mhurhangee/ep-ind-claims huggingface dataset:
Glass-ceramic cooking surface for induction heating having improved coloured display capability and heat shielding, consisting of a transparent, coloured glass-ceramic plate which has a thickness in the range from 2.5 mm to 6 mm and has high-quartz mixed crystals as predominant crystal phase, where the glass-ceramic contains none of the chemical refining agents arsenic oxide and antimony oxide except for unavoidable traces in an amount of less than 0.05%, characterized by transmission values of the cooking surface of: > 0.4% at at least one wavelength in the blue range from 380 to 500 nm, > 2% - < 12% at 630 nm, < 45% at 1600 nm, preferably < 40%, and a light transmission in the visible range of 0.5-2%, > 0.1% in the range of visible light in the total wavelength range > 500 nm, in the near infrared at 950 nm > 30%, and in that the composition of the glass-ceramic (in percent by weight on an oxide basis) contains, as main constituents: Li 2 O 1.5 - 4.2 ∑ Na 2 O+K 2 O 0.2 - 1.5 MgO 0 - 3 ∑ CaO+SrO+BaO 0 - 4 ZnO 0 - 3 B 2 O 3 0 - 2 Al 2 O 3 19 - 23 SiO 2 60 - 69 TiO 2 1.5 - 6 ZrO 2 0.5 - 2 P 2 O 5 0 - 3 SnO 2 0.1 - < 0.6 ∑ TiO 2 +ZrO 2 +SnO 2 3.8 - 6 and Fe 2 O 3 0.03 - 0.3 in combination with CoO 0.05 - 0.3 NiO 0.05 - 0.3 Manganese compounds > 0 - 2 V 2 O 5 0 - 0.06 Cr 2 O 3 0 - 0.3. > 0.4% at at least one wavelength in the blue range from 380 to 500 nm, > 2% - < 12% at 630 nm, < 45% at 1600 nm, preferably < 40%, and a light transmission in the visible range of 0.5-2%, > 0.1% in the range of visible light in the total wavelength range > 500 nm, in the near infrared at 950 nm > 30%, and in that the composition of the glass-ceramic (in percent by weight on an oxide basis) contains, as main constituents: Li 2 O 1.5 - 4.2 ∑ Na 2 O+K 2 O 0.2 - 1.5 MgO 0 - 3 ∑ CaO+SrO+BaO 0 - 4 ZnO 0 - 3 B 2 O 3 0 - 2 Al 2 O 3 19 - 23 SiO 2 60 - 69 TiO 2 1.5 - 6 ZrO 2 0.5 - 2 P 2 O 5 0 - 3 SnO 2 0.1 - < 0.6 ∑ TiO 2 +ZrO 2 +SnO 2 3.8 - 6 and Fe 2 O 3 0.03 - 0.3 in combination with CoO 0.05 - 0.3 NiO 0.05 - 0.3 Manganese compounds > 0 - 2 V 2 O 5 0 - 0.06 Cr 2 O 3 0 - 0.3.
System for holding a transport object at an inner wall of a transport vehicle, wherein the inner wall of the transport vehicle has a cross beam, characterized in that a cross beam airline rail and/or a fastening profile is reversibly attachable to the cross beam, wherein the cross beam airline rail and/or the fastening profile is/are connectable with a carrier airline rail, wherein the carrier airline rail comprises two belt anchor gliders (11, 12) which can be displaced and fixed in the carrier airline rail, wherein between the two belt anchor gliders (11, 12) a length adjustable belt is arranged, wherein one of the two belt anchor gliders (11, 12) or both belt anchor gliders (11, 12) has/have a clamping lock.
