mhurhangee/patent-ind-claim-en huggingface dataset:
A display for an electronic measurement device , wherein the display is configured to display a linear straight scale comprising a value range from a lower limit value to an upper limit value , characterised in that the display is further configured to display a non-linear curved scale comprising the same value range as the linear straight scale , wherein the linear straight scale and the non-linear curved scale delimit a numeric value input area , wherein the display is configured to receive a user input on the numeric value input area , and wherein the display is configured to determine a setting of a numeric value of the electronic measurement device based on the user input on the numeric value input area , wherein a rate of change of the numerical value when moving an input pointer from a first to a second position on the numerical value input area depends on a position of the user input on the numeric value input area , based on the distance of the position of the user input to the linear straight scale and the non-linear curved scale . wherein the display is configured to display a linear straight scale comprising a value range from a lower limit value to an upper limit value , characterised in that the display is further configured to display a non-linear curved scale comprising the same value range as the linear straight scale , wherein the linear straight scale and the non-linear curved scale delimit a numeric value input area , wherein the display is configured to receive a user input on the numeric value input area , and wherein the display is configured to determine a setting of a numeric value of the electronic measurement device based on the user input on the numeric value input area , wherein a rate of change of the numerical value when moving an input pointer from a first to a second position on the numerical value input area depends on a position of the user input on the numeric value input area , based on the distance of the position of the user input to the linear straight scale and the non-linear curved scale .
A mechanical component being one of a turboengine blading member, an airfoil, and a leading edge member of an airfoil and exhibiting at least a part of an airfoil profile, comprising a pressure side contour , a suction side contour , and a stagnation point provided therebetween, the component further comprising an internal hollow space and a wall, the wall limiting the hollow space, wherein the component has an outer surface being constituted by a surface of the wall, wherein on the outer surface , the outer contour of the component exhibits the stagnation point upstream, and in a downstream direction, the outer surface extends from the stagnation point with the pressure side contour and the suction side contour , the mechanical component further comprising: a first channel extending inside the wall along a first, spanwise direction (r) of the component and along at least a part of the extent of the wall in the first direction, a second channel extending inside the wall and provided in fluid communication with the internal hollow space and the first channel , and intended to serve as a feed channel, wherein a cross-sectional dimension of the first channel is larger than a cross-sectional dimension of the feed channel, and the feed channel is arranged to tangentially join into the first channel , whereby the first channel is configured as a cyclone channel, a third channel extending inside the wall and in fluid communication with the first channel , characterized in that the first channel extends underneath the outer surface in the stagnation point area in the first direction, and the third channel extends inside the wall and at least essentially parallel to the pressure side surface of the wall along at least a part of the extent of the wall in a second direction being different from the first direction, and is intended to serve as a near wall cooling channel. a first channel extending inside the wall along a first, spanwise direction (r) of the component and along at least a part of the extent of the wall in the first direction, a second channel extending inside the wall and provided in fluid communication with the internal hollow space and the first channel , and intended to serve as a feed channel, wherein a cross-sectional dimension of the first channel is larger than a cross-sectional dimension of the feed channel, and the feed channel is arranged to tangentially join into the first channel , whereby the first channel is configured as a cyclone channel, a third channel extending inside the wall and in fluid communication with the first channel , characterized in that the first channel extends underneath the outer surface in the stagnation point area in the first direction, and the third channel extends inside the wall and at least essentially parallel to the pressure side surface of the wall along at least a part of the extent of the wall in a second direction being different from the first direction, and is intended to serve as a near wall cooling channel.
Electrodialysis module comprising: - at least a first chamber and a second chamber , wherein each chamber comprises a pair of planar electrodes comprising a planar cathode and a planar anode , parallel to one another and separated by a membrane pack , and wherein each chamber has a mean plane parallel to the planes of said planar electrodes , - an inlet , a first outlet , a second outlet , wherein said inlet is in fluid communication with each of said chambers , and said first outlet and said second outlet are each in fluid communication with each of said chambers ; and wherein said inlet is configured to introduce raw liquid into said chambers , said first outlet is configured to remove diluted liquid from said chambers , and said second outlet is configured to remove concentrated liquid from said chambers , and - at least three planar ultrasonic transducers ; wherein said electrodialysis module comprises successively, in a direction from the inlet towards the first and second outlets , a first transducer , said first chamber , a second transducer , said second chamber and the third transducer ; said transducers and the mean planes of said chambers being disposed parallel to one another. - at least a first chamber and a second chamber , wherein each chamber comprises a pair of planar electrodes comprising a planar cathode and a planar anode , parallel to one another and separated by a membrane pack , and wherein each chamber has a mean plane parallel to the planes of said planar electrodes , - an inlet , a first outlet , a second outlet , wherein said inlet is in fluid communication with each of said chambers , and said first outlet and said second outlet are each in fluid communication with each of said chambers ; and wherein said inlet is configured to introduce raw liquid into said chambers , said first outlet is configured to remove diluted liquid from said chambers , and said second outlet is configured to remove concentrated liquid from said chambers , and - at least three planar ultrasonic transducers ; wherein said electrodialysis module comprises successively, in a direction from the inlet towards the first and second outlets , a first transducer , said first chamber , a second transducer , said second chamber and the third transducer ; said transducers and the mean planes of said chambers being disposed parallel to one another.
