mhurhangee/patent-ind-claim-en huggingface dataset:
A fastening arrangement for retaining at least a first mechanical part and a second mechanical part to each other, the fastening arrangement comprising a first elongated leg member , a second elongated leg member and a curved member extending between the first and second elongated leg members, wherein the first elongated leg member, the second elongated leg member and the curved member form an inner space arranged to accommodate at least a part of the first and second mechanical parts, the curved member comprises an inner surface arranged to face a surface of the first mechanical part, the inner surface being formed by an inner portion , a first outer portion and a second outer portion , wherein the first outer portion is arranged between the inner portion and the first elongated leg member , and the second outer portion is arranged between the inner portion and the second elongated leg member , wherein each of the first and second elongated leg members comprises a portion arranged to receive a respective tightening element for retaining the first and second mechanical parts to each other, characterized in that the first and second outer end portions of the inner surface of the curved member comprises a concave surface portion as seen in a cross-section transverse to the extension of the curved member, and wherein the inner portion of the inner surface of the curved member comprises a flat surface portion as seen in the cross-section transverse to the extension of the curved member.
A test device that tests a solar cell string in which a plurality of solar cell modules in which a bypass diode is connected in parallel to one or more solar cells are connected in series when the solar cell string does not generate electric power, the test device possessing: an application part configured to apply a disconnection position identification signal which is an electrical signal including an AC component to between a positive electrode and a negative electrode of the solar cell string; and characterised by a disconnection position identifying part configured to identify a position of a solar cell module among the plurality of solar cell modules of the solar cell string having a bypass diode with a disconnection fault on the basis of an AC component of a voltage generated between a frame ground and the positive electrode of the solar cell string and/or an AC component of a voltage generated between the frame ground and the negative electrode by application of the disconnection position identification signal . an application part configured to apply a disconnection position identification signal which is an electrical signal including an AC component to between a positive electrode and a negative electrode of the solar cell string; and characterised by a disconnection position identifying part configured to identify a position of a solar cell module among the plurality of solar cell modules of the solar cell string having a bypass diode with a disconnection fault on the basis of an AC component of a voltage generated between a frame ground and the positive electrode of the solar cell string and/or an AC component of a voltage generated between the frame ground and the negative electrode by application of the disconnection position identification signal .
A processing method for carrying out a piercing processing on a metallic material W by laser beams with wavelengths in 1 μ m band, a piercing processing method comprising: oscillating the laser beams with the wavelengths in 1 μ m band; converting the oscillated laser beams into a beam mode of a desired multi-mode; and carrying out the piercing processing on the metallic material, using the laser beams with the beam mode converted, characterized in that the oscillated laser beams are converted into the beam mode of the desired multi-mode such that a relationship between a condensed beam diameter d and a Rayleigh length Zr of the laser beams to be irradiated onto the metallic material is maintained to be in a range of 8 ≦Zr/d≦ 12. oscillating the laser beams with the wavelengths in 1 μ m band; converting the oscillated laser beams into a beam mode of a desired multi-mode; and carrying out the piercing processing on the metallic material, using the laser beams with the beam mode converted, characterized in that the oscillated laser beams are converted into the beam mode of the desired multi-mode such that a relationship between a condensed beam diameter d and a Rayleigh length Zr of the laser beams to be irradiated onto the metallic material is maintained to be in a range of 8 ≦Zr/d≦ 12.