A condensing device, comprising: a mounting platform structure, an energy-collecting structure, and more than one mounting frame structure; the mounting platform structure tracks east and west angles of a sun and rotating synchronously, the energy-collecting structure located above the mounting platform structure, and the mounting frame structure is mounted on the mounting platform structure; more than one rotating device and more than one reflective mirror; each of the rotating devices are disposed on the corresponding mounting frame structure, each of the reflective mirrors are disposed on the corresponding rotating device, and the reflective mirrors are rotating universally on the mounting frame structure through the rotating device; more than one driving device, more than one guide rail, and more than one telescopic device; each of the driving devices are disposed on one end of the corresponding telescopic device, the other end of each of the telescopic devices are disposed on the corresponding reflective mirrors or the rotating device, each of the guide rails are disposed on the mounting platform structure or the mounting frame structure, each of the driving devices are disposed on the corresponding guide rails and move along the guide rails to drive the reflective mirrors to rotate, a curving radian of each of the guide rails is different from each other, such that each of the reflective mirrors rotate in different rotation directions, and light reflected by the reflective mirror is reflected onto the energy-collecting structure. a mounting platform structure, an energy-collecting structure, and more than one mounting frame structure; the mounting platform structure tracks east and west angles of a sun and rotating synchronously, the energy-collecting structure located above the mounting platform structure, and the mounting frame structure is mounted on the mounting platform structure; more than one rotating device and more than one reflective mirror; each of the rotating devices are disposed on the corresponding mounting frame structure, each of the reflective mirrors are disposed on the corresponding rotating device, and the reflective mirrors are rotating universally on the mounting frame structure through the rotating device; more than one driving device, more than one guide rail, and more than one telescopic device; each of the driving devices are disposed on one end of the corresponding telescopic device, the other end of each of the telescopic devices are disposed on the corresponding reflective mirrors or the rotating device, each of the guide rails are disposed on the mounting platform structure or the mounting frame structure, each of the driving devices are disposed on the corresponding guide rails and move along the guide rails to drive the reflective mirrors to rotate, a curving radian of each of the guide rails is different from each other, such that each of the reflective mirrors rotate in different rotation directions, and light reflected by the reflective mirror is reflected onto the energy-collecting structure.
A method of video processing, the method comprising: obtaining an indication of a cross-plane filter associated with a current picture, wherein the current picture comprises a video block; obtaining a plurality of reference samples used to predict the video block, wherein the plurality of reference samples comprises a reference chroma sample; determining a luma sample region in the current picture for enhancing the reference chroma sample in the plurality of reference samples, wherein the luma sample region comprises a plurality of luma samples that neighbors the reference chroma sample, wherein the luma sample region encompasses at least one of an available luma sample and an unavailable luma sample, wherein the available luma sample is a reconstructed luma sample, and wherein the unavailable luma sample is replaced with padding the available luma sample prior to reconstruction of the unavailable luma sample; applying the cross-plane filter to the plurality of luma samples in the luma sample region to determine an offset, wherein the cross-plane filter is applied to the luma sample region encompassing the unavailable luma sample that is replaced with padding the available luma sample prior to the reconstruction of the unavailable luma sample, and wherein the cross-plane filter comprises a high pass filter; applying the offset to the reference chroma sample to determine an enhanced reference chroma sample; and predicting a chroma sample in the video block using the enhanced reference chroma sample. obtaining an indication of a cross-plane filter associated with a current picture, wherein the current picture comprises a video block; obtaining a plurality of reference samples used to predict the video block, wherein the plurality of reference samples comprises a reference chroma sample; determining a luma sample region in the current picture for enhancing the reference chroma sample in the plurality of reference samples, wherein the luma sample region comprises a plurality of luma samples that neighbors the reference chroma sample, wherein the luma sample region encompasses at least one of an available luma sample and an unavailable luma sample, wherein the available luma sample is a reconstructed luma sample, and wherein the unavailable luma sample is replaced with padding the available luma sample prior to reconstruction of the unavailable luma sample; applying the cross-plane filter to the plurality of luma samples in the luma sample region to determine an offset, wherein the cross-plane filter is applied to the luma sample region encompassing the unavailable luma sample that is replaced with padding the available luma sample prior to the reconstruction of the unavailable luma sample, and wherein the cross-plane filter comprises a high pass filter; applying the offset to the reference chroma sample to determine an enhanced reference chroma sample; and predicting a chroma sample in the video block using the enhanced reference chroma sample.
