mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing a Master Information Block, MIB, message of a Long-Term Evolution, LTE, system message, performed by a base station, the method comprising: acquiring re-establishment information for LTE terminals, access quantity information for LTE terminals, and access quantity information for enhanced Machine Type Communication, eMTC, terminals in a cell (S101); determining a sending quantity of MIB messages for LTE terminals on a preset subframe comprising subframe #0 according to the re-establishment information for LTE terminals, the access quantity information for LTE terminals, and the access quantity information for eMTC terminals (S102); and sending the MIB messages for LTE terminals on subframe #0 in accordance with the determined sending quantity whereby in the MIB messages for the LTE terminals, the schedulingInfoSIB1-BR-r13 field is set to 0. acquiring re-establishment information for LTE terminals, access quantity information for LTE terminals, and access quantity information for enhanced Machine Type Communication, eMTC, terminals in a cell (S101); determining a sending quantity of MIB messages for LTE terminals on a preset subframe comprising subframe #0 according to the re-establishment information for LTE terminals, the access quantity information for LTE terminals, and the access quantity information for eMTC terminals (S102); and sending the MIB messages for LTE terminals on subframe #0 in accordance with the determined sending quantity whereby in the MIB messages for the LTE terminals, the schedulingInfoSIB1-BR-r13 field is set to 0.
A device for a valve comprising a fixed part (2; 6) provided with at least one fluid port (214; 634) and a rotatable sleeve (3; 7) provided with at least one bore (33; 72), wherein: - the sleeve (3; 7) is structured in a manner allowing it to rotate the bore (33; 72) in-line with the fluid port (214; 634) in order to allow a fluid to flow through the fluid port (214; 634) and the bore (33; 72) when the sleeve (3; 7) is in an open position; - the sleeve (3; 7) is structured in a manner allowing it to rotate the bore (33; 72) away from the fluid port (214; 634) in order not to allow a fluid to flow through the fluid port (214; 634) when the sleeve (3; 7) is in a closed position; - the fixed part (2; 6) and the sleeve (3; 7) form an annulus (92; 94) between the fixed part (2; 8) and the sleeve (3; 7); and - the annulus (92; 94) is restricted axially by two circumferential ring shaped packer elements (37; 69) in the axial directions of the sleeve (3; 7) and the fixed part (2; 6), wherein one of the two packer elements (37; 69) is located at one side of the at least one fluid port (214; 634), and the other of the two packer elements (37; 69) is located at the opposite side of the at least one fluid port (214; 634), characterzed in that the annulus (92; 94) is adapted to be filled with fluid from the fluid port (214; 634) of the fixed part (2; 6). - the sleeve (3; 7) is structured in a manner allowing it to rotate the bore (33; 72) in-line with the fluid port (214; 634) in order to allow a fluid to flow through the fluid port (214; 634) and the bore (33; 72) when the sleeve (3; 7) is in an open position; - the sleeve (3; 7) is structured in a manner allowing it to rotate the bore (33; 72) away from the fluid port (214; 634) in order not to allow a fluid to flow through the fluid port (214; 634) when the sleeve (3; 7) is in a closed position; - the fixed part (2; 6) and the sleeve (3; 7) form an annulus (92; 94) between the fixed part (2; 8) and the sleeve (3; 7); and - the annulus (92; 94) is restricted axially by two circumferential ring shaped packer elements (37; 69) in the axial directions of the sleeve (3; 7) and the fixed part (2; 6), wherein one of the two packer elements (37; 69) is located at one side of the at least one fluid port (214; 634), and the other of the two packer elements (37; 69) is located at the opposite side of the at least one fluid port (214; 634), characterzed in that the annulus (92; 94) is adapted to be filled with fluid from the fluid port (214; 634) of the fixed part (2; 6).
Glass windbreaker consisting of a mobile part with a glass pane and a stable part with a glass pane , wherein each pane has vertical aluminum profiles (2, 2; 8, 8) on the right and left vertical sides only, wherein movement up and down of the mobile part is carried out by means of a piston of nitrogen gas with a rod inside the aluminum profiles of said mobile part, wherein said piston is mounted upside-down with its body facing up and the rod facing down, wherein the end of the rod comprises an extra part called an extra axis with an additional plastic rotary ring part which rotates freely and which, together with a first plastic accessory and a second plastic accessory positioned on the respective aluminum profile of said mobile part , allow the plastic rotary ring part either to be blocked inside the second plastic accessory , holding the rod compressed inside the piston and the glass windbreaker in a closed position, or allow the plastic rotary ring part to exit, releasing the rod from the compressed position inside the piston , thereby lifting the mobile part to an open position.
