mhurhangee/patent-ind-claim-en huggingface dataset:
A display device for displaying contents of data used by an electronic component mounting machine , in which the data includes necessity information which describes necessity of use of each of optional functions which are selectively used in the electronic component mounting machine , the device comprising: an extraction processing section which is configured to extract the necessity information regarding a plurality of optional functions from the data ; and a display section which is configured to visually display the necessity information regarding the plurality of optional functions extracted by the extraction processing section , wherein the extraction processing section is configured to extract the necessity information from two or more pieces of the data , and wherein the display section is configured to display the necessity information which is extracted from one piece of data by the extraction processing section , and the necessity information which is extracted from another piece of data by the extraction processing section , at the same time, wherein the data includes part data which instructs an operation condition for each type of electronic components to the electronic component mounting machines . an extraction processing section which is configured to extract the necessity information regarding a plurality of optional functions from the data ; and a display section which is configured to visually display the necessity information regarding the plurality of optional functions extracted by the extraction processing section , wherein the extraction processing section is configured to extract the necessity information from two or more pieces of the data , and wherein the display section is configured to display the necessity information which is extracted from one piece of data by the extraction processing section , and the necessity information which is extracted from another piece of data by the extraction processing section , at the same time, wherein the data includes part data which instructs an operation condition for each type of electronic components to the electronic component mounting machines .
A method for transmitting data from a portable data carrier with a contact-type interface and with a contactless interface to a reading device to which data can be transmitted by transponders through modulation of a field of the reading device, characterized in that the portable data carrier , for transmitting the data to the reading device , generates its own field in an active operating mode and transmits it as a signal which is evaluable for the reading device as a modulation of the reading device field by a transponder, by toggling between an antenna of the portable data carrier and an antenna of a terminal in which the portable data carrier is inserted, for contactless data transmission.
Plug contact set, comprising a plug contact strip having several first plug contacts arranged in a first housing , at least one of which is formed as a checking contact having a shorter length than the rest of the plug contacts , and a plug connecter having several second plug contacts arranged in a second housing , at least one of which is configured to come into electrical contact with the at least one checking contact , wherein the first housing has at least one first latch element and the second housing has at least one second latch element , which are configured to latch together, wherein two respective first latch elements arranged on opposite side walls of the first housing and two respective second and third latch elements arranged on opposite side walls of the second housing are provided, and that the third latch elements can be latched with the first latch elements and are arranged to be spaced apart from the second latch elements in the plugging direction (S) in such a way that, by latching the third latch elements with the first latch elements , an as clearance-free as possible fixing of the second housing part on the first housing part in the completely contacted state of the first and second plug contacts (12, 14; 22) is achieved, characterised in that the plug contact set has a first latch point, a second latch point and a third latch point, wherein the first latch elements are latched to the second latch elements at all three latch points and wherein, in the first latch point, no second plug contact comes into electrical contact with a checking contact , in the second latch point, at least one second plug contact comes into electrical contact with a checking contact and, in the third latch point, all first and second plug contacts (12, 14; 22) have come into contact with one another and the two housing parts are fixed to one other.
Agricultural machine (100, 100a-100c) with at least one pickup device (200, 200a-200c), wherein the pickup device (200, 200a-200c) comprises at least one pickup roller rotatable in a rotation (R 1 ), with at least two roller elements (25a-25d), with conveyor tines for the take-up of fodder or stalk stock (FG) from an agricultural land (F), and wherein the pickup device (200, 200a-200c) comprises at least one running and supporting device (300, 300a-300i), wherein the running and supporting device (300, 300a-300i) of the pickup device (200, 200a-200c) comprises exclusively sliding plates (4, 4a-4j) with an approximately circular or oval, convexly curved edge , and the running and supporting device forms a frontmost point of the sliding plate (4, 4a-4j) in a driving direction (FR), from which point a vertical (V) to a flight circle of the conveyor tines represents at least one tangent or a secant, and the running and supporting devices (300, 300a-300i) are fastened in the front fastening (15, 15a-15e) to a frame front portion of pickup device (200, 200a-200c) and by means of at least one stabilizer (12, 12a-12i) in a rear fastening (30, 30a-30d) to a frame rear portion , 14b) of the pick-up device (200, 200a-200c), wherein between the stabilizer (12, 12a-12i) and the rear fastening (30, 30a-30d) at least one leaf spring (13, 13a-13d) is arranged, characterized in that one sliding plate (4, 4a-4j) each is arranged in the middle of each roller element (25a-25d).