A dispenser that dispenses a product, the dispenser comprising: a housing; a product container containing a product, the product having a product level within the product container that ranges between full and empty, the product level having a low level wherein the product level is near empty; a dispensing apparatus associated with the product container to withdraw and dispense product from the product container at an outlet; a container holder supporting the product container, the container holder being vertically moveable within a movement range; a biasing element supporting the container holder within the housing that urges the container holder upwardly such that a position of the product container in the movement range is dependent upon the product level in the product container; a level indicator vertically fixed relative to the housing; and a sign vertically fixed relative to the container holder, the sign including a low level marking at an upper portion of the sign to indicate when the product level is at the low level or lower; and wherein when the product level is at the low level or lower, the level indicator is aligned with a portion of the low level marking, characterized in that the level indicator is an opening through the housing, wherein the housing includes a product container holder compartment and a door that selectively opens and closes the product container holder compartment, and further wherein the opening is a window in the door. a housing; a product container containing a product, the product having a product level within the product container that ranges between full and empty, the product level having a low level wherein the product level is near empty; a dispensing apparatus associated with the product container to withdraw and dispense product from the product container at an outlet; a container holder supporting the product container, the container holder being vertically moveable within a movement range; a biasing element supporting the container holder within the housing that urges the container holder upwardly such that a position of the product container in the movement range is dependent upon the product level in the product container; a level indicator vertically fixed relative to the housing; and a sign vertically fixed relative to the container holder, the sign including a low level marking at an upper portion of the sign to indicate when the product level is at the low level or lower; and wherein when the product level is at the low level or lower, the level indicator is aligned with a portion of the low level marking, characterized in that the level indicator is an opening through the housing, wherein the housing includes a product container holder compartment and a door that selectively opens and closes the product container holder compartment, and further wherein the opening is a window in the door.
Plate heat exchanger comprising at least one pack of superimposed heat exchanger plates provided with alternating ridges and depressions which, together with the ridges and depressions present on another facing heat exchanger plate, define circuits for the heat exchange fluids, and holes suited to convey two fluids in the spaces between the plates following at least two hydraulically isolated circuits, and wherein each heat exchanger plate is substantially rectangular in shape, wherein it comprises two cover plates (21, 22) mounted on the first of said heat exchanger plates, and wherein the surface area of each of said cover plates (21, 22) is smaller than half the surface area of said first heat exchanger plate and wherein each of said cover plates (21, 22) also comprises: - a pair of holes (23, 231) shaped and positioned so that they correspond to said holes in the heat exchanger plates; - at least one metal ring (3, 3'), positioned at the level of one of said holes and at the level of a lowered area of said first heat exchanger plate where one of the through-holes for the fluid is made, and characterised in that said metal ring (3, 3') is joined to the cover plate (21, 22) in order to guarantee a hermetic seal between said cover plates (21 22) and said first exchanger plate. - a pair of holes (23, 231) shaped and positioned so that they correspond to said holes in the heat exchanger plates; - at least one metal ring (3, 3'), positioned at the level of one of said holes and at the level of a lowered area of said first heat exchanger plate where one of the through-holes for the fluid is made, and characterised in that
