mhurhangee/ep-ind-claims huggingface dataset:
A microcontroller comprising: a central processing unit; a data memory coupled with the central processing unit being divided into n banks; the central processing unit comprising: a bank select unit for selecting one of the banks in the data memory or access a virtual bank, wherein the selected bank forms a register file; an arithmetic logic unit coupled with the register file; and a plurality of special function registers being mapped to one of the banks in the data memory; wherein the virtual bank combines partial memory space of two banks; characterized in that the virtual bank further combines said partial memory space of two banks and a user defined partial memory space of the data memory and wherein the user defined partial memory space is mapped to any location within the data memory. a central processing unit; a data memory coupled with the central processing unit being divided into n banks; the central processing unit comprising: a bank select unit for selecting one of the banks in the data memory or access a virtual bank, wherein the selected bank forms a register file; an arithmetic logic unit coupled with the register file; and a plurality of special function registers being mapped to one of the banks in the data memory; wherein a bank select unit for selecting one of the banks in the data memory or access a virtual bank, wherein the selected bank forms a register file; an arithmetic logic unit coupled with the register file; and a plurality of special function registers being mapped to one of the banks in the data memory; wherein the virtual bank combines partial memory space of two banks; characterized in that the virtual bank further combines said partial memory space of two banks and a user defined partial memory space of the data memory and wherein the user defined partial memory space is mapped to any location within the data memory.
A method in a communication node for mapping symbols of an Enhanced Physical Downlink Control Channel, EPDCCH, message which EPDCCH comprises one or more aggregation levels, wherein for each aggregation level, an EPDCCH message is constituted by a set of Control Channel Elements, eCCEs, where each eCCE is mapped to a set of multiple enhanced Resource Element Groups, eREGs, wherein each eREG is a group of Resource Elements, REs, in a Physical Resource Block, PRB, pair, and wherein the method is characterized by: mapping the symbols of the EPDCCH message to the set of REs that constitutes the multiple eREGs that the set of eCCEs correspond to, wherein the order in which the EPDCCH symbols are mapped to the set of REs is dependent on the aggregation level, and wherein the mapping is performed by mapping the EPDCCH symbols in a subcarrier-first fashion over the assigned eREGs of an EPDCCH set of PRB pairs, and then over time, and transmitting the mapped EPDCCH message to a user Equipment, UE,, which mapping of the EPDCCH message enables the UE to detect the used aggregation level of the EPDCCH payload when received by the UE. mapping the symbols of the EPDCCH message to the set of REs that constitutes the multiple eREGs that the set of eCCEs correspond to, wherein the order in which the EPDCCH symbols are mapped to the set of REs is dependent on the aggregation level, and wherein the mapping is performed by mapping the EPDCCH symbols in a subcarrier-first fashion over the assigned eREGs of an EPDCCH set of PRB pairs, and then over time, and transmitting the mapped EPDCCH message to a user Equipment, UE,, which mapping of the EPDCCH message enables the UE to detect the used aggregation level of the EPDCCH payload when received by the UE.
Spectrometer for gas detection comprising a Fabry-Perot interferometer including two plane, essentially parallel, mirror surfaces, mounted in a frame, the mirrors, having a known distance between them, wherein at least one of the mirror surfaces is both partially reflective and partially transparent, where there are at least two actuator units,,,, 2. each including at least one actuator, wherein the first actuator unit, is adapted to adjust said distance between said mirrors so as to adjust the filtered wavelength within a specified range and wherein the second actuator unit, is adapted to modulate said distance at a chosen frequency in the range of 10-1000Hz, both thus providing a variation over a range of mirror distances corresponding to a range of filtered wavelengths in said Fabry-Perot interferometer, and wherein the amplitude of the movements of the second actuator modulation is less than the amplitude of the movements made by the first actuator unit, wherein at least one of said mirrors is related to the frame through a silicon membrane, at least the second of said actuator units comprising a piezoelectric material on said membrane, thus constituting a bimorph or unimorph actuator unit, the second actuator being operated at a lower strain than the first actuator, preferably close to zero strain, so as to increase the lifetime of the actuator. wherein at least one of said mirrors is related to the frame through a silicon membrane, at least the second of said actuator units comprising a piezoelectric material on said membrane, thus constituting a bimorph or unimorph actuator unit, the second actuator being operated at a lower strain than the first actuator, preferably close to zero strain, so as to increase the lifetime of the actuator.
Propeller blade comprising a self-destruction device, the self-destruction device comprising detecting means adapted to detect a release of the propeller blade, warning means adapted to send a release alarm in the event of the detecting means detecting release of the propeller blade, and destruction means adapted to destroy the propeller blade in the event of receiving a release alarm from the warning means, wherein the detecting means comprises a plurality of accelerometers arranged along the span of the propeller blade.
