mhurhangee/ep-ind-claims huggingface dataset:
A data transformation apparatus having a data processing unit (200, 500) for inputting key data and performing at least one of encryption of data and decryption of data, and a key generating unit (300, 600) for generating key data to be used by the data processing unit (200, 500) and supplying the key data to the data processing unit (200, 500), wherein the data processing unit (200, 500) comprises a non-linear transformation unit (210, 220, 230) having cascaded plural rounds, each of the plural rounds inputs an extension key and performs a non-linear transformation, wherein the key generating unit (300, 600) includes a key shifting unit for inputting at least one of the key data and data generated from the key data and depending on the key data, performing a rotational shift by a predetermined number of bits Z 1, Z 2,..., Z m, where m is an integer, where Z k - Z j = I × (Z i+1 - Z i) = I × B with I being an integer, where B = Z i+1 - Z i, and where each of i, j, k is one of 1 through m, and generating an extension key for the each of the plural rounds of the non-linear transformation unit from the key data on which the rotational shift is performed, and wherein the key shifting unit includes: a rotational shift register (341, 342, 343, 344) for performing a rotational shift by B=(Z i+1 -Z i) bits at one operation; and a controller for operating the rotational shift register 1 time on the key data on which the rotational shift is performed by Z i bits, to perform the rotational shift by B=(Z i+1 - Z i) bits, making the rotational shift register (341, 342, 343, 344) to generate the key data on which the rotational shift is performed by Z i+1 bits, and operating the rotational shift register I times on the key data on which the rotational shift is performed by Z i+1 bits, to perform the rotational shift by I × B=I × (Z i+1 - Z i) bits, and making the rotational shift register to generate the key data on which the rotational shift is performed by Z i+2 bits. a rotational shift register (341, 342, 343, 344) for performing a rotational shift by B=(Z i+1 -Z i) bits at one operation; and a controller for operating the rotational shift register 1 time on the key data on which the rotational shift is performed by Z i bits, to perform the rotational shift by B=(Z i+1 - Z i) bits, making the rotational shift register (341, 342, 343, 344) to generate the key data on which the rotational shift is performed by Z i+1 bits, and operating the rotational shift register I times on the key data on which the rotational shift is performed by Z i+1 bits, to perform the rotational shift by I × B=I × (Z i+1 - Z i) bits, and making the rotational shift register to generate the key data on which the rotational shift is performed by Z i+2 bits.
A vehicle cab for a utility vehicle, in particular for an agricultural utility vehicle like a tractor, wherein a cab interior is defined inter alia by a windscreen and by a cab roof which includes a transparent roof portion (4; 15; 17), characterised in that the transparent roof portion (4; 15; 17) and the windscreen directly adjoin each other, wherein the windscreen and the transparent roof portion (4; 15; 17) are fixed together by way of an interposed seal (9; 16; 20).
A combination of a microphone and a circuit assembly for processing an electrical signal of the microphone, the microphone having an inherent impedance (202, 203) and comprising a first electrical output and a second electrical output, wherein a voltage between the first electrical output and the second electrical output corresponds to an acoustic input signal received by the microphone, and the circuit assembly comprising: - an impedance circuit (125, 126, 130) having an impedance value to be selected based on an impedance value of the inherent impedance (202, 203) of the microphone, - a signal processing unit comprising a first input and a second input, - a first electrical signal path coupleable to the first electrical output of the microphone and coupled to the first input of the signal processing unit, and - a second electrical signal path coupleable to the second electrical output of the microphone and coupled to the second input of the signal processing unit via the impedance circuit (125, 126, 130), characterized in that the second electrical signal path is additionally coupled to ground via a further inductive impedance circuit. - an impedance circuit (125, 126, 130) having an impedance value to be selected based on an impedance value of the inherent impedance (202, 203) of the microphone, - a signal processing unit comprising a first input and a second input, - a first electrical signal path coupleable to the first electrical output of the microphone and coupled to the first input of the signal processing unit, and - a second electrical signal path coupleable to the second electrical output of the microphone and coupled to the second input of the signal processing unit via the impedance circuit (125, 126, 130),