Furniture panel with - a base board , which is preferably in the form of a wood particleboard, HDF or MDF board, and - a polymeric laminate applied to the base board and preferably having a plurality of layers , - wherein at least the uppermost layer of the polymeric laminate which is remote from the base board is made transparent or translucent, - wherein the polymeric laminate comprises at least one profile element spaced apart from the edges of the base board which serves for visually configuring the furniture panel, characterised in that the profile element is arranged spaced apart from the laminate by way of at least one groove . - a base board , which is preferably in the form of a wood particleboard, HDF or MDF board, and - a polymeric laminate applied to the base board and preferably having a plurality of layers , - wherein at least the uppermost layer of the polymeric laminate which is remote from the base board is made transparent or translucent, - wherein the polymeric laminate comprises at least one profile element spaced apart from the edges of the base board which serves for visually configuring the furniture panel,
A tape cartridge detachably installed on a tape printing apparatus provided with a detection portion which detects attribute information of the tape cartridge installed on a cartridge installation portion on which the tape cartridge is installed, the tape cartridge comprising: a wound printing tape ; and a core shaft , wherein the core shaft is positioned at an inner peripheral side of the wound printing tape , the core shaft includes a detection object which faces the detection portion when the tape cartridge is installed on the tape printing apparatus , characterized in that the detection portion includes a plurality of conductive contacts connected to a detection circuit of binarized attribute information, the detection object has a wiring pattern substrate corresponding to the plurality of conductive contacts , and the detection object is provided in the inner periphery of the core shaft of the tape cartridge , wherein the detection object includes: a plurality of contact terminals including a contact portion coming in contact with the plurality of conductive contacts ; and a conductive/non-conductive wiring portion that is connected to the plurality of contact terminals . a wound printing tape ; and a core shaft , wherein the core shaft is positioned at an inner peripheral side of the wound printing tape , the core shaft includes a detection object which faces the detection portion when the tape cartridge is installed on the tape printing apparatus , characterized in that the detection portion includes a plurality of conductive contacts connected to a detection circuit of binarized attribute information, the detection object has a wiring pattern substrate corresponding to the plurality of conductive contacts , and the detection object is provided in the inner periphery of the core shaft of the tape cartridge , wherein the detection object includes: a plurality of contact terminals including a contact portion coming in contact with the plurality of conductive contacts ; and a conductive/non-conductive wiring portion that is connected to the plurality of contact terminals . a plurality of contact terminals including a contact portion coming in contact with the plurality of conductive contacts ; and a conductive/non-conductive wiring portion that is connected to the plurality of contact terminals .
Hydraulic control circuit for a hydraulic motor operable at least at two displacements, comprising a proportional speed control valve with a control valve spool continuously moveable by means of a force generated by a pilot pressure being controlled by a continuously, electrically adjustable pilot valve having an electrical actuator , wherein the control valve spool is moveable between: - a full-torque end position , - a reduced-torque end position , and - at least one intermediate position , wherein a time related control current function is provided for controlling the current (Y) applied to the electrical actuator for controlling the pilot pressure , wherein the control current function comprises: - a pre-current portion along a time span (T0) prior to a displacement switching command at a command time (Tc), during which pre-current portion a constant non-zero current (Y0) does not generate a pilot pressure level allowing the speed control valve spool to move out of one of its two end positions (32; 34); - a current ramp portion during a ramp time span (Tr) ending at a pre-set switching time (Ts) after the command time (Tc), wherein the current (Y) is raised or lowered continuously in that current ramp portion from a ramp starting current level (Y1) to an intermediate current level (Y2) and is changed abruptly to a switching current level (Y3) at the end of the current ramp portion for allowing by means of the pilot pressure the movement of the speed control valve spool from one of the two end positions via the at least one intermediate switching position into the other end position . - a full-torque end position , - a reduced-torque end position , and - at least one intermediate position , - a pre-current portion along a time span (T0) prior to a displacement switching command at a command time (Tc), during which pre-current portion a constant non-zero current (Y0) does not generate a pilot pressure level allowing the speed control valve spool to move out of one of its two end positions (32; 34); - a current ramp portion during a ramp time span (Tr) ending at a pre-set switching time (Ts) after the command time (Tc), wherein the current (Y) is raised or lowered continuously in that current ramp portion from a ramp starting current level (Y1) to an intermediate current level (Y2) and is changed abruptly to a switching current level (Y3) at the end of the current ramp portion for allowing by means of the pilot pressure the movement of the speed control valve spool from one of the two end positions via the at least one intermediate switching position into the other end position .
