mhurhangee/ep-ind-claims huggingface dataset:
Repair process for producing a repair coating by plasma spraying a cylinder liner, which has a metallic lining, comprising at least the following steps of: machining the cylinder liner, such that the material thickness of the lining is reduced both in a damaged region and below and above same, wherein the material thickness of a head region above a top dead centre region remains at least partially unchanged and the original internal diameter of a light metal lip in the top head region remains unchanged; activating the region of reduced material thickness of the lining; coating the entire cylinder liner with an excess, wherein the repair coating is applied to the activated region and beyond the top dead centre region so as to coat the light metal lip; precision machining the repair coating until the original internal diameter is reached, and completely removing the repair coating from the regions which were previously not activated. machining the cylinder liner, such that the material thickness of the lining is reduced both in a damaged region and below and above same, wherein the material thickness of a head region above a top dead centre region remains at least partially unchanged and the original internal diameter of a light metal lip in the top head region remains unchanged; activating the region of reduced material thickness of the lining; coating the entire cylinder liner with an excess, wherein the repair coating is applied to the activated region and beyond the top dead centre region so as to coat the light metal lip; precision machining the repair coating until the original internal diameter is reached, and completely removing the repair coating from the regions which were previously not activated.
A current-mode DC-DC converter comprising: a power switch; a reset circuit (345, 330, 310) configured to provide a resettable input signal to the power switch; a first feedback loop coupled to the power switch and configured to provide a control signal to the reset circuit (345, 330, 310) to instigate a resettable input signal when a ramp voltage reaches a target peak current value, thereby generating a current-mode power supply from the power switch; an inductor, operably coupled to the power switch; a second current control feedback loop comprising: a current sense circuit configured to monitor a current passing through the inductor as influenced by an output of the power switch; and a slope compensation circuit operably coupled to the current sense circuit and configured to introduce a ramp voltage to a sensed voltage of the power switch to control a switch on-switch off the power switch to limit the inductor current; wherein the current-mode DC-DC converter is characterized by: a slope compensation effect cancellation circuit operably coupled to the current sense circuit via the second current control feedback loop and arranged to sense an inductor peak current and additionally control the switch on-switch off of the power switch in response to the sensed inductor peak current in order to limit the inductor current. a power switch; a reset circuit (345, 330, 310) configured to provide a resettable input signal to the power switch; a first feedback loop coupled to the power switch and configured to provide a control signal to the reset circuit (345, 330, 310) to instigate a resettable input signal when a ramp voltage reaches a target peak current value, thereby generating a current-mode power supply from the power switch; an inductor, operably coupled to the power switch; a second current control feedback loop comprising: a current sense circuit configured to monitor a current passing through the inductor as influenced by an output of the power switch; and a slope compensation circuit operably coupled to the current sense circuit and configured to introduce a ramp voltage to a sensed voltage of the power switch to control a switch on-switch off the power switch to limit the inductor current; a current sense circuit configured to monitor a current passing through the inductor as influenced by an output of the power switch; and a slope compensation circuit operably coupled to the current sense circuit and configured to introduce a ramp voltage to a sensed voltage of the power switch to control a switch on-switch off the power switch to limit the inductor current; wherein the current-mode DC-DC converter is characterized by: a slope compensation effect cancellation circuit operably coupled to the current sense circuit via the second current control feedback loop and arranged to sense an inductor peak current and additionally control the switch on-switch off of the power switch in response to the sensed inductor peak current in order to limit the inductor current.
A plasma reactor comprising: a stack constructed by stacking plus electrodes and minus electrodes and spacers; and a reactor body provided at one side of the stack to hold the stack, wherein the plus electrodes and the minus electrodes are arranged alternately with spacers to define passages through which gas is allowed to pass, each of the plus electrodes and the minus electrodes has deformation preventing means, which is formed of a slit, a hole or an arc, to disperse stress of the plus electrodes and the minus electrodes to prevent a local thermal stress caused by thermal expansion and contraction, thereby increasing thermal shock-resistant performance, external terminals (108, 109) for connection to the plus electrodes and the minus electrodes are provided on the reactor body, and a projection is formed on a surface of the reactor body in a direction perpendicular to a stack direction of the stack to allow the plasma reactor to be easily fixed to a case. a stack constructed by stacking plus electrodes and minus electrodes and spacers; and a reactor body provided at one side of the stack to hold the stack, wherein the plus electrodes and the minus electrodes are arranged alternately with spacers to define passages through which gas is allowed to pass, each of the plus electrodes and the minus electrodes has deformation preventing means, which is formed of a slit, a hole or an arc, to disperse stress of the plus electrodes and the minus electrodes to prevent a local thermal stress caused by thermal expansion and contraction, thereby increasing thermal shock-resistant performance, external terminals (108, 109) for connection to the plus electrodes and the minus electrodes are provided on the reactor body, and a projection is formed on a surface of the reactor body in a direction perpendicular to a stack direction of the stack to allow the plasma reactor to be easily fixed to a case.