A touch display device comprising: a display panel having disposed therein: a plurality of X-touch electrode lines (X-TEL), which extend in a first direction and which are configured to receive a touch driving signal transmitted from a plurality of X-touch lines (X-TL); and a plurality of Y-touch electrode lines (Y-TEL), which extend in a second direction and are configured to transmit a touch sensing signal through a plurality of Y-touch lines (Y-TL); and a touch driving circuit configured to supply the touch driving signal to the plurality of X-touch electrode lines, and configured to receive the touch sensing signal from the Y-touch electrode lines so as to sense a touch, wherein a plurality of overlapping areas in which at least some of the plurality of X-touch lines overlap at least some of the plurality of Y-touch lines are different from each other, and wherein a first overlapping area of the plurality of overlapping areas is associated with an X-touch line and a Y-touch line, the X-touch line being connected to an X-touch electrode line located in a non-square area among the plurality of X-touch electrode lines, the Y-touch line being connected to a Y-touch electrode line located in the non-square area among the plurality of Y-touch electrode lines, the first overlapping area being larger than other overlapping areas associated with other X-touch lines and other Y-touch lines. a display panel having disposed therein: a plurality of X-touch electrode lines (X-TEL), which extend in a first direction and which are configured to receive a touch driving signal transmitted from a plurality of X-touch lines (X-TL); and a plurality of Y-touch electrode lines (Y-TEL), which extend in a second direction and are configured to transmit a touch sensing signal through a plurality of Y-touch lines (Y-TL); and a plurality of X-touch electrode lines (X-TEL), which extend in a first direction and which are configured to receive a touch driving signal transmitted from a plurality of X-touch lines (X-TL); and a plurality of Y-touch electrode lines (Y-TEL), which extend in a second direction and are configured to transmit a touch sensing signal through a plurality of Y-touch lines (Y-TL); and a touch driving circuit configured to supply the touch driving signal to the plurality of X-touch electrode lines, and configured to receive the touch sensing signal from the Y-touch electrode lines so as to sense a touch, wherein a plurality of overlapping areas in which at least some of the plurality of X-touch lines overlap at least some of the plurality of Y-touch lines are different from each other, and wherein a first overlapping area of the plurality of overlapping areas is associated with an X-touch line and a Y-touch line, the X-touch line being connected to an X-touch electrode line located in a non-square area among the plurality of X-touch electrode lines, the Y-touch line being connected to a Y-touch electrode line located in the non-square area among the plurality of Y-touch electrode lines, the first overlapping area being larger than other overlapping areas associated with other X-touch lines and other Y-touch lines.
An apparatus configured to reorder data received from a data stream into a contiguous ordering, the data being arranged according to a first ordering, the apparatus comprising: a plurality of input buffers (160, 220- 223, 530-533, 810-813) comprising a first input buffer and a second input buffer , each of the input buffers being configured to output data stored by the respective input buffer in a first-in first-out order; a reorder unit configured to: store a first portion of the received data in the first input buffer , the first portion comprising a first plurality of data units, store a second portion of the received data in the second input buffer , the second portion comprising a second plurality of data units, and reorder the data into a second order by producing a first data unit output by the first input buffer and a second data unit output by the second input buffer ; and an addressable memory , wherein the reorder unit is further configured to store the first portion and the second portion produced by the first input buffer and the second input buffer as a word stored in the addressable memory. a plurality of input buffers (160, 220- 223, 530-533, 810-813) comprising a first input buffer and a second input buffer , each of the input buffers being configured to output data stored by the respective input buffer in a first-in first-out order; a reorder unit configured to: store a first portion of the received data in the first input buffer , the first portion comprising a first plurality of data units, store a second portion of the received data in the second input buffer , the second portion comprising a second plurality of data units, and reorder the data into a second order by producing a first data unit output by the first input buffer and a second data unit output by the second input buffer ; and an addressable memory , wherein the reorder unit is further configured to store the first portion and the second portion produced by the first input buffer and the second input buffer as a word stored in the addressable memory. store a first portion of the received data in the first input buffer , the first portion comprising a first plurality of data units, store a second portion of the received data in the second input buffer , the second portion comprising a second plurality of data units, and reorder the data into a second order by producing a first data unit output by the first input buffer and a second data unit output by the second input buffer ; and an addressable memory , wherein the reorder unit is further configured to store the first portion and the second portion produced by the first input buffer and the second input buffer as a word stored in the addressable memory.
A retaining system for holding and routing electrical cables of an industrial vehicle , the electrical cables being configured to electrically supply an electrical equipment , the retaining system comprising: - a C-shaped flexible retaining member , configured for receiving the electric cables , the retaining member comprising: -- a first fixing bracket configured to be fixed to the electrical equipment , -- a second fixing bracket configured to be fixed to a frame of the industrial vehicle , the retaining system further comprising : - a first linking rod , - a second linking rod , wherein the first linking rod is pivotally mounted relatively to the first fixing bracket , and wherein the second linking rod is pivotally mounted relatively to the second fixing bracket , so as to guide the retaining member when the electrical equipment moves relatively to the frame . the retaining system comprising: - a C-shaped flexible retaining member , configured for receiving the electric cables , the retaining member comprising: -- a first fixing bracket configured to be fixed to the electrical equipment , -- a second fixing bracket configured to be fixed to a frame of the industrial vehicle , - a C-shaped flexible retaining member , configured for receiving the electric cables , the retaining member comprising: -- a first fixing bracket configured to be fixed to the electrical equipment , -- a second fixing bracket configured to be fixed to a frame of the industrial vehicle , -- a first fixing bracket configured to be fixed to the electrical equipment , -- a second fixing bracket configured to be fixed to a frame of the industrial vehicle , the retaining system further comprising : - a first linking rod , - a second linking rod , - a first linking rod , - a second linking rod , wherein the first linking rod is pivotally mounted relatively to the first fixing bracket , and wherein the second linking rod is pivotally mounted relatively to the second fixing bracket , so as to guide the retaining member when the electrical equipment moves relatively to the frame .