A computer-implemented medical method of providing an AR-overlay in a medical environment, which is projected into the field of view provided by an AR-device, particularly by AR-goggles, as a function of predefined viewing-characteristics, the method comprising the following steps: a) position data is acquired, describing a spatial position of an object observed through the AR-device relative to the spatial position of the AR-device and a spatial position of the eyes of a user of the AR-device; b) viewing-characteristics data is determined based on the position data, describing at least one characteristic of a user's view at the object wherein the viewing-characteristics data describes at least one of the following characteristics of the user's view with respect to the object; - a deviation angle between a visual axis of the AR-device and a line connecting the eyes and the object - a tilt angle of the AR-device around the visual axis of the AR-device; c) visualization data is determined based on the viewing-characteristics data, describing the AR-overlay which is projected into the field of view provided by the AR-device, wherein the content of the AR-overlay is changed in correspondence with a change of the at least one characteristic of the user's view, wherein the content of the AR overlay is positionally registered with the field of view provided by the AR device. a) position data is acquired, describing a spatial position of an object observed through the AR-device relative to the spatial position of the AR-device and a spatial position of the eyes of a user of the AR-device; b) viewing-characteristics data is determined based on the position data, describing at least one characteristic of a user's view at the object wherein the viewing-characteristics data describes at least one of the following characteristics of the user's view with respect to the object; - a deviation angle between a visual axis of the AR-device and a line connecting the eyes and the object - a tilt angle of the AR-device around the visual axis of the AR-device; - a deviation angle between a visual axis of the AR-device and a line connecting the eyes and the object - a tilt angle of the AR-device around the visual axis of the AR-device; c) visualization data is determined based on the viewing-characteristics data, describing the AR-overlay which is projected into the field of view provided by the AR-device, wherein the content of the AR-overlay is changed in correspondence with a change of the at least one characteristic of the user's view, wherein the content of the AR overlay is positionally registered with the field of view provided by the AR device.
A dowel with alternative embedding of the thrust plate (1.3) in the insulating panel, comprising a dowel shank (1.1) with a thrust plate (1.3) on its one end, with an expansion section (1.4) on the opposite end, an expanding element, and a compressible section (1.2) on the shank (1.1) in the form of longitudinal segments (1.2.1) created by at least two longitudinal slots (1.2.2) in the wall of said shank (1.1), while the length of the compressible section (1.2) is at least two-and-half times longer than the outer diameter of said shank (1.1), wherein the compressible section (1.2) is situated on a cylindrical part of the shank (1.1) of the dowel, and that close to both ends of said longitudinal slots (1.2.2) and about in the middle of said longitudinal segments (1.2.1) the walls of said shank (1.1) are weakened, and wherein a weakening of the walls of the shank (1.1) close to the ends of slots (1.2.2) and in the middle of longitudinal segments (1.2.1) is each created by a cross groove (1.2.3) on the inner or on the outer wall of the shank (1.1), characterized in that the compressible section (1.2) is separate from the expansion section (1.4), wherein the diameter of the expansion section (1.4) is smaller than the diameter of the compressible section (1.2), the dowel further comprising an element for creating of a cut-through for deep embedding of said thrust plate (1.3) being created by an individual cutting-through element.
A display panel structure consisting of a composite material phase and capable of implementing at least two colors, the display panel structure comprising: an upper substrate; a lower substrate; an upper electrode disposed on a surface of the upper substrate; a lower electrode disposed on a surface of the lower substrate; and a partition wall defining a unit cell region formed between the upper substrate and the lower substrate, wherein the unit cell region comprises a plurality of first particles and a plurality of second particles having a color different from that of the plurality of first particles, the first and second particles being dispersed in a fluid, wherein each of the pluralities of first and second particles has a structure in which one particle has both a positive charge and a negative charge, the positive and negative charges have different charge amounts from each other, and wherein, upon application of specific voltages to the lower and upper electrodes, the pluralities of first and second particles are vertically and horizontally arranged at regular intervals from the upper electrode to the lower electrode so as to implement a transmission mode wherein vertically designates a direction perpendicular to the upper and lower electrodes. an upper substrate; a lower substrate; an upper electrode disposed on a surface of the upper substrate; a lower electrode disposed on a surface of the lower substrate; and a partition wall defining a unit cell region formed between the upper substrate and the lower substrate, wherein the unit cell region comprises a plurality of first particles and a plurality of second particles having a color different from that of the plurality of first particles, the first and second particles being dispersed in a fluid, wherein each of the pluralities of first and second particles has a structure in which one particle has both a positive charge and a negative charge, the positive and negative charges have different charge amounts from each other, and wherein, upon application of specific voltages to the lower and upper electrodes, the pluralities of first and second particles are vertically and horizontally arranged at regular intervals from the upper electrode to the lower electrode so as to implement a transmission mode wherein vertically designates a direction perpendicular to the upper and lower electrodes.