A method of hydroformylating an olefinic compound, the method comprising a step of preparing aldehyde by reacting an olefinic compound with a syngas of carbon monoxide and hydrogen (CO/H 2 ) in the presence of a catalyst composition for hydroformylation, the catalyst composition comprising a phosphoramidite ligand and a transition metal catalyst, wherein the phosphoramidite is a bicyclic phosphoramidite represented by Formula 2 below: wherein R 1 and R 2 are each independently a C 1 to C 20 alkylene group, C 5 to C 20 cycloalkylene group, C 6 to C 20 arylene group, or C 6 to C 20 alkylarylene group; R 3 is a C 1 to C 20 alkyl group, C 5 to C 20 cyclo alkyl group, C 6 to C 20 aryl group, or C 6 to C 20 alkylaryl group; and R 4 is CH, and wherein the transition metal catalyst is a transition metal catalyst represented by Formula 3 below or cobaltcarbonyl [Co 2 (CO) 8 ]: [Formula 3] M(L 1 ) x (L 2 ) y (L 3 ) z wherein M is one selected from the group consisting of cobalt (Co), rhodium (Rh), iridium (Ir), ruthenium (Ru), iron (Fe), nickel (Ni), palladium (Pd), platinum (Pt), and osmium (Os), each of L 1 , L 2 and L 3 is independently one selected from the group consisting of hydrogen, carbonyl (CO), cyclooctadiene, norbornene, chlorine, triphenylphosphine (TPP) and acetylacetonato (AcAc), and x, y and z are each independently 0 to 5, but x, y and z are not simultaneouosly 0, wherein the phosphoramidite ligand is included in an amount of 0.1 to 10 % by weight based on the weight of the catalyst composition. wherein the phosphoramidite is a bicyclic phosphoramidite represented by Formula 2 below: wherein R 1 and R 2 are each independently a C 1 to C 20 alkylene group, C 5 to C 20 cycloalkylene group, C 6 to C 20 arylene group, or C 6 to C 20 alkylarylene group; R 3 is a C 1 to C 20 alkyl group, C 5 to C 20 cyclo alkyl group, C 6 to C 20 aryl group, or C 6 to C 20 alkylaryl group; and R 4 is CH, and wherein the transition metal catalyst is a transition metal catalyst represented by Formula 3 below or cobaltcarbonyl [Co 2 (CO) 8 ]: [Formula 3] M(L 1 ) x (L 2 ) y (L 3 ) z wherein M is one selected from the group consisting of cobalt (Co), rhodium (Rh), iridium (Ir), ruthenium (Ru), iron (Fe), nickel (Ni), palladium (Pd), platinum (Pt), and osmium (Os), each of L 1 , L 2 and L 3 is independently one selected from the group consisting of hydrogen, carbonyl (CO), cyclooctadiene, norbornene, chlorine, triphenylphosphine (TPP) and acetylacetonato (AcAc), and x, y and z are each independently 0 to 5, but x, y and z are not simultaneouosly 0, wherein the phosphoramidite ligand is included in an amount of 0.1 to 10 % by weight based on the weight of the catalyst composition.
A solid oxide fuel cell configured to generate electricity from a fuel gas and an oxidant gas, the solid oxide fuel cell comprising: a cell module ; a fuel electrode interconnector ; and an air electrode interconnector , the cell module being sandwiched between the fuel electrode interconnector and the air electrode interconnector , wherein the cell module includes: a cell substrate having gas permeability; a fuel electrode; an air electrode; and a solid electrolyte , one electrode among the fuel electrode and the air electrode is formed on the cell substrate , the solid electrolyte is formed on the one electrode , the other electrode is formed on the solid electrolyte , the fuel electrode interconnector includes a plurality of fuel gas channels , the air electrode interconnector includes a plurality of oxidant gas channels , the fuel gas channels and the oxidant gas channels form a plurality of linear channels that are arranged parallel to each other, the solid oxide fuel cell is configured to, when generating electricity, cause the fuel gas to flow through the fuel gas channels and the oxidant gas to flow through the oxidant gas channels in opposite directions within the plane of the cell module , and a gas permeability of the cell substrate has been reduced by providing a dense portion formed by compressing the cell substrate or the gas permeability of the cell substrate has been reduced by providing a gas penetration barrier member on the cell substrate , such that a gas permeability of a central portion of the cell substrate in a gas flow direction is lower than a gas permeability of an inlet portion and an outlet portion of the cell substrate , the gas flow direction being a direction in which the fuel gas is caused to flow through the fuel gas channels or in which the oxidant gas is caused to flow through the oxidant gas channels. a cell substrate having gas permeability; a fuel electrode; an air electrode; and a solid electrolyte ,
Soft and semisoft materials milling bit comprising: - a shank and - a working sector comprising: • a cutting anterior part representing part of a sphere, • a cutting posterior part , fixed to the shank , located between the shank and the spherical anterior part , • at least one cutting tooth , extending throughout the entire length of the working sector, with a cutting edge that is formed as a projection of a helicoid on the surface of the working sector and ending at the intersection of the axis of the milling bit and a front spherical surface of the anterior part , • at least one helical flute to the cutting tooth extending along the length of the working sector following along the path of the cutting edge , wherein at least the spherical anterior part of the working section is hollow, characterized in that an open anterior cavity is formed by an inner surface of said at least one cutting tooth that in the region of said anterior cavity is in the form of a spherical shell element with a wall thickness from 0.3 mm to 5 mm, wherein a wedge angle β is between 3°- 40° at the anterior end of the cutting tooth , wherein a rake angle θ of the cutting tooth at least in the anterior part of the working sector is between 45°- 87°, wherein the forming helicoid of the cutting edge has a helicoidal angle of 10° - 45°, preferably from 20° to 35°. - a shank and - a