral surface of the camera module, wherein the first magnet comprises a surface facing the coil and having different polarities on an upper portion and a lower portion thereof, wherein the second magnet comprises a surface facing the coil and having different polarities on both lateral portions thereof, and wherein the coil comprises a first coil facing the first magnet, a second coil facing the first magnet and electrically separated from the first coil, and a third coil facing the second magnet and electrically separated from the first coil and the second coil.
An apparatus comprising: an optical fiber having a hollow passageway therethrough; a laser medium within the hollow passageway; and first and second electrodes (24, 26) contacting the laser medium such that when a voltage is applied across the first and second electrodes (24, 26), the laser medium is excited such that the laser medium emits laser light through the hollow passageway. an optical fiber having a hollow passageway therethrough; a laser medium within the hollow passageway; and first and second electrodes (24, 26) contacting the laser medium such that when a voltage is applied across the first and second electrodes (24, 26), the laser medium is excited such that the laser medium emits laser light through the hollow passageway.
A pump assembly comprising: a pump having a pump housing, the pump having an inlet for receiving input fluid and a pump outlet for outputting pressurized fluid, and a drive shaft for driving parts of the pump to pressurize the input fluid for output from the pump housing; an electric motor configured to drive the drive shaft of the pump; a controller configured to drive the drive shaft of the pump, the controller comprising a circuit board having a first side for mounting electrical components thereon, the circuit board being oriented in an axial direction of the pump so that its first side faces in a radial direction; a magnet fixedly attached on a rotatable element of either the pump or the electric motor for rotation therewith; a 3D rotary sensor mounted on the first side of the circuit board, the 3D rotary sensor comprising a front face positioned parallel to the first side of the circuit board such that the front face of the 3D rotary sensor also faces in the radial direction, the 3D rotary sensor configured to detect both (a) motion parallel to its front face and (b) motion in a plane perpendicular to its front face, including rotary motion of the pump, for output to the controller, wherein the 3D rotary sensor is positioned in proximity to the magnet to detect rotary motion thereof in the plane perpendicular to the front face of the 3D rotary sensor such that an angular position of the rotatable element is determined. a pump having a pump housing, the pump having an inlet for receiving input fluid and a pump outlet for outputting pressurized fluid, and a drive shaft for driving parts of the pump to pressurize the input fluid for output from the pump housing; an electric motor configured to drive the drive shaft of the pump; a controller configured to drive the drive shaft of the pump, the controller comprising a circuit board having a first side for mounting electrical components thereon, the circuit board being oriented in an axial direction of the pump so that its first side faces in a radial direction; a magnet fixedly attached on a rotatable element of either the pump or the electric motor for rotation therewith; a 3D rotary sensor mounted on the first side of the circuit board, the 3D rotary sensor comprising a front face positioned parallel to the first side of the circuit board such that the front face of the 3D rotary sensor also faces in the radial direction, the 3D rotary sensor configured to detect both (a) motion parallel to its front face and (b) motion in a plane perpendicular to its front face, including rotary motion of the pump, for output to the controller, wherein the 3D rotary sensor is positioned in proximity to the magnet to detect rotary motion thereof in the plane perpendicular to the front face of the 3D rotary sensor such that an angular position of the rotatable element is determined.