An implant screw for an implant, particularly for a dental implant (100, 100', 200, 300), with a ceramic head part (228, 328), with a non-ceramic base thread (111, 111', 111", 211, 311) that can be screwed into a base body (130, 230, 330) of a dental implant (100, 100', 200, 300), and a holding thread, characterized in that between the head part (228, 328) and the holding thread, a cavity (29, 39, 50) is formed as an annular groove (29, 39), which can be filled or is filled with an adhesive, in order to connect the head part to the holding thread by an adhesive connection. with a ceramic head part (228, 328), with a non-ceramic base thread (111, 111', 111", 211, 311) that can be screwed into a base body (130, 230, 330) of a dental implant (100, 100', 200, 300), and a holding thread, characterized in that between the head part (228, 328) and the holding thread, a cavity (29, 39, 50) is formed as an annular groove (29, 39), which can be filled or is filled with an adhesive, in order to connect the head part to the holding thread by an adhesive connection.
A Power over Data Lines, PoDL, system, the system including Power Sourcing Equipment, PSE, coupled to a Powered Device, PD, via a wire pair, comprising a first wire and a second wire, wherein differential data signals and DC power are conducted over the same wire pair, characterized in that the system further comprises: a controller configured to detect a voltage on the first wire and compare the voltage on the first wire to an upper threshold limit (HI REF1) and a lower threshold limit (HI REF2) for the first wire to determine whether a fault condition exists; at least a first switch in series with the first wire, controlled by the controller, wherein the controller opens the first switch when the fault condition is detected, and wherein the controller is configured to carry out a retry routine by closing the first switch to detect whether the fault condition has been removed. a controller configured to detect a voltage on the first wire and compare the voltage on the first wire to an upper threshold limit (HI REF1) and a lower threshold limit (HI REF2) for the first wire to determine whether a fault condition exists; at least a first switch in series with the first wire, controlled by the controller, wherein the controller opens the first switch when the fault condition is detected, and wherein the controller is configured to carry out a retry routine by closing the first switch to detect whether the fault condition has been removed.
A non-modular multiplier, comprising: an interface, which is configured to receive n-bit integers A and B; and circuitry, which is configured to calculate a non-modular product ( A ∗ B) by performing a sequence of computations, and to randomize a pattern of an electrical power consumed by the non-modular multiplier when performing the sequence, the sequence comprising: generating a random number w; determining moduli M1 and M2 that depend on a number R=2 k, wherein k equals a bit-length of M1 and M2, and on the random number w, and calculating a first modular product C = A ∗ B % M 1 and a second modular product D = A ∗ B % M 2; and producing and outputting the non-modular product ( A ∗ B) based on the first and second modular products. an interface, which is configured to receive n-bit integers A and B; and circuitry, which is configured to calculate a non-modular product ( A ∗ B) by performing a sequence of computations, and to randomize a pattern of an electrical power consumed by the non-modular multiplier when performing the sequence, the sequence comprising: generating a random number w; determining moduli M1 and M2 that depend on a number R=2 k, wherein k equals a bit-length of M1 and M2, and on the random number w, and calculating a first modular product C = A ∗ B % M 1 and a second modular product D = A ∗ B % M 2; and producing and outputting the non-modular product ( A ∗ B) based on the first and second modular products. generating a random number w; determining moduli M1 and M2 that depend on a number R=2 k, wherein k equals a bit-length of M1 and M2, and on the random number w, and calculating a first modular product C = A ∗ B % M 1 and a second modular product D = A ∗ B % M 2; and producing and outputting the non-modular product ( A ∗ B) based on the first and second modular products.
A computer-implemented method for converting an audio signal into one or more haptic effects, the computer-implemented method comprising: analyzing the audio signal; generating a plurality of haptic signals based on audio characteristics of the audio signal, wherein each haptic signal comprises one or more haptic parameters, and wherein the one or more haptic parameters are determined based on the audio characteristics of the audio signal; mapping the plurality of haptic signals to a plurality of actuators (26, 250, 270, 921, 931, 941), wherein a first haptic signal that is generated for a first audio data frame that has a first audio characteristic is mapped to a first actuator while a second haptic signal that is generated for a second audio data frame that has a second audio characteristic is mapped to a second actuator; sending each haptic signal to its mapped actuator (26, 250, 270, 921, 931, 941); and playing each haptic signal at its mapped actuator (26, 250, 270, 921, 931, 941) to generate a haptic effect of the one or more haptic effects. analyzing the audio signal; generating a plurality of haptic signals based on audio characteristics of the audio signal, wherein each haptic signal comprises one or more haptic parameters, and wherein the one or more haptic parameters are determined based on the audio characteristics of the audio signal; mapping the plurality of haptic signals to a plurality of actuators (26, 250, 270, 921, 931, 941), wherein a first haptic signal that is generated for a first audio data frame that has a first audio characteristic is mapped to a first actuator while a second haptic signal that is generated for a second audio data frame that has a second audio
Adhesive system, which functions as a wood adhesive, comprising a protein and one or more polymers belonging to the group of polyvinyl amine, poly(vinylalcohol- co-vinylamine), poly(vinylalcohol- co-vinylformamide), polyallyl amine, polyethylene imine and polyvinyl formamide.