A method for formation of expanded austenite and/or expanded martensite by solution hardening of a cold deformed workpiece of a passive alloy based on iron, nickel and/or cobalt and comprising at least 10% chromium, which cold deformed workpiece has been subjected to external forces at a temperature below the recrystallisation temperature of the passive alloy in a process selected from forging, extrusion, shaping, drawing, pressing, rolling or machining, or a combination thereof, the method comprising: - a first step of dissolving at least nitrogen using N 2 gas in the workpiece at a temperature T1, which is above 1020°C and lower than the melting point of the passive alloy, wherein dissolution of nitrogen at temperature T1 is performed to obtain a diffusion depth in the range of 50 μm to 5 mm, - an intermediate step of cooling the workpiece after the dissolution step at temperature T1 to a temperature which is lower than the temperature at which carbides and/or nitrides form in the passive alloy, wherein the cooling from the temperature 900°C to 700°C is performed in less than 60 seconds and - a subsequent second step of dissolving nitrogen and/or carbon in the workpiece at a temperature T2 of at least 300°C, which temperature T2 is lower than the temperature at which carbides and/or nitrides form in the passive alloy. - a first step of dissolving at least nitrogen using N 2 gas in the workpiece at a temperature T1, which is above 1020°C and lower than the melting point of the passive alloy, wherein dissolution of nitrogen at temperature T1 is performed to obtain a diffusion depth in the range of 50 μm to 5 mm, - an intermediate step of cooling the workpiece after the dissolution step at temperature T1 to a temperature which is lower than the temperature at which carbides and/or nitrides form in the passive alloy, wherein the cooling from the temperature 900°C to 700°C is performed in less than 60 seconds and - a subsequent second step of dissolving nitrogen and/or carbon in the workpiece at a temperature T2 of at least 300°C, which temperature T2 is lower than the temperature at which carbides and/or nitrides form in the passive alloy.
Gripping device comprising a cylindrical thorn, an inner body and an outer body with a plurality of movable arms, each arm comprising a claw, wherein the thorn and the inner body are directly coupled to one another, with the thorn extending through the outer body, wherein a front section of the thorn is tapered inwardly from the top of the front section and wherein the inner body extends somewhat into the outer body; characterized in that an arm spring is placed around said plurality of arms in order to pull the arms towards the thorn and in that the inner and outer bodies have internal cavities in which a spring is provided, the spring being arranged around a rear section of the thorn and positioned in between the inner body and the outer body, whereby the spring is adapted to force the plurality of arms to a first gripping position and the gripping device is adapted to be set in a plurality of other gripping positions by moving the inner body and the outer body relative to each other along a central symmetry axis.
Method for operating a navigation system (20, 20') for a motor vehicle with autopilot, wherein the autopilot is designed to automatically carry out longitudinal and lateral guidance of the motor vehicle in the activated state during a piloted journey without assistance from a driver and wherein, in the method, the navigation system (20, 20') determines, for a prescribed destination, a route to the destination on the basis of navigation data, wherein the navigation system (20, 20'), using traffic data and on the basis of a predetermined activation condition for the autopilot, determines the roads (12, 14, 16) described by the navigation data, on which the activation of the autopilot is likely to be possible, characterised in that the navigation system (20, 20') assigns a traffic jam on the determined route described by the traffic data to one of a plurality of different traffic jam types and, with regard to the traffic jam, gives the driver a recommendation for a secondary activity during a piloted journey in the traffic jam according to the traffic jam type, and in dynamic rerouting during the journey of the motor vehicle picks out from a plurality of possible alternative routes (30, 38) the one, by means of which the driver, by means of piloted driving, will gain the most freely disposable time during the journey and/or during a predetermined period of time.