Use of a composition in reducing oxalate levels in foodstuff or beverages wherein the composition comprises at least one oxalatedegrading enzyme that has 9 or less arginine and lysine amino acids within the entire hexamer interface and wherein the at least one oxalate degrading enzyme is recombinantly expressed and has an amino acid sequence of any one of SEQ ID NO: 2-40.
Apparatus for prestressing reinforcement strands in the prefabrication of prestressed concrete products on a casting bed, wherein the apparatus comprises at least one device for moving a strand pulling beam in relation to the casting bed, which is detachably connected to the strand pulling beam, and the apparatus comprises at least one device for detaching the strand pulling beam from the apparatus , and at least one device for operating locking means of the strand pulling beam for locking and releasing the position of the strand pulling beam in relation to the casting bed, wherein the device for operating the locking means comprises means (10, 11, 16; 10', 11', 16) for gripping and moving a wedge locking the strand pulling beam in relation to the casting bed, and wherein the apparatus is mounted movably on rails for moving the apparatus between adjacent casting beds, characterized in that said means (10, 11, 16; 10', 11', 16) for gripping and moving the wedge allow detachable attachment of the wedge to the device for operating the locking means and vertical moving of the wedge for raising it from the locking position to released position, and vice versa.
A method of operating a data communication network having Network Function Virtualization Infrastructure, NFVI, servers, the method comprising the NFVI servers and a Management and Orchestration, MANO, system exchanging networking data, and in response, the NFVI servers executing Virtual Network Functions, VNFs, to exchange user data, and a Hardware Trust, HT, server and a hardware-trusted set of the NFVI servers exchanging trust data, and in response, the HT server maintaining hardware trust in the hardware-trusted set of the NFVI servers, the method characterized by : the HT server and the MANO system exchanging NFVI/VNF execution data, and in response, the HT server associating a hardware-trusted set of the VNFs with the hardware-trusted set of the NFVI servers; a control set of the VNFs receiving a communication request for a hardware-trusted data communication and responsively selecting a network bearer that is supported by a data set of the VNFs and indicating the data set of the VNFs to the HT server; the HT server determining if the data set of the VNFs is in the hardware-trusted set of the VNFs, and if the data set of the VNFs is in the hardware-trusted set of the VNFs, then indicating to the control set of the VNFs that the hardware-trusted data communication may proceed; and the control set of the VNFs directing the data set of the VNFs to proceed with the hardware-trusted data communication responsive to the indication from the HT server, and the data set of the VNFs transferring the hardware-trusted data communication over the selected network bearer. the HT server and the MANO system exchanging NFVI/VNF execution data, and in response, the HT server associating a hardware-trusted set of the VNFs with the hardware-trusted set of the NFVI servers; a control set of the VNFs receiving a communication request for a hardware-trusted data communication and responsively selecting a network bearer that is supported by a data set of the VNFs and indicating the data set of the VNFs to the HT server; the HT server determining if the data set of the VNFs is in the hardware-trusted set of the VNFs, and if the data set of the VNFs is in the hardware-trusted set of the VNFs, then indicating to the control set of the VNFs that the hardware-trusted data communication may proceed; and the control set of the VNFs directing the data set of the VNFs to proceed with the hardware-trusted data communication responsive to the indication from the HT server, and the data set of the VNFs transferring the hardware-trusted data communication over the selected network bearer.