working sector comprising: • a cutting anterior part representing part of a sphere, • a cutting posterior part , fixed to the shank , located between the shank and the spherical anterior part , • at least one cutting tooth , extending throughout the entire length of the working sector, with a cutting edge that is formed as a projection of a helicoid on the surface of the working sector and ending at the intersection of the axis of the milling bit and a front spherical surface of the anterior part , • at least one helical flute to the cutting tooth extending along the length of the working sector following along the path of the cutting edge , • a cutting anterior part representing part of a sphere, • a cutting posterior part , fixed to the shank , located between the shank and the spherical anterior part , • at least one cutting tooth , extending throughout the entire length of the working sector, with a cutting edge that is formed as a projection of a helicoid on the surface of the working sector and ending at the intersection of the axis of the milling bit and a front spherical surface of the anterior part , • at least one helical flute to the cutting tooth extending along the length of the working sector following along the path of the cutting edge ,
A User Equipment "UE" in a cellular telecommunications network comprising: a non-transitory memory including instructions stored thereon for obtaining a resource for accessing a target cell in the network ; and a processor , operably coupled to the non-transitory memory, wherein the UE is configured to: receive a handover command including physical random access channel "PRACH" resources associated with a plurality of beams of the target cell, and a threshold for determining whether a beam can be used for performing random access; detect plural beams associated with the target cell; determine one or more of the plural detected beams meeting the associated threshold for performing random access; select one of the determined one or more beams; select one of the PRACH resources associated with the selected beam; and transmit a PRACH preamble using the one selected PRACH resource. a non-transitory memory including instructions stored thereon for obtaining a resource for accessing a target cell in the network ; and a processor , operably coupled to the non-transitory memory, receive a handover command including physical random access channel "PRACH" resources associated with a plurality of beams of the target cell, and a threshold for determining whether a beam can be used for performing random access; detect plural beams associated with the target cell; determine one or more of the plural detected beams meeting the associated threshold for performing random access; select one of the determined one or more beams; select one of the PRACH resources associated with the selected beam; and transmit a PRACH preamble using the one selected PRACH resource.
A method for formal verification of a digital circuit using a description of the digital circuit describing data flow between registers, the method comprising: - a local processor: i. extracting a proof problem from a description of a digital circuit by removing timing aspects from the description of the digital circuit; ii. reducing said proof problem to proof relevant data by removing all signals that are not inputs or states of the digital circuit, wherein a cone of influence of the proof problem for the verification of the digital circuit is computed recursively to form a set of signals that need to be kept; and iii. encrypting said reduced proof problem; - transmitting said encrypted reduced proof problem to a remote server; - decrypting said encrypted reduced proof problem by said remote server; - storing said reduced proof problem in a memory by said remote server; - running a proof for verification of the description of the digital circuit on said reduced proof problem by said remote server to generate a proof result; - encrypting said proof result by said remote server; - transmitting said encrypted proof result to said local processor; - decrypting said encrypted proof result by said local processor; and - reconstructing a verification result of said digital circuit description by said local processor using the inputs and states from said decrypted proof result. - a local processor: i. extracting a proof problem from a description of a digital circuit by removing timing aspects from the description of the digital circuit; ii. reducing said proof problem to proof relevant data by removing all signals that are not inputs or states of the digital circuit, wherein a cone of influence of the proof problem for the verification of the digital circuit is computed recursively to form a set of signals that need to be kept; and iii. encrypting said reduced proof problem; i. extracting a proof problem from a description of a digital circuit by removing timing aspects from the description of the digital circuit; ii. reducing said proof problem to proof relevant data by removing all signals that are not inputs or states of the digital circuit, wherein a cone of influence of the proof problem for the verification of the digital circuit is computed recursively to form a set of signals that need to be kept; and iii. encrypting said reduced proof problem; - transmitting said encrypted reduced proof problem to a remote server; - decrypting said encrypted reduced proof problem by said remote server; - storing said reduced proof problem in a memory by said remote server; - running a proof for verification of the description of the digital circuit on said reduced proof problem by said remote server to generate a proof result; - encrypting said proof result by said remote server; - transmitting said encrypted proof result to said local processor; - decrypting said encrypted proof result by said local processor; and - reconstructing a verification result of said digital circuit description by said local processor using the inputs and states from said decrypted proof result.