A method of wireless communication performed by a user equipment, UE, the method comprising: determining a first set of positioning capability parameters for a radio resource control, RRC, connected state; determining a second set of positioning capability parameters for an RRC unconnected state, wherein the RRC unconnected state comprises an RRC inactive state or an RRC idle state, wherein the first set of positioning capability parameters and the second set of positioning capability parameters differ in at least one of: a measurement gap repetition period, MGRP; a measurement gap length, MGL; a ratio of MGL to MGRP; a number of PRS resources per symbol that the UE can process; a number of PRS symbols per time window that the UE can process; a retuning gap; a channel collision rule that defines a priority of a PRS resource relative to a non-PRS resource; or a processing budget rule; transmitting , to a network entity, a positioning capability report that comprises the first set of positioning capability parameters; and performing positioning reference signal, PRS, processing at least according to one or more positioning capability parameters from the set of positioning capability parameters for the RRC state of the UE, the RRC state of the UE comprising the RRC connected state or the RRC unconnected state. a measurement gap repetition period, MGRP; a measurement gap length, MGL; a ratio of MGL to MGRP; a number of PRS resources per symbol that the UE can process; a number of PRS symbols per time window that the UE can process; a retuning gap; a channel collision rule that defines a priority of a PRS resource relative to a non-PRS resource; or a processing budget rule; transmitting , to a network entity, a positioning capability report that comprises the first set of positioning capability parameters; and performing positioning reference signal, PRS, processing at least according to one or more positioning capability parameters from the set of positioning capability parameters for the RRC state of the UE, the RRC state of the UE comprising the RRC connected state or the RRC unconnected state.
A method in a system including a processor and a memory , the method comprising: receiving data for storage at an address in the memory; and after encoding the data with an error correction code to generate intermediate data having a first number of bits, reversibly altering the intermediate data with a watermark to generate watermarked data for storage in the memory, wherein the watermark is generated by applying a cryptographic function to a user key and the address, and wherein the watermarked data has a second number of bits equal to the first number of bits. receiving data for storage at an address in the memory; and after encoding the data with an error correction code to generate intermediate data having a first number of bits, reversibly altering the intermediate data with a watermark to generate watermarked data for storage in the memory, wherein the watermark is generated by applying a cryptographic function to a user key and the address, and wherein the watermarked data has a second number of bits equal to the first number of bits.
A transmission with housing, wherein a pan for carrying oil and reducing churning losses surrounds a peripheral portion of a toothed part, in particular gear wheel , in particular in the radial and in the axial direction, wherein the pan is composed at least of three parts, i.e. at least of a bottom plate and two side walls, wherein the bottom plate is screw-connected to the two side walls, wherein the pan is fastened to the housing, wherein the pan has a cutout, in particular a channel, in particular on its deepest surface region, in particular therefore on the surface region having the greatest radial distance, wherein upon rotary movement of the gear wheel oil is delivered out of the oil sump of the transmission through the cutout between the pan and gear wheel , in particular to a higher position than the level of the oil sump, wherein the bottom plate and the side walls are stamped and bent parts, wherein the bottom plate has tab portions extending in the radial direction, to which the side walls are screw-connected by means of screw connection, wherein a side wall has a marking on which a drill hole for passing a screw of the screw connection through can be formed, wherein the housing has an upper housing part and a lower housing part , wherein the upper housing part has a frame-like supporting portion on which wall portions are formed, wherein the frame-like supporting portion is formed in one piece, i.e. in one part, with the wall portions as a cast steel part.