A test piece transfer apparatus comprising: a transfer mechanism for transferring an elongated test piece in a transfer direction (x) corresponding to the width of the test piece, the transfer mechanism being provided with a test piece holder for holding the test piece and with a driving portion; and a test piece adjusting mechanism; wherein the test piece holder includes: a lower surface holding portion for coming into contact with a lower surface of the test piece; an upstream holding portion arranged on an upstream side of the test piece in the transfer direction (x); and a downstream holding portion arranged on a downstream side of the test piece in the transfer direction (x); wherein the transfer mechanism is arranged such that, during motion of the transfer mechanism in the transfer direction (x), the test piece traverses the test piece adjusting mechanism; wherein the test piece adjusting mechanism includes a flat portion (31b; 32b) and a raised portion (31c; 32c) arranged on a downstream side of the flat portion (31b; 32b) in the transfer direction (x); wherein the flat portion (31b; 32b) is at a lower position than the lower surface holding portion, such as to enable the test piece to be held on the lower surface holding portion as the test piece traverses the flat portion (31b; 32b); and wherein the raised portion (31c; 32c) is raised above the lower surface holding portion, such as to cause the test piece to separate from the lower surface holding portion as the test piece traverses the raised portion (31c; 32c). a transfer mechanism for transferring an elongated test piece in a transfer direction (x) corresponding to the width of the test piece, the transfer mechanism being provided with a test piece holder for holding the test piece and with a driving portion; and a test piece adjusting mechanism; wherein the test piece holder includes: a lower surface holding portion for coming into contact with a lower surface of the test piece; an upstream holding portion arranged on an upstream side of the test piece in the transfer direction (x); and a downstream holding portion arranged on a downstream side of the test piece in the transfer direction (x); wherein the transfer mechanism is arranged such that, during motion of the transfer mechanism in the transfer direction (x), the test piece traverses the test piece adjusting mechanism; wherein the test piece adjusting mechanism includes a flat portion (31b; 32b) and a raised portion (31c; 32c) arranged on a downstream side of the flat portion (31b; 32b) in the transfer direction (x); wherein the flat portion (31b; 32b) is at a lower position than the lower surface holding portion, such as to enable the test piece to be held on the lower surface holding portion as the test piece traverses the flat portion (31b; 32b); and wherein the raised portion (31c; 32c) is raised above the lower surface holding portion, such as to cause the test piece to separate from the lower surface holding portion as the test piece traverses the raised portion (31c; 32c).
Tank protection armature comprising at least one vacuum valve having a sealing seat in a housing, and a valve disc-mounting group including a valve disc and a valve rod for co-action with the sealing seat, the valve disc-mounting group being supported for a linear movement relative to the sealing seat, wherein at least a part of the valve disc-mounting group is guided in a guidance, and wherein the valve disc-mounting group in use is installed in the tank protection armature at least with substantially horizontal valve rod, characterized in that the active mass center of gravity of the valve disc-mounting group is positioned at least in the end portion of the stroke of the valve disc towards the sealing seat between two ends of the guidance.
Device for extracorporeal blood treatment, in particular a dialysis machine, comprising a peristaltic pump for conveying fluid from a low-pressure side to a high-pressure side, said peristaltic pump comprising a rotor which is rotatable around a rotor axis and a support area which is formed around the rotor axis in an arcuate manner, wherein an elastically deformable fluid line can be positioned between the rotor and the support area and is deformed between the rotor and the support area during rotation of the rotor, forming a narrowing of the cross-section, so that as the rotor rotates relative to the support area a fluid in the fluid line is conveyed from the low-pressure side to the high-pressure side, wherein the device comprises a machine housing part designed as a formed sheet metal part, the support area is formed in the machine housing part (100, 101) by plastic deformation.
Procedure designed to calibrate and/or adjust a pH sensor to be operated at an intended place of measurement, wherein the pH sensor is connected at the place of measurement to a cable via an interface and is connected via said cable to a display unit and/or another measured value processing unit, and wherein the measured values measured by the pH sensor are transmitted via the cable to the display unit and/or the other measured value processing unit, wherein the pH sensor has a measuring system and evaluation electronics, which are designed in such a way that the signal generated by the sensor cannot essentially be changed by a subsequent transmission, in such a way that the evaluation electronics are designed to preprocess an analog electrical signal received from the measuring system and to convert said signal into a digital signal, wherein the pH sensor delivers the digital signal to the interface, and wherein the evaluation electronics are designed in such a way and the coupling and the cable have such a minor influence on the transmitted digital signal that the digital signal can no longer be corrupted by the subsequent transmission, and wherein the pH sensor is calibrated and/or adjusted (23, 25) at a place other than the place of measurement, and wherein the pH sensor is assigned a TAG number which identifies the place of measurement, and wherein the serial number of the pH sensor is saved in a database prior to the calibration and/or adjustment and the TAG number is assigned to the pH sensor and is also saved in the database and in the pH sensor, and wherein the calibration data generated during the calibration and/or adjustment of the pH sensor are saved in the pH sensor and in the database for further use.