A rope control device comprising: a main part defining: a central opening; first and second side portions (40a, 40b); first and second end portions (42a, 42b); at least one projection portion (34a, 34b, 34c, 34d) extending from each end portion; and a friction surface (46a, 46b, 46c, 46d) formed at junctures (44a, 44b, 44c, 44d) of each end portion and the at least one projection portion adjacent thereto, characterized by a bar part pivotably attached to the first side portion, wherein: the bar part may be in a closed position in which the bar part engages the second side portion of the main part; the rope control device may be in an open configuration in which the bar part does not engage the second side portion; and when the bar part is in the closed position, the main part and the bar part define first and second opening portions of the central opening, characterized in that the bar part is pivotable about a pivot axis defined by the first side portion. a main part defining: a central opening; first and second side portions (40a, 40b); first and second end portions (42a, 42b); at least one projection portion (34a, 34b, 34c, 34d) extending from each end portion; and a friction surface (46a, 46b, 46c, 46d) formed at junctures (44a, 44b, 44c, 44d) of each end portion and the at least one projection portion adjacent thereto, characterized by a bar part pivotably attached to the first side portion, wherein: the bar part may be in a closed position in which the bar part engages the second side portion of the main part; the rope control device may be in an open configuration in which the bar part does not engage the second side portion; and when the bar part is in the closed position, the main part and the bar part define first and second opening portions of the central opening, characterized in that the bar part is pivotable about a pivot axis defined by the first side portion. a central opening; first and second side portions (40a, 40b); first and second end portions (42a, 42b); at least one projection portion (34a, 34b, 34c, 34d) extending from each end portion; and a friction surface (46a, 46b, 46c, 46d) formed at junctures (44a, 44b, 44c, 44d) of each end portion and the at least one projection portion adjacent thereto, the bar part may be in a closed position in which the bar part engages the second side portion of the main part; the rope control device may be in an open configuration in which the bar part does not engage the second side portion; and when the bar part is in the closed position, the main part and the bar part define first and second opening portions of the central opening, characterized in that the bar part is pivotable about a pivot axis defined by the first side portion.
A coupler for coupling two containers stacked on top of one another, especially aboard a ship, comprising an upper coupling projection for engagement with a bottom corner fitting of the upper container, a lower coupling projection for engagement with a top corner fitting of the lower container, a stop plate located between the coupling projections (10, 11), wherein the lower coupling projection extends with a shaft form the stop plate having a front wall orthogonal to the stop plate on one side and an inclined insertion surface opposite to the front wall which turns into a bevel at an end facing the stop plate that corresponds to bevel of the elongated hole of the corner fitting, wherein the bevel rests on the bevel of the elongated hole of the corner fitting when the coupler is coupled, a lateral coupling lug arranged in longitudinal direction of the containers when the coupler is coupled, and a vertical back wall on the side of the lower coupling projection facing away from the coupling lug, wherein the lower coupling projection includes a slot-like recess across the entire length of the lower coupling projection, characterized in that, the space (b) between a free edge of the coupling lug and the back wall is smaller than or equal to the width of an upper elongated hole in the top corner fitting when the coupler is coupled. extends with a shaft form the stop plate having a front wall orthogonal to the stop plate on one side and an inclined insertion surface opposite to the front wall which turns into a bevel at an end facing the stop plate that corresponds to bevel of the elongated hole of the corner fitting, wherein the bevel rests on the bevel of the elongated hole of the corner fitting when the coupler is coupled,
An apparatus for protecting an optical sensor, comprising: a fixed filter having a fixed passband for light transmission; a programmable filter having a variable passband for light transmission; and a controllable voltage source that shifts the passband of the programmable filter from a first state in which a passband wavelength of the programmable filter is substantially the same as a passband wavelength of the fixed filter to a second state in which the passband wavelength of the programmable filter is different from the passband wavelength of the fixed filter; the apparatus being adapted to be disposed in front of an aperture of the sensor so that light passes through both the programmable filter and the fixed filter in order to be detected at the optical sensor; the apparatus characterized by the programmable filter including four quarter wavelength stacks (302a, 302b, 302c, 302d) layered on top of one another, the first quarter wavelength stack including alternating n-type layers and p-type layers (304a,..., 304h) of a first material and the second quarter wavelength stack including alternating n-type layers and p-type layers (304a,..., 304h) of a second material that is different in terms of its optical index of refraction from the material of the first quarter wavelength stack. a fixed filter having a fixed passband for light transmission; a programmable filter having a variable passband for light transmission; and a controllable voltage source that shifts the passband of the programmable filter from a first state in which a passband wavelength of the programmable filter is substantially the same as a passband wavelength of the fixed filter to a second state in which the passband wavelength of the programmable filter is different from the passband wavelength of the fixed filter; the apparatus being adapted to be disposed in front of an aperture of the sensor so that light passes through both the programmable filter and the fixed filter in order to be detected at the optical sensor; the apparatus characterized by the programmable filter including four quarter wavelength stacks (302a, 302b, 302c, 302d) layered on top of one another, the first quarter wavelength stack including alternating n-type layers and p-type layers (304a,..., 304h) of a first material and the second quarter wavelength stack including alternating n-type layers and p-type layers (304a,..., 304h) of a second material that is different in terms of its optical index of refraction from the material of the first quarter wavelength stack.
