mhurhangee/patent-ind-claim-en huggingface dataset:
An encoder for encoding input data utilizing a binary symmetry-invariant product code including D data bits and P parity bits in each dimension, wherein the binary symmetry-invariant product code is a half product code (HPC), characterised in that the encoder comprises circuitry including: a half-size data array including D rows each having storage for H bits of input data, wherein D is an integer equal to 2×H + 1, and wherein the encoder is configured to access bits of each row of the binary symmetry-invariant product code by reading a first H-bit data word from a selected one of the D rows of the half-size data array and a second H-bit data word across H different rows of the half-size data array; a register configured to receive the bits of the first H-bit data word and the second H-bit data word and a zero bit and to rotate the bits by an integer N as needed to obtain the D data bits of the Nth row of the binary symmetry-invariant product code; a row parity generator coupled to the register and configured to generate row parity for the Nth row of the binary symmetry-invariant product code; and a column parity generator configured to generate, based on row parity generated by the row parity generator, column parities for the P parity bits of all rows of the binary symmetry-invariant product code. a half-size data array including D rows each having storage for H bits of input data, wherein D is an integer equal to 2×H + 1, and wherein the encoder is configured to access bits of each row of the binary symmetry-invariant product code by reading a first H-bit data word from a selected one of the D rows of the half-size data array and a second H-bit data word across H different rows of the half-size data array; a register configured to receive the bits of the first H-bit data word and the second H-bit data word and a zero bit and to rotate the bits by an integer N as needed to obtain the D data bits of the Nth row of the binary symmetry-invariant product code; a row parity generator coupled to the register and configured to generate row parity for the Nth row of the binary symmetry-invariant product code; and a column parity generator configured to generate, based on row parity generated by the row parity generator, column parities for the P parity bits of all rows of the binary symmetry-invariant product code.
Screen system for positioning a screen, in particular a screen blind, for a window in a wall , comprising a screen and adjusting means for adjusting the screen longitudinally between a position adapted to leave the window clear and a position at least substantially wholly adapted to screen the window, and comprising on either longitudinal side of the screen a guide profile which comprises a guide track through which the screen is longitudinally guidable for adjustment thereof, wherein the guide profiles each contain on a side facing toward the wall an attaching part for an attachment against the wall and on a side facing away from said wall an edge part extending laterally relative to the attaching part away from said window while leaving a space with respect to said wall, characterized in that the guide profiles are provided with a light source between the wall and the edge part .
Antimicrobial and antiviral hygienic products containing boron compounds, chlorhexidine gluconate, triclosan which are provided with antimicrobial property by using boron compounds wherein the boron compounds that are used are comprised of mixtures of sodium borate ((Na 2 O)(B 2 O 3 ) 5 .10H 2 O), zinc borate (2ZnO.3B 2 O 3. 3.5H 2 O), sodium perborate tetrahydrate (NaBO 3 .4H 2 O), borax pentahydrate (Na 2 B 4 O 7 .5H 2 O) and disodium octaborate tetrahydrate (Na 2 B 8 O 13 .4H 2 O) and with antiviral property by using glucopon, chlorhexidine gluconate and triclosan.
An organizer for receiving blood tubing elements, comprising at least a first, a second and a third portions, the first portion being movably connected to the second portion relative to the second portion , and the second portion being movably connected to the third portion relative to the third portion , wherein the first portion , the third portion and the second portion each comprise at least one holding element for reversibly receiving blood tubing system elements, wherein the second portion is configured such that it ensures a defined distance between the areas of the first portion and the third portion connected thereto.