A composite oxide catalyst particle comprising a composite oxide catalyst of formula Mo 1 V a Nb b Z c X d O n wherein a, b, c, d and n each represent an atomic ratio per Mo atom, in which a is in the range of 0.01 ≤ a ≤ 1; b is in the range of 0.01 ≤ b ≤ 1; c is in the range of 0.01 ≤ c ≤ 1; a/c as a ratio of a to c is in the range of 0<a/c<1; d is in the range of 0<d<1; and n is the number determined by an atomic valence of a component metal, and a carrier containing silica, and wherein the component X is at least one element selected from alkaline earth metal elements and rare earth elements, wherein the composite oxide catalyst is carried by the carrier, wherein the component X is uniformly distributed in the catalyst particle, wherein the dispersion value D x of the signal intensity ratio of the component X to Si, at the time of composition analysis of a cross-section of the catalyst particle, determined as described in the description, is 0 < D x < 0.5, and wherein the component Z is at least one element selected from Te and Sb. a is in the range of 0.01 ≤ a ≤ 1; b is in the range of 0.01 ≤ b ≤ 1; c is in the range of 0.01 ≤ c ≤ 1; a/c as a ratio of a to c is in the range of 0<a/c<1; d is in the range of 0<d<1; and n is the number determined by an atomic valence of a component metal, and a carrier containing silica, and wherein the component X is at least one element selected from alkaline earth metal elements and rare earth elements, wherein the composite oxide catalyst is carried by the carrier, wherein the component X is uniformly distributed in the catalyst particle, wherein the dispersion value D x of the signal intensity ratio of the component X to Si, at the time of composition analysis of a cross-section of the catalyst particle, determined as described in the description, is 0 < D x < 0.5, and wherein the component Z is at least one element selected from Te and Sb.
A method of sealing a hole comprising: providing a hole in a block , said method being characterised in that : said hole is a tapered hole and the hole connects two passageways in said block; inserting a plug into said tapered hole, said plug having a single piece unitary body with a bottom and a top and a side wall disposed therebetween, a recess located in the top extending partially into the body, the recess defining an inner wall of the plug, the side wall and the inner wall being both tapered prior to the inserting step, and where the side wall is an outer wall of the plug; aligning a tool with the tapered hole and the plug , the tool having an end section; moving the tool axially towards the hole such that the end section of the tool presses on the inner wall to expand the plug outwardly towards the tapered hole such that the side wall contacts and seals against the tapered hole; removing the tool wherein the plug seals the tapered hole after removal of the tool. providing a hole in a block , said method being characterised in that : said hole is a tapered hole and the hole connects two passageways in said block; inserting a plug into said tapered hole, said plug having a single piece unitary body with a bottom and a top and a side wall disposed therebetween, a recess located in the top extending partially into the body, the recess defining an inner wall of the plug, the side wall and the inner wall being both tapered prior to the inserting step, and where the side wall is an outer wall of the plug; aligning a tool with the tapered hole and the plug , the tool having an end section; moving the tool axially towards the hole such that the end section of the tool presses on the inner wall to expand the plug outwardly towards the tapered hole such that the side wall contacts and seals against the tapered hole; removing the tool wherein the plug seals the tapered hole after removal of the tool.
A method for generating a set of 1D guilloche patterns that can be overlaid on a document, each 1D guilloche pattern being in the form of a variable wavy line, visible to the naked eye over the underlying content, each guilloche pattern (201-228) being able to encode alphanumeric data providing a variable appearance to each guilloche pattern, the method comprising the following operations: - formatting the alphanumeric data to be encoded in the form of a predefined number of data blocks of a predefined size; - generating, for each block of formatted data, a carrier function comprising a plurality of parameters, the blocks of formatted data forming at least one of said parameters; and - modulating the carrier function by the blocks of formatted data so as to graphically encode the alphanumeric data , each data block defining a guilloche pattern (201-228), the number of data blocks (n) defining the number of guilloche patterns. - formatting the alphanumeric data to be encoded in the form of a predefined number of data blocks of a predefined size; - generating, for each block of formatted data, a carrier function comprising a plurality of parameters, the blocks of formatted data forming at least one of said parameters; and - modulating the carrier function by the blocks of formatted data so as to graphically encode the alphanumeric data , each data block defining a guilloche pattern (201-228), the number of data blocks (n) defining the number of guilloche patterns.