A humanized antibody or fragment thereof that binds human PD-1 and comprises a combination of a heavy chain variable region and a light chain variable region, the combination comprising: SEQ ID NO.: 172 and SEQ ID NO.: 186; SEQ ID NO.: 173 and SEQ ID NO.: 187; SEQ ID NO.: 174 and SEQ ID NO: 188; SEQ ID NO.: 175 and SEQ ID NO.: 189; SEQ ID NO.: 176 and SEQ ID NO.: 190; or SEQ ID NO.: 177 and SEQ ID NO.: 190; SEQ ID NO.: 172 and SEQ ID NO.: 186; SEQ ID NO.: 173 and SEQ ID NO.: 187; SEQ ID NO.: 174 and SEQ ID NO: 188; SEQ ID NO.: 175 and SEQ ID NO.: 189; SEQ ID NO.: 176 and SEQ ID NO.: 190; or SEQ ID NO.: 177 and SEQ ID NO.: 190;
Linear motor comprising a stator and a mobile motor part, the mobile motor part comprising a support, actuators and at least one motor element separated from the stator by an airgap configured to be electromagnetically coupled thereto to generate thrust on the mobile element in a track direction, at least one of the stator and the mobile motor part comprising an electromagnet and at least the other of the stator and mobile motor part comprising one or more of a permanent magnet, an electromagnet, an induction plate, the actuators coupling the at least one motor element of the mobile motor part to the support in an airgap direction perpendicular to the track direction, characterized in that the linear motor further comprises at least one electronic control system and airgap sensors electrically connected to the electronic control system configured to measure a length of the airgap between the mobile motor part and the stator, wherein the actuators are electrically connected to the electronic control system, the actuators receiving control signals from the electronic control system to adjust said length of the airgap, wherein the mobile motor part comprises a plurality of said motor elements connected together via hinge coupling elements and/or said at least one motor element comprises a plurality of motor segments connected together via flexible hinges.
A plant for recovering a reusable grade of sulphur hexafluoride from a contaminated gas source including sulphur hexafluoride, the plant including: a clean-up stage for receiving a stream of the contaminated gas source in a liquid or vapour phase, the clean-up stage including at least one or more of a scrubber and filter stage or unit through which the contaminated gas stream is passed for removing specific contaminants from the stream and obtain a partially cleaned-up fluid stream containing sulphur hexafluoride; a separation stage having a separation vessel for receiving the partially cleaned-up fluid stream and a chilling assembly for chilling the fluid stream and solidifying the sulphur hexafluoride within the separation vessel while maintaining nitrogen and other non-condensable contaminant gases in a gaseous state; a venting arrangement for venting the contaminant gases from the separation vessel; a collection stage having a collection vessel for receiving sulphur hexafluoride in liquid and gaseous phase from the separation vessel; a valve assembly located between the separator and collection vessels for controlling fluid flow communication between the vessels; and a sulphur hexafluoride vapour generation stage associated with the separation and collection stages, operable for vaporising liquid sulphur hexafluoride contained within the collection vessel and transferring warm sulphur hexafluoride vapour into the separation vessel to promote and/or cause melting of the solidified sulphur hexafluoride which can then flow into and be collected within the collection vessel. a clean-up stage for receiving a stream of the contaminated gas source in a liquid or vapour phase, the clean-up stage including at least one or more of a scrubber and filter stage or unit through which the contaminated gas stream is passed for removing specific contaminants from the stream and obtain a partially cleaned-up fluid stream containing sulphur hexafluoride; a separation stage having a separation vessel for receiving the partially cleaned-up fluid stream and a chilling assembly for chilling the fluid stream and solidifying the sulphur hexafluoride within the separation vessel while maintaining nitrogen and other non-condensable contaminant gases in a gaseous state; a venting arrangement for venting the contaminant gases from the separation vessel; a collection stage having a collection vessel for receiving sulphur hexafluoride in liquid and gaseous phase from the separation vessel; a valve assembly located between the separator and collection vessels for controlling fluid flow communication between the vessels; and a sulphur hexafluoride vapour generation stage associated with the separation and collection stages, operable for vaporising liquid sulphur hexafluoride contained within the collection vessel and transferring warm sulphur hexafluoride vapour into the separation vessel to promote and/or cause melting of the solidified sulphur hexafluoride which can then flow into and be collected within the collection vessel.