Transmission arrangement for a driven power tool having a rotationally and/or percussively driven tool that is attachable releasably to the power tool, comprising: - a driven shaft ; - a drive spindle for rotationally driving a releasably attached tool, wherein the drive spindle has a coaxial sprocket , and also - an intermediate shaft that is capable of transmitting a drive torque from the driven shaft to the drive spindle ; and - a countershaft having a coaxial gear wheel and a wobble drive device connected thereto for conjoint rotation, wherein the wobble drive device is capable of converting a rotary movement of the countershaft into a translational movement (T) and of transmitting the latter to the drive spindle for the percussive operation of the tool, characterized in that the intermediate shaft has a first gear wheel , which is able to be brought into engagement with the coaxial sprocket of the drive spindle , and a second gear wheel , which is able to be brought into engagement with the coaxial sprocket of the countershaft , wherein the first and the second gear wheel are arranged so as to be displaceable in an axial direction relative to the drive spindle and the countershaft . - a driven shaft ; - a drive spindle for rotationally driving a releasably attached tool, wherein the drive spindle has a coaxial sprocket , and also - an intermediate shaft that is capable of transmitting a drive torque from the driven shaft to the drive spindle ; and - a countershaft having a coaxial gear wheel and a wobble drive device connected thereto for conjoint rotation, wherein the wobble drive device is capable of converting a rotary movement of the countershaft into a translational movement (T) and of transmitting the latter to the drive spindle for the percussive operation of the tool,
A method for fabricating a curved preform of fiber reinforced material , the method comprising: laying up multiple plies onto a carrier of flexible material at a lamination station ; loading the carrier onto a rail system ; routing the carrier to a particular Ply-By-Ply, PBP, forming station at the rail system based on a characteristic of at least one ply carried by the carrier ; separating the at least one ply from the carrier ; making the at least one ply into the curved preform via the particular PBP forming station ; and routing the carrier to different ones of PBP forming stations at the rail system based on the characteristic of at least one ply carried by the carrier . laying up multiple plies onto a carrier of flexible material at a lamination station ; loading the carrier onto a rail system ; routing the carrier to a particular Ply-By-Ply, PBP, forming station at the rail system based on a characteristic of at least one ply carried by the carrier ; separating the at least one ply from the carrier ; making the at least one ply into the curved preform via the particular PBP forming station ; and routing the carrier to different ones of PBP forming stations at the rail system based on the characteristic of at least one ply carried by the carrier .
A semiautomatic apparatus for surface treatment with a laser source of items of clothing (C), e.g. denim jeans, wherein the items (C) have front (SF), rear (SB) and side (SL) surfaces, which apparatus comprises: - support means for supporting the items (C) rotatable about substantially vertical axes (Y1, Y2); - movement means for moving said support means about said vertical axes (Y1, Y2); - laser means for surface treatment of the items (C); wherein said laser means comprise at least one first and one second laser generators for directing laser beams (B1, B2) respectively to the front surface (SF), the rear surface (SB) and/or the side surfaces (SL) of the items (C) to be treated; characterized in that said support means comprise multiple arms configured to move from a loading/unloading station of an item (C) to be treated/being treated to two work stations of the items (C) to be treated which are simultaneously facing said generators , a passage being provided to allow an operator to access to said loading/unloading station , said first and said second generators being placed on opposite sides of said passage to avoid any interference of the laser beams (B1, B2) generated by said generators with the operator upon access thereof to said loading/unloading station . - support means for supporting the items (C) rotatable about substantially vertical axes (Y1, Y2); - movement means for moving said support means about said vertical axes (Y1, Y2); - laser means for surface treatment of the items (C); wherein said laser means comprise at least one first and one second laser generators for directing laser beams (B1, B2) respectively to the front surface (SF), the rear surface (SB) and/or the side surfaces (SL) of the items (C) to be treated; characterized in that said support means comprise multiple arms configured to move from a loading/unloading station of an item (C) to be treated/being treated to two work stations of the items (C) to be treated which are simultaneously facing said generators , a passage being provided to allow an operator to access to said loading/unloading station , said first and said second generators being placed on opposite sides of said passage to avoid any interference of the laser beams (B1, B2) generated by said generators with the operator upon access thereof to said loading/unloading station .
A method of fabricating a through substrate via, comprising: defining a through substrate via cavity in a semiconductor substrate; depositing an isolation layer within the through substrate via cavity and outside of the through substrate via cavity; depositing a photoresist on the through substrate via cavity; etching the isolation layer outside of the through substrate via cavity; removing the photoresist that covers the through substrate via cavity; filling the through substrate via cavity with a conductive material; and chemical mechanical over-polishing the isolation layer outside of the through substrate via cavity to expose middle-of-line layers. defining a through substrate via cavity in a semiconductor substrate; depositing an isolation layer within the through substrate via cavity and outside of the through substrate via cavity; depositing a photoresist on the through substrate via cavity; etching the isolation layer outside of the through substrate via cavity; removing the photoresist that covers the through substrate via cavity; filling the through substrate via cavity with a conductive material; and chemical mechanical over-polishing the isolation layer outside of the through substrate via cavity to expose middle-of-line layers.