A method for removing a sulfurizing agent dissolved in a barren liquor obtained by obtaining a leachate containing nickel and cobalt and a leaching residue by subjecting a nickel oxide ore to acid leaching using sulfuric acid at high temperature and high pressure, subjecting the leachate to a sulfurization treatment using a sulfurizing agent to generate a sulfide of nickel and cobalt and a barren liquor, and then separating the barren liquor from the sulfide by solid-liquid separation, wherein a post-washing leaching residue obtained by washing the leaching residue and a sulfuric acid solution are added to the barren liquor so that a trivalent iron ion has a molar ratio of 0.05 or more with respect to a sulfurizing agent dissolved in the barren liquor and the sulfurizing agent contained in the barren liquor is immobilized and recovered as sulfur.
Method for adapting an installation with an initially single-pot configuration comprising a first pot (p1, p1') for coating a longitudinally running product, said first pot being disposed in a first enclosure (e1, e1'), and characterized by : - a first step of creating a second enclosure (e2, e2') laterally offset from the first enclosure along a first axis (X, Y), said first step taking place while the product is running continuously (pr_ON) in the first pot, - once the first step has been completed, the first and second enclosures are separated by a vertical wall, - a second step of assembling a second coating pot (p2, p2') in the second enclosure, said second step taking place while the product is still running continuously, - a third step of creating a third enclosure (e3, e3') that surrounds at least the first enclosure along a second axis (X, Y) and is intended to be joined laterally to the second enclosure, with the vertical wall being removed. - a first step of creating a second enclosure (e2, e2') laterally offset from the first enclosure along a first axis (X, Y), said first step taking place while the product is running continuously (pr_ON) in the first pot, - once the first step has been completed, the first and second enclosures are separated by a vertical wall, - a second step of assembling a second coating pot (p2, p2') in the second enclosure, said second step taking place while the product is still running continuously, - a third step of creating a third enclosure (e3, e3') that surrounds at least the first enclosure along a second axis (X, Y) and is intended to be joined laterally to the second enclosure, with the vertical wall being removed.
A printing system comprising: a print head in association with a platen roller for printing; a media configured to follow a media supply path which passes between said platen roller and said print head; a ribbon , comprising a substrate layer and a thermal transfer layer comprising ink, configured to follow a ribbon path which passes between said print head and said platen roller; and characterized by comprising a ribbon sensor , positioned so as to face a surface of the ribbon and configured to detect, before starting printing, a property of a ribbon to be utilized by the printing system for ascertaining an orientation of the ribbon, wherein the property of the ribbon utilized by the printing system is configured to differentiate the substrate layer of the ribbon with the thermal transfer layer of the ribbon. a print head in association with a platen roller for printing; a media configured to follow a media supply path which passes between said platen roller and said print head; a ribbon , comprising a substrate layer and a thermal transfer layer comprising ink, configured to follow a ribbon path which passes between said print head and said platen roller; and characterized by comprising a ribbon sensor , positioned so as to face a surface of the ribbon and configured to detect, before starting printing, a property of a ribbon to be utilized by the printing system for ascertaining an orientation of the ribbon, wherein the property of the ribbon utilized by the printing system is configured to differentiate the substrate layer of the ribbon with the thermal transfer layer of the ribbon.
Injection moulding machine, which has the injection moulding die elements of injection moulding screw, hot runner and mould and wherein at least one injection moulding die element has a channel for accommodating molten plastic and a receiver is provided which is formed and arranged in such a way that a wave transmitted through a plastic accommodated in the channel or a wave reflected by a plastic accommodated in the channel or a wave emitted by a plastic accommodated in the channel can be detected by the receiver, wherein the receiver is set up to measure the radiation intensity of the transmitted, reflected or emitted wave, characterized in that an evaluation unit is provided which is suitable for assessing the radiation intensity measured by the receiver on the basis of at least one reference measurement on a plastic with a predefined decomposition product content.
A heater system comprising a heater assembly including a heating surface for heating a heating target , the heating surface defining a plurality of heating zones (Zi), an imaging device that is configured to acquire an image of the heating surface of the heater assembly , and a control system that is configured to determine variations in the plurality of heating zones (Zi) based on the image of the heating surface of the heater assembly , characterized in that the heater assembly further comprises a plurality of heating elements that are disposed in the plurality of heating zones (Zi) and that are independently controllable, in that the image of the heating surface includes a plurality of pixels corresponding to the plurality of heating zones (Zi), in that the variations relate to manufacturing deviations in the heater assembly and/or disturbances in an environment of the heater assembly , and in that the control system is configured to control the heater assembly to compensate for the variations in the plurality of heating zones to provide a desired temperature profile on the heating surface of the heater assembly .