A vehicle lighting unit comprising: a housing having an opening section; an outer lens covering the opening section of the housing, the outer lens defining a lighting chamber together with the housing; a light source; and a reflector, the light source and the reflector being housed in the lighting chamber, wherein the reflector is formed to have a plurality of strip-shaped reflection surfaces (7a, 7b); wherein a plurality of slit-like holes are formed in the reflector at appropriate intervals in a direction of a vehicle width, when the vehicle lighting unit is disposed on the vehicle, so as to have a size increased gradually as it is positioned more outward in the vehicle width direction; characterized in that the plurality of strip-shaped reflection surfaces (7a,7b) includes a first plurality of strip-shaped reflection surfaces and a second plurality of strip-shaped reflection surfaces; the reflector has a dummy section where light from the light source does not reach, wherein the second plurality of strip-shaped reflection surfaces is provided in the dummy section; and the plurality of slit-like holes are formed in the dummy section of the reflector, alternating with the strip shaped reflection surfaces of the second plurality of strip-shaped reflection surfaces, at appropriate intervals in a direction of a vehicle width so as to have a size increased gradually as it is positioned more outward in the vehicle width direction. a housing having an opening section; an outer lens covering the opening section of the housing, the outer lens defining a lighting chamber together with the housing; a light source; and a reflector, the light source and the reflector being housed in the lighting chamber, wherein the reflector is formed to have a plurality of strip-shaped reflection surfaces (7a, 7b); wherein a plurality of slit-like holes are formed in the reflector at appropriate intervals in a direction of a vehicle width, when the vehicle lighting unit is disposed on the vehicle, so as to have a size increased gradually as it is positioned more outward in the vehicle width direction; characterized in that the plurality of strip-shaped reflection surfaces (7a,7b) includes a first plurality of strip-shaped reflection surfaces and a second plurality of strip-shaped reflection surfaces; the reflector has a dummy section where light from the light source does not reach, wherein the second plurality of strip-shaped reflection surfaces is provided in the dummy section; and the plurality of slit-like holes are formed in the dummy section of the reflector, alternating with the strip shaped reflection surfaces of the second plurality of strip-shaped reflection surfaces, at appropriate intervals in a direction of a vehicle width so as to have a size increased gradually as it is positioned more outward in the vehicle width direction.
LC medium having negative dielectric anisotropy, comprising a low-molecular-weight liquid-crystalline component and one or more organic compounds, where the organic compound is characterised in that it contains at least one polar anchor group and contains at least one ring group, where the polar anchor group contains at least one OH structure or an N atom in a primary or secondary amine group and where the anchor group does not consist of an OH group which is screened like the OH group in 2,6-di-tert-butylphenol.
A method, comprising: providing an address field and a plurality of virtual function keys in a network browser, wherein the plurality of virtual function keys is associated with the address field; detecting data input into the address field by a user in order to use a service, wherein the data input into the address field by the user is different from a network address; and modifying the virtual function keys by providing at feast one virtual function key, associated with the address field of the network browser, which provides a function that depends upon the data input into the address field by the user and relates to the service. providing an address field and a plurality of virtual function keys in a network browser, wherein the plurality of virtual function keys is associated with the address field; detecting data input into the address field by a user in order to use a service, wherein the data input into the address field by the user is different from a network address; and modifying the virtual function keys by providing at feast one virtual function key, associated with the address field of the network browser, which provides a function that depends upon the data input into the address field by the user and relates to the service.
Method for purifying mineral solids and mixtures of mineral solids, which are treated in a reactor at a temperature of about 60°C or more and at a negative pressure, the treatment being carried out in the presence of a process gas and/or a process steam, characterized in that the reactor is first rinsed with an inert gas and heated and then the process gas and/or the process steam is introduced.