A beverage maker comprising • a water inlet that is connectable to the drinking water network or a water tank, • a first water path running from the water inlet into the beverage maker , • a second water path branching off from the first water path , the water from the first water path and the water from the second water path being able to be transferred via a junction into a third water path for mixing the water, • at least one filter unit for water softening arranged in the first water path , • at least one heating device for heating water arranged in the third water path , • at least one flow regulator (9, 9', 9") arranged in the first and/or second water path and/or at the junction of the first and second water path , • at least one flow meter (10, 10', 10") arranged in the first and/or second and/or third water path and • at least one control unit for setting the mixing ratio of the water in the third water path . • a water inlet that is connectable to the drinking water network or a water tank, • a first water path running from the water inlet into the beverage maker , • a second water path branching off from the first water path , the water from the first water path and the water from the second water path being able to be transferred via a junction into a third water path for mixing the water, • at least one filter unit for water softening arranged in the first water path , • at least one heating device for heating water arranged in the third water path , • at least one flow regulator (9, 9', 9") arranged in the first and/or second water path and/or at the junction of the first and second water path , • at least one flow meter (10, 10', 10") arranged in the first and/or second and/or third water path and • at least one control unit for setting the mixing ratio of the water in the third water path .
An optical system, comprising: a glass light pipe extending from an input surface for receiving light from a light source to an output surface through which the light exits the light pipe; a separate polymeric light-shaping element having an input surface being optically coupled to the output surface of the glass light pipe so as to receive at least a portion of the light exiting the glass light pipe and an output surface through which light exits the light-shaping element, wherein at least one of the input and the output surface of the light-shaping element comprises a textured surface ; and a projection lens optically coupled to the output surface of the light-shaping element to receive light therefrom. a glass light pipe extending from an input surface for receiving light from a light source to an output surface through which the light exits the light pipe; a separate polymeric light-shaping element having an input surface being optically coupled to the output surface of the glass light pipe so as to receive at least a portion of the light exiting the glass light pipe and an output surface through which light exits the light-shaping element, wherein at least one of the input and the output surface of the light-shaping element comprises a textured surface ; and a projection lens optically coupled to the output surface of the light-shaping element to receive light therefrom.
Valve positioner for process control valves, the valve positioner having: a housing , pneumatic components within the housing , a pressure supply input channel , at least one pressure outlet channel (146; 148), and a filter member disposed between the pressure supply input channel of the connection bar and the pressure supply input channel of the housing ; wherein internal threads are provided at the pressure supply input channel and at the at least one pressure outlet channel (146; 148), characterized in that the valve positioner further comprises a connection bar comprising the internal threads so that the filter member can be easily assembled and replaced. a housing , pneumatic components within the housing , a pressure supply input channel , at least one pressure outlet channel (146; 148), and a filter member disposed between the pressure supply input channel of the connection bar and the pressure supply input channel of the housing ; wherein internal threads are provided at the pressure supply input channel and at the at least one pressure outlet channel (146; 148),
An electronic device comprising: a housing including a rear plate ; a printed circuit board disposed in the housing ; a conductive pattern unit disposed in the housing and including a conductive pattern ; an characterised by a base member extending substantially parallel to the rear plate , wherein the base member further comprises an area in which the conductive pattern is formed, wherein the base member comprises: a first part having an opening formed thereon, and a second part including a bent portion and a contact point portion , the bent portion being bendable and extending from the first part into the opening , the contact point portion providing an electrical contact point with the printed circuit board . a housing including a rear plate ; a printed circuit board disposed in the housing ; a conductive pattern unit disposed in the housing and including a conductive pattern ; an characterised by a base member extending substantially parallel to the rear plate , wherein the base member further comprises an area in which the conductive pattern is formed, wherein the base member comprises: a first part having an opening formed thereon, and a second part including a bent portion and a contact point portion , the bent portion being bendable and extending from the first part into the opening , the contact point portion providing an electrical contact point with the printed circuit board . a first part having an opening formed thereon, and a second part including a bent portion and a contact point portion , the bent portion being bendable and extending from the first part into the opening , the contact point portion providing an electrical contact point with the printed circuit board .
A transmission apparatus , comprising: a re-arrangement processing section adapted to rearrange transmission data into an information word; an error correction code calculation section adapted to calculate an error correction code based on the information word and to add the error correction code to the information word to produce a codeword which comprises a plurality of coded data; a division section adapted to allocate each of a plurality of portions of the plurality of coded data of the codeword to a different transmission line of a plurality of transmission lines in an order in which the coded data are supplied from the error correction code calculation section; and a plurality of transmission sections , corresponding to the plurality of transmission lines, wherein each transmission section of the plurality of transmission sections transmits the allocated plurality of coded data to a reception apparatus through the corresponding transmission line of the plurality of transmission lines. a re-arrangement processing section adapted to rearrange transmission data into an information word; an error correction code calculation section adapted to calculate an error correction code based on the information word and to add the error correction code to the information word to produce a codeword which comprises a plurality of coded data; a division section adapted to allocate each of a plurality of portions of the plurality of coded data of the codeword to a different transmission line of a plurality of transmission lines in an order in which the coded data are supplied from the error correction code calculation section; and a plurality of transmission sections , corresponding to the plurality of transmission lines, wherein each transmission section of the plurality of transmission sections transmits the allocated plurality of coded data to a reception apparatus through the corresponding transmission line of the plurality of transmission lines.