A system for monitoring and treating conditions of a mammalian heart, comprising: a) a pacemaker having: i) a case; ii) electrical circuitry sealed within the case; iii) an electrode having a tip and being electrically coupled to the electrical circuitry; b) software configured to program the circuitry of the pacemaker to provide one or more functions to treat one or more conditions of the heart; c) wherein said circuitry includes a memory or chip containing the software; and d) receivers that detect and relay electrical signals from the heart corresponding to the operation of the heart, characterized in that the e) receivers are configured to deliver electrical impulses to the heart to pace the myocardium consecutively, in a spiral direction from the apex toward the base of the heart. a) a pacemaker having: i) a case; ii) electrical circuitry sealed within the case; iii) an electrode having a tip and being electrically coupled to the electrical circuitry; i) a case; ii) electrical circuitry sealed within the case; iii) an electrode having a tip and being electrically coupled to the electrical circuitry; b) software configured to program the circuitry of the pacemaker to provide one or more functions to treat one or more conditions of the heart; c) wherein said circuitry includes a memory or chip containing the software; and d) receivers that detect and relay electrical signals from the heart corresponding to the operation of the heart, characterized in that the e) receivers are configured to deliver electrical impulses to the heart to pace the myocardium consecutively, in a spiral direction from the apex toward the base of the heart.
Forming tool for the manufacture of formed parts made of metal plates, preferably of light metal, which has an upper tool part and a lower tool part, wherein the upper tool part and the lower tool part comprise heatable formed bodies (4, 5) and at least one formed body (4, 5) in the upper tool part and / or in the lower tool part, disposed in a bearing, characterised in that the bearing is designed such that thermal expansions of the formed body (4, 5) is made possible during the heating process and that on the upper formed body and on the lower formed body and / or on a blank holder guide elements (20, 21) are provided, by means of which the upper formed body and the lower formed body and / or the blank holder are positionally aligned relative to each other during the forming process.
A controlled release formulation comprising two or more subunits, wherein at least one of said subunits is an immediate release carvedilol subunit comprising a therapeutically effective amount of carvedilol free base or carvedilol salt thereof, a matrix forming polymer, and a pharmaceutically acceptable carrier, and wherein at least one of said subunits is a slow release carvedilol subunit comprising a therapeutically effective amount of carvedilol free base or carvedilol salt thereof, a matrix forming polymer, a solubility enhancer and a pharmaceutically acceptable carrier, wherein the controlled release formulation comprises a combination of 15% to 35% of hydroxypropyl methylcellulose (HPMC) and 20% to 55% of polyvinylpyrrolidone, wherein the amounts of each ingredient are referred to the whole formulation and wherein the controlled release formulation exhibits a first peak plasma T max1 of about 4 hours, and a second peak plasma T max2 of about 24 hours after oral administration to a patient. wherein at least one of said subunits is an immediate release carvedilol subunit comprising a therapeutically effective amount of carvedilol free base or carvedilol salt thereof, a matrix forming polymer, and a pharmaceutically acceptable carrier, and wherein at least one of said subunits is a slow release carvedilol subunit comprising a therapeutically effective amount of carvedilol free base or carvedilol salt thereof, a matrix forming polymer, a solubility enhancer and a pharmaceutically acceptable carrier, wherein the controlled release formulation comprises a combination of 15% to 35% of hydroxypropyl methylcellulose (HPMC) and 20% to 55% of polyvinylpyrrolidone, wherein the amounts of each ingredient are referred to the whole formulation and wherein the controlled release formulation exhibits a first peak plasma T max1 of about 4 hours, and a second peak plasma T max2 of about 24 hours after oral administration to a patient.
A drafting system for drafting a fiber sliver, having at least three roller pairs (3, 4, 5) disposed one after the other in the running direction of the fiber sliver, each comprising at least one bottom roller (6a-6c) and at least one top roller (7a-7d), the fiber sliver being fed between a roller pair (3, 4, 5) each, having at least one sliver guide (8, 9, 10) by means of which the fiber sliver is guided, at least one first sliver guide being disposed upstream of the drafting system in the running direction of the fiber sliver and at least one second sliver guide being disposed downstream of the drafting system in the running direction of the fiber sliver, and wherein a third sliver guide is disposed between two roller pairs (3, 4, 5) and/or upstream of a first roller pair in the running direction of the fiber sliver, so that the fiber sliver is guided laterally characterized in that the first sliver guide comprises a band guide, implemented as an elongated base body, having two helically guide surfaces (13a, 13b), disposed on the base body, wherein the base body can be rotated.