A method for preparing a cooking- and/or frying-stable cheese-like product, which method comprises the steps of: a) providing a liquid composition having a dry matter content of at least 34% w/w, a protein content of at least 12% w/w, a content of micellar casein of at least 8% w/w, and wherein the liquid composition has a pH in the range of 4.8-7.0 and a ratio of whey protein to micellar casein of 12:88 to 0:100, b) subjecting the liquid composition to a coagulation step by adding a milk-clotting enzyme, and allowing the liquid composition to coagulate to obtain a coagulated composition, c) optionally, cutting the coagulated composition, d) subjecting the coagulated composition from step b) or c) to heating to obtain a core temperature of the coagulated composition of at least 70 degrees C, and e) cooling the heat-treated coagulated composition, wherein the cooking- and/or frying-stable cheese-like product is the coagulated composition obtained under step d) or e). a) providing a liquid composition having a dry matter content of at least 34% w/w, a protein content of at least 12% w/w, a content of micellar casein of at least 8% w/w, and wherein the liquid composition has a pH in the range of 4.8-7.0 and a ratio of whey protein to micellar casein of 12:88 to 0:100, b) subjecting the liquid composition to a coagulation step by adding a milk-clotting enzyme, and allowing the liquid composition to coagulate to obtain a coagulated composition, c) optionally, cutting the coagulated composition, d) subjecting the coagulated composition from step b) or c) to heating to obtain a core temperature of the coagulated composition of at least 70 degrees C, and e) cooling the heat-treated coagulated composition,
A safety restraint mechanism for an associated mast assembly, the safety restraint mechanism comprising: a carriage assembly adapted to support an associated payload and configured to move axially along the mast assembly; an elongated line attached to a lever at a first end and attached to an associated winch mechanism at a second end such that operation of the associated winch mechanism retracts or extends the elongated line; a cam brake having an engagement profile at a first end and pivotally attached to the lever at a second end, the cam brake being pivotally attached to the carriage assembly such that the engagement profile pivots to a brake position or a free position relative to a tension force acting on the tension line characterized in that, the lever includes a kickstand member adapted to selectively engage the carriage assembly such that the cam brake and engagement profile are in the free position. a carriage assembly adapted to support an associated payload and configured to move axially along the mast assembly; an elongated line attached to a lever at a first end and attached to an associated winch mechanism at a second end such that operation of the associated winch mechanism retracts or extends the elongated line; a cam brake having an engagement profile at a first end and pivotally attached to the lever at a second end, the cam brake being pivotally attached to the carriage assembly such that the engagement profile pivots to a brake position or a free position relative to a tension force acting on the tension line characterized in that, the lever includes a kickstand member adapted to selectively engage the carriage assembly such that the cam brake and engagement profile are in the free position.
Tool having a shaft which can be rotationally driven about an axis of rotation, a tool head which is connected thereto and operates in rotation and which has a working section extending over an axial distance, wherein a depth limiter can be fixed by a radially fixable restraining element in various axial positions on the shaft, wherein the depth limiter comprises a stop surface located in the working section in the axial positions, wherein the shaft comprises a plurality of positioning recesses arranged on a helical path and wherein the restraining element has a tip which selectively engages in one of the plurality of positioning recesses, characterised in that the positioning recesses are arranged on a cylindrical section of the shaft, the axial distance (b) between the centres of two directly adjacent positioning recesses being less than the diameter of the positioning recess.
Floor slab, which is intended for forming a flooring deck, and which floor slab includes cast concrete in form of a load-bearing hollow-core structure including longitudinal reinforcement wherein the cast concrete includes a ribbed concrete slab and, the reinforcement is prestressed, and the ribbed concrete slab has a cast cover closing the ribbed concrete slab wherein the ribbed slab and cover are separately cast using slipforming, characterized in that the floor slab includes building service systems, and the building service systems are arranged to be formed in the hollow cores of the hollow-core structure, and the building service systems include a connection, one end of which is arranged to be exposed for part of the distance, and that the connection is an air-conditioning pipe, and the end of the connection includes a joint part arranged to move, which is arranged to extend to the end of a corresponding connection belonging to another floor slab, in order to join the connections to each other.