Fitting for furniture or similar furnishings having a body , in particular for kitchen cabinets, comprising a translationally movable and/or pivotally movable pull-out rack which can be supported on a body and has at least one receptacle for supporting at least one item and has a damping device , wherein the movement of the pull-out rack can be braked by the damping device before reaching an end position in the body , and comprising a device for determining a loading state value of the pull-out rack , wherein the braking behaviour of the damping device can be automatically adjusted according to the loading state value of the pull-out rack , wherein the fitting has a control device for actuating the damping device , and the control device and the device for determining a loading state value communicate via a radio link, via an infrared link, via ultrasound and/or via electrical cables.
A method for densifying plastic, the method comprising: loading plastic to be densified into a compression chamber on top of a lift or densified plastic on the lift, wherein the compression chamber defines an interior volume with an aluminum interior surface; compressing the plastic by lifting the plastic using the lift; and applying heat to the plastic to achieve a temperature in a range of 100C to 180C, wherein the compression and the heat bake the plastic into a brick of the densified plastic. loading plastic to be densified into a compression chamber on top of a lift or densified plastic on the lift, wherein the compression chamber defines an interior volume with an aluminum interior surface; compressing the plastic by lifting the plastic using the lift; and applying heat to the plastic to achieve a temperature in a range of 100C to 180C, wherein the compression and the heat bake the plastic into a brick of the densified plastic.
A leading-edge slat of a wing element of an aircraft, said aircraft defining a mark comprising a main fuselage axis x and a span wise axis y, with the wing element procuring a lift along an axis z, comprising a skin forming the leading edge slat, a spar linked to said skin and a stiffening structure linked on the leading edge side to said spar and to the skin, the stiffening structure being formed from a formed sheet metal comprising a plurality of bosses distributed according to the length of the leading edge, said bosses extending between the spar and the inner face of the skin, characterized in that the bosses form domes that comprise a zone in contact with the skin and tangent to the latter, the hollows between the bosses being in contact with the spar and tangent to the latter.
Method of production of an annealed cold-rolled non grain-oriented Fe-Si steel sheet consisting of the successive following steps: - melting a steel composition that contains in weight percentage: C ≤ 0.006 2.0 ≤ Si ≤ 5.0 0.1 ≤ Al ≤ 3.0 0.1 ≤ Mn ≤ 3.0 N ≤ 0.006 0.04 ≤ Sn ≤ 0.2 S ≤ 0.005 P ≤ 0.2 Ti ≤ 0.01 the balance being Fe and inevitable impurities - casting said melt into a slab - reheating said slab at a temperature between 1050°C and 1250°C - hot rolling said slab with a hot rolling finishing temperature between 750°C and 950°C to obtain a hot rolled steel band, the thickness of the hot rolled steel band varying from 1.5 mm to 3 mm, - coiling said hot rolled steel band at a temperature between 500°C and 750°C, - said hot rolled steel band being annealed at a temperature between 650°C and 950°C for a time between 10s and 48 hours - cold rolling the hot rolled steel band to obtain a cold rolled steel sheet - heating the cold rolled steel sheet up to a soaking temperature between 850°C and 1150°C - holding the cold rolled steel at the soaking temperature for a time between 20s and 100s - cooling the cold rolled steel down to room. - melting a steel composition that contains in weight percentage: C ≤ 0.006 2.0 ≤ Si ≤ 5.0 0.1 ≤ Al ≤ 3.0 0.1 ≤ Mn ≤ 3.0 N ≤ 0.006 0.04 ≤ Sn ≤ 0.2 S ≤ 0.005 P ≤ 0.2 Ti ≤ 0.01 the balance being Fe and inevitable impurities C ≤ 0.006 2.0 ≤ Si ≤ 5.0 0.1 ≤ Al ≤ 3.0 0.1 ≤ Mn ≤ 3.0 N ≤ 0.006 0.04 ≤ Sn ≤ 0.2 S ≤ 0.005 P ≤ 0.2 Ti ≤ 0.01 the balance being Fe and inevitable impurities - casting said melt into a slab - reheating said slab at a temperature between 1050°C and 1250°C - hot rolling said slab with a hot rolling finishing temperature between 750°C and 950°C to obtain a hot rolled steel band, the thickness of the hot rolled steel band varying from 1.5 mm to 3 mm, - coiling said hot rolled steel band at a temperature between 500°C and 750°C, - said hot rolled steel band being annealed at a temperature between 650°C and 950°C for a time between 10s and 48 hours - cold rolling the hot rolled steel band to obtain a cold rolled steel sheet - heating the cold rolled steel sheet up to a soaking temperature between 850°C and 1150°C - holding the cold rolled steel at the soaking temperature for a time between 20s and 100s - cooling the cold rolled steel down to room.