Sterile container with a gas-permeable filter cassette, comprising a filter element arranged in the filter cassette, wherein for centering the filter cassette with regard to a sterile container wall section having at least one gas exchange opening, a first, conical centering means is provided on the filter cassette and cooperates in a non-self-retaining manner with a second centering means provided on the sterile container wall section when the filter cassette is inserted in or arranged on the sterile container wall section.
A fraud detection system comprising: a call switching unit for receiving an incoming call; a call information extraction unit for processing the incoming call to extract call signalling information associated with the incoming call; and a fraud scoring unit for determining a fraud score associated with the incoming call using the extracted call signalling information, the fraud score indicating a likelihood that the incoming call is from a fraudulent caller; wherein the call information extraction unit is configured to determine whether or not the calling party is hiding a presentation calling line identification, P-CLI, and/or whether or not the signalling information of the incoming call comprises a network calling party identification, N-CLI, and in dependence thereon, to determine one or more call trust factors for the incoming call, wherein the fraud scoring unit is configured to determine the fraud score for the incoming call using the determined one or more call trust factors for the incoming call, and wherein the call switching unit is configured to forward the incoming call to one of a number of different destinations based on the fraud score determined by the fraud scoring unit or to forward the incoming call and the determined fraud score for the incoming call to a destination associated with the incoming call. a call switching unit for receiving an incoming call; a call information extraction unit for processing the incoming call to extract call signalling information associated with the incoming call; and a fraud scoring unit for determining a fraud score associated with the incoming call using the extracted call signalling information, the fraud score indicating a likelihood that the incoming call is from a fraudulent caller; wherein the call information extraction unit is configured to determine whether or not the calling party is hiding a presentation calling line identification, P-CLI, and/or whether or not the signalling information of the incoming call comprises a network calling party identification, N-CLI, and in dependence thereon, to determine one or more call trust factors for the incoming call, wherein the fraud scoring unit is configured to determine the fraud score for the incoming call using the determined one or more call trust factors for the incoming call, and wherein the call switching unit is configured to forward the incoming call to one of a number of different destinations based on the fraud score determined by the fraud scoring unit or to forward the incoming call and the determined fraud score for the incoming call to a destination associated with the incoming call.
An insulating glass window unit including first and second glass substrates, and a coating supported by one of the substrates, the coating comprising: first and second IR reflecting layers with at least one dielectric layer therebetween; and wherein the IG window unit has a selectivity (T vis /SF) of at least 1.75, and a solar factor of no greater than 27.5, wherein the first IR reflecting layer is located between the glass substrate supporting the coating and the second IR reflecting layer, the coating further comprising a first contact layer located under and contacting the first IR reflecting layer, a second contact layer located over and contacting the first IR reflecting layer, a third contact layer located under and contacting the second IR reflecting layer, and a fourth contact layer located over and contacting the second IR reflecting layer; wherein the third and/or fourth contact layer are more oxidized than is the first and/or second contact layer, wherein a ratio (T first /T second) of the thickness of the first IR reflecting layer to the thickness of the second IR reflecting layer is at least 1.05. first and second IR reflecting layers with at least one dielectric layer therebetween; and wherein the IG window unit has a selectivity (T vis /SF) of at least 1.75, and a solar factor of no greater than 27.5, wherein the first IR reflecting layer is located between the glass substrate supporting the coating and the second IR reflecting layer, the coating further comprising a first contact layer located under and contacting the first IR reflecting layer, a second contact layer located over and contacting the first IR reflecting layer, a third contact layer located under and contacting the second IR reflecting layer, and a fourth contact layer located over and contacting the second IR reflecting layer;
Sliding gate, comprising a running rail with an oblong feed element and a motor, which is connected to a drive device such as a toothed gear, which interacts with the feed element to move the running rail, wherein the running rail in the cross-section to its longitudinal axis is C-shaped with a base and two limbs and is also downwardly open, wherein the feed element is designed as a gear rack and aligned with intervention regions for the drive device at an angle of about 90° to that lateral region of the running rail at which the feed element is arranged or attached, wherein the motor is arranged within the running rail, characterized in that the feed element is arranged on the inner side within a lateral region of the C-shaped running rail on a limb.