A transformer comprising: a magnetic core having an inner space; a coil unit disposed within the magnetic core and including a primary coil and a secondary coil in which layers formed with conductive patterns are laminated; and a base configured to receive the magnetic core and the coil unit, wherein a portion of the base is inserted into and disposed in the coil unit to be interposed between an output terminal coupled to the secondary coil and the magnetic core, wherein the coil unit includes: a first part including the output terminal; a second part including a pattern part formed with the conductive patterns (22', 23', 24') and an input terminal coupled to the primary coil; and a slit configured to separate the first part and second part and be curved to a direction of the first part, and to receive the portion of the base. a magnetic core having an inner space; a coil unit disposed within the magnetic core and including a primary coil and a secondary coil in which layers formed with conductive patterns are laminated; and a base configured to receive the magnetic core and the coil unit, wherein a portion of the base is inserted into and disposed in the coil unit to be interposed between an output terminal coupled to the secondary coil and the magnetic core, wherein the coil unit includes: a first part including the output terminal; a second part including a pattern part formed with the conductive patterns (22', 23', 24') and an input terminal coupled to the primary coil; and a slit configured to separate the first part and second part and be curved to a direction of the first part, and to receive the portion of the base. a first part including the output terminal; a second part including a pattern part formed with the conductive patterns (22', 23', 24') and an input terminal coupled to the primary coil; and a slit configured to separate the first part and second part and be curved to a direction of the first part, and to receive the portion of the base.
Electronic actuator drive which activates a valve in a turbocharger for a motor vehicle and which has a self-locking spindle which is rotatably mounted and which is in engagement with a spindle nut which is displaceably arranged in the longitudinal axis of the one spindle, characterized in that an electric motor is arranged in the electronic actuator drive, and the electric motor and the self-locking spindle have the same longitudinal axis, in that the self-locking spindle is the only self-locking spindle at whose one end which faces the electric motor the signal generator is arranged.
A process for thermal treatment of granular solids, in particular for production of aluminum oxide from aluminum hydroxide, in which the solids are heated in at least one preheating stage and then are reacted in a reactor at 700 to 1400 °C, characterized in that, the average temperature gradient of the solids amounts to <15 K/s and the dwell time of the solids amounts to ≥15 s in at least one preheating stage.
An aperiodic Zero Power Channel State Information Reference Signal ZP CSI-RS resource set determination method, performed by a User Equipment, UE, and comprising receiving a Physical Downlink Control Channel PDCCH, wherein the PDCCH schedules K time slots for transmitting a Physical Downlink Shared Channel PDSCH; the method being characterized by: extracting an indication information of the aperiodic ZP CSI-RS resource set from the PDCCH, wherein the indication information has a preset number of bits; extracting ⌈ log 2 J ⌉ bits from the indication information to obtain an extraction result, and determining a selected aperiodic ZP CSI-RS resource set according to the extraction result, where J is a number of available aperiodic ZP CSI-RS resource sets; and determining, according to a comparison result between the number of bits of the indication information and ⌈ log 2 J ⌉, a position of a ZP CSI-RS resource indicated by the selected aperiodic ZP CSI-RS resource set in the K time slots; wherein K is a positive integer and J is a positive integer. receiving a Physical Downlink Control Channel PDCCH, wherein the PDCCH schedules K time slots for transmitting a Physical Downlink Shared Channel PDSCH; the method being characterized by: extracting an indication information of the aperiodic ZP CSI-RS resource set from the PDCCH, wherein the indication information has a preset number of bits; extracting ⌈ log 2 J ⌉ bits from the indication information to obtain an extraction result, and determining a selected aperiodic ZP CSI-RS resource set according to the extraction result, where J is a number of available aperiodic ZP CSI-RS resource sets; and determining, according to a comparison result between the number of bits of the indication information and ⌈ log 2 J ⌉, a position of a ZP CSI-RS resource indicated by the selected aperiodic ZP CSI-RS resource set in the K time slots; wherein K is a positive integer and J is a positive integer. extracting an indication information of the aperiodic ZP CSI-RS resource set from the PDCCH, wherein the indication information has a preset number of bits; extracting ⌈ log 2 J ⌉ bits from the indication information to obtain an extraction result, and determining a selected aperiodic ZP CSI-RS resource set according to the extraction result, where J is a number of available aperiodic ZP CSI-RS resource sets; and determining, according to a comparison result between the number of bits of the indication information and ⌈ log 2 J ⌉, a position of a ZP CSI-RS resource indicated by the selected aperiodic ZP CSI-RS resource set in the K time slots; wherein K is a positive integer and J is a positive integer.