A solar module having a front surface and a back surface, comprising - a front encapsulation member forming the front surface of the solar module, - a plurality of solar cells electrically interconnecting each other, - a back encapsulation element forming the back surface of the solar module and having a polymeric plastic film, and - at least one plug-in device for connection to a complementary structure, wherein the plug-in device is at least partially laminated in the region of an overlap section in the back encapsulation element , wherein the back encapsulation element has an opening and the plug-in device is at least partially disposed in the opening, characterized in that the opening of the back encapsulation element has a basic area which is smaller than a basic area of the plug-in device and that the plug-in device surmounts the back surface plane of the solar module by at most 15mm, preferably at most 6mm, more preferably at most 4mm. - a front encapsulation member forming the front surface of the solar module, - a plurality of solar cells electrically interconnecting each other, - a back encapsulation element forming the back surface of the solar module and having a polymeric plastic film, and - at least one plug-in device for connection to a complementary structure, wherein the plug-in device is at least partially laminated in the region of an overlap section in the back encapsulation element , wherein the back encapsulation element has an opening and the plug-in device is at least partially disposed in the opening, characterized in that the opening of the back encapsulation element has a basic area which is smaller than a basic area of the plug-in device and that the plug-in device surmounts the back surface plane of the solar module by at most 15mm, preferably at most 6mm, more preferably at most 4mm.
A sheet former comprising: at least one vessel which stores slurry as a raw material; a wire cylinder immersed in the slurry inside the vessel and making sheets from solid components in the slurry while being rotated; and a sheet-forming amount regulator which regulates an amount of the solid components for making sheets by the wire cylinder in a width direction in accordance with a thickness of a sheet forming body in the approximately width direction formed for making sheets by the wire cylinder , characterized in that the sheet-forming amount regulator includes a sheet-shaped regulator covering at least part of the surface of the wire cylinder in a circumferential direction, the sheet-shaped regulator being divided into plural divided sheet pieces in a width direction of the wire cylinder , wherein the sheet-shaped regulator regulates the amount of solid components by covering the surface of the wire cylinder by each divided sheet piece by changing the surface area of the wire cylinder contacting the slurry. at least one vessel which stores slurry as a raw material; a wire cylinder immersed in the slurry inside the vessel and making sheets from solid components in the slurry while being rotated; and a sheet-forming amount regulator which regulates an amount of the solid components for making sheets by the wire cylinder in a width direction in accordance with a thickness of a sheet forming body in the approximately width direction formed for making sheets by the wire cylinder , characterized in that the sheet-forming amount regulator includes a sheet-shaped regulator covering at least part of the surface of the wire cylinder in a circumferential direction, the sheet-shaped regulator being divided into plural divided sheet pieces in a width direction of the wire cylinder , wherein the sheet-shaped regulator regulates the amount of solid components by covering the surface of the wire cylinder by each divided sheet piece by changing the surface area of the wire cylinder contacting the slurry.
A method of making a coated abrasive article, the method comprising: a) providing a web comprising a backing having a make layer precursor disposed thereon, wherein the web moves along a web path in a downweb direction , wherein the web has a crossweb direction that is perpendicular to the downweb direction , and wherein the make layer precursor comprises a first curable binder precursor; b) providing an applied magnetic field, wherein the applied magnetic field is provided by a rotating magnet having a rotational axis that is substantially parallel to the crossweb direction of at least a portion of the web path within the drop zone.; c) passing a mixture of magnetizable particles and non-magnetizable particles through at least a portion of the applied magnetic field and onto the make layer precursor such that the magnetizable particles and the non-magnetizable particles are predominantly deposited onto the web in a drop zone according to a predetermined order, wherein at least one of the magnetizable particles or the non-magnetizable particles comprises abrasive particles; and d) at least partially curing the make layer precursor to provide a make layer. a) providing a web comprising a backing having a make layer precursor disposed thereon, wherein the web moves along a web path in a downweb direction , wherein the web has a crossweb direction that is perpendicular to the downweb direction , and wherein the make layer precursor comprises a first curable binder precursor; b) providing an applied magnetic field, wherein the applied magnetic field is provided by a rotating magnet having a rotational axis that is substantially parallel to the crossweb direction of at least a portion of the web path within the drop zone.; c) passing a mixture of magnetizable particles and non-magnetizable particles through at least a portion of the applied magnetic field and onto the make layer precursor such that the magnetizable particles and the non-magnetizable particles are predominantly deposited onto the web in a drop zone according to a predetermined order, wherein at least one of the magnetizable particles or the non-magnetizable particles comprises abrasive particles; and d) at least partially curing the make layer precursor to provide a make layer.