A proton-conductive cell structure comprising an air electrode, a hydrogen electrode, and a solid electrolyte layer disposed between the air electrode and the hydrogen electrode, wherein the solid electrolyte layer at least includes a first solid electrolyte layer formed of a compact material, the first solid electrolyte layer includes a metal oxide having a perovskite structure and represented by Formula below: Ba x1 Sr x2 A 1-y M y O 3-δ (where Element A is at least one selected from the group consisting of Zr, Ce, and Hf, Element M is at least one selected from the group consisting of Y, Yb, Er, Ho, Tm, Gd, In, and Sc, δ is an oxygen deficiency, and 0.95 ≤ x1 + x2 ≤ 1.10 and 0 < y ≤ 0.5 are satisfied) in an air-electrode-side near-surface region of the first solid electrolyte layer, a ratio of Sr to a total amount of Ba and Sr (Sr/[Ba + Sr]: based on a number of atoms) is 0.4 or more, and in a hydrogen-electrode-side near-surface region of the first solid electrolyte layer, the ratio of Sr to the total amount of Ba and Sr (Sr/[Ba + Sr]) is 0.003 to 0.3. wherein the solid electrolyte layer at least includes a first solid electrolyte layer formed of a compact material, the first solid electrolyte layer includes a metal oxide having a perovskite structure and represented by Formula below: Ba x1 Sr x2 A 1-y M y O 3-δ (where Element A is at least one selected from the group consisting of Zr, Ce, and Hf, Element M is at least one selected from the group consisting of Y, Yb, Er, Ho, Tm, Gd, In, and Sc, δ is an oxygen deficiency, and 0.95 ≤ x1 + x2 ≤ 1.10 and 0 < y ≤ 0.5 are satisfied) in an air-electrode-side near-surface region of the first solid electrolyte layer, a ratio of Sr to a total amount of Ba and Sr (Sr/[Ba + Sr]: based on a number of atoms) is 0.4 or more, and in a hydrogen-electrode-side near-surface region of the first solid electrolyte layer, the ratio of Sr to the total amount of Ba and Sr (Sr/[Ba + Sr]) is 0.003 to 0.3. (where Element A is at least one selected from the group consisting of Zr, Ce, and Hf, Element M is at least one selected from the group consisting of Y, Yb, Er, Ho, Tm, Gd, In, and Sc, δ is an oxygen deficiency, and 0.95 ≤ x1 + x2 ≤ 1.10 and 0 < y ≤ 0.5 are satisfied) in an air-electrode-side near-surface region of the first solid electrolyte layer, a ratio of Sr to a total amount of Ba and Sr (Sr/[Ba + Sr]: based on a number of atoms) is 0.4 or more, and in a hydrogen-electrode-side near-surface region of the first solid electrolyte layer, the ratio of Sr to the total amount of Ba and Sr (Sr/[Ba + Sr]) is 0.003 to 0.3.
A method for switching a device (210; 260) to a machine type communication, MTC, coverage enhancement mode on a network, the method comprising: determining a signal quality for a signal from the network; determining the signal quality is below a threshold quality level for using Long-Term Evolution, LTE, protocol to communicate with the network over an LTE connection to the network; in response to determining the signal quality is below the threshold quality level, switching the device to the MTC coverage enhancement mode and communicating with the network using MTC specification of the LTE protocol over the LTE connection to the network, wherein the device comprises a non-MTC device including functionality for utilizing the MTC coverage enhancement mode, wherein a coverage area associated with the MTC coverage enhancement mode is greater than a coverage area associated with the LTE protocol. determining a signal quality for a signal from the network; determining the signal quality is below a threshold quality level for using Long-Term Evolution, LTE, protocol to communicate with the network over an LTE connection to the network; in response to determining the signal quality is below the threshold quality level, switching the device to the MTC coverage enhancement mode and communicating with the network using MTC specification of the LTE protocol over the LTE connection to the network, wherein the device comprises a non-MTC device including functionality for utilizing the MTC coverage enhancement mode, wherein a coverage area associated with the MTC coverage enhancement mode is greater than a coverage area associated with the LTE protocol.