A cationic lipid represented by the formula in the formula , R 1a and R 1b are each independently an alkylene group or oxydialkylene group having not more than 8 carbon atoms, X a and X b are each independently an ester bond, an amide bond, a carbamate bond, or an ether bond, and R 2a and R 2b are each independently a sterol residue, a liposoluble vitamin residue, or an aliphatic hydrocarbon group having 13 - 23 carbon atoms. in the formula , R 1a and R 1b are each independently an alkylene group or oxydialkylene group having not more than 8 carbon atoms, X a and X b are each independently an ester bond, an amide bond, a carbamate bond, or an ether bond, and R 2a and R 2b are each independently a sterol residue, a liposoluble vitamin residue, or an aliphatic hydrocarbon group having 13 - 23 carbon atoms.
Chain lock for connecting two chain strands, having two U-shaped lock halves , which can be inserted into one another in a form-fitting manner, wherein a toothing is formed on the legs of the U shape, so that the lock halves are inserted into one another for locking perpendicular to the longitudinal direction of the chain lock , so that the legs of one lock half come into contact with the legs of the other lock half and a securing element is arranged between the inner sides of the inner legs , wherein the securing element is formed by two securing blocks , wherein each securing block is inserted from one side of the chain lock and both securing blocks have a total length (L), which corresponds essentially to the width (B) of the chain lock and securing pin arranged in the securing blocks connecting the latter in a form-fitting manner, characterised in that on the inside of the inner legs a flattened mounting surface for mounting the securing blocks is formed and in the mounting surface a projection is formed which extends in transverse direction (Q) of the chain lock , and in that each securing block has a flattened contact surface on two opposite sides, wherein in the contact surface a groove is formed which is recessed opposite the latter and the groove extends in transverse direction (Q) of the chain lock , wherein the projection engages in the manner of a guide rail in a form-fitting manner into the grooves of the securing blocks with an assembled and locked chain lock .
Method for cutting wavy human head hair, wherein the wave of the hair comprises wave troughs facing the head and wave peaks facing away from the head, wherein the hair is cut in a first cutting region of the wave form if the ends of the hair are intended to face away from the head after the cutting, and wherein the hair is cut in a second cutting region of the wave form if the ends of the hair are intended to face towards the head after the cutting, wherein the first cutting region is formed by a surrounding region of the highest point of the first wave peak , viewed from the hair root , and the second cutting region is formed by a surrounding region of the reversal point of the falling flank, facing away from the hair root , of the first wave peak viewed from the hair root, and wherein the first cutting region starts, proceeding from the hair root, at 38% of the distance from the hair root to the lowest point of the first wave trough , and/or ends at 39% of the distance from the hair root to the highest point of the second wave peak , and wherein the second cutting region starts, proceeding from the hair root, at 61% of the distance from the hair root to the lowest point of the first wave trough , and/or ends at 62% of the distance from the hair root to the highest point of the second wave peak .
Process for coating a metallic component part with a hard antiwear layer which is applied over at least part of the surface of the component part in at least one layer by a plasma process, characterized in that droplets deposited on the surface of the applied hard antiwear layer are mechanically removed and that subsequently a comparatively softer abradable layer is applied to the surface of the applied and mechanically treated antiwear layer , wherein the abradable layer is anchored into the microdents introduced into the antiwear layer surface as a result of the preceding mechanical processing step.
A method for manufacturing a photovoltaic device comprising: - forming a porous first conducting layer on one side of a porous insulating substrate , - coating the first conducting layer with a layer of grains of a doped semiconducting material to form a structure, - performing a first heat treatment of the structure to bond the grains to the first conducting layer, - forming electrically insulating layers on surfaces of the first conducting layer, - forming a second conducting layer on an opposite side of the porous insulating substrate , - applying a charge conducting material onto the surfaces of the grains, inside pores of the first conducting layer, and inside pores of the insulating substrate, and - electrically connecting the charge conducting material to the second conducting layer. - forming a porous first conducting layer on one side of a porous insulating substrate , - coating the first conducting layer with a layer of grains of a doped semiconducting material to form a structure, - performing a first heat treatment of the structure to bond the grains to the first conducting layer, - forming electrically insulating layers on surfaces of the first conducting layer, - forming a second conducting layer on an opposite side of the porous insulating substrate , - applying a charge conducting material onto the surfaces of the grains, inside pores of the first conducting layer, and inside pores of the insulating substrate, and - electrically connecting the charge conducting material to the second conducting layer.
Retaining device for a child seat that is arrangeable on a vehicle seat , having a crossmember , which is able to be fastened to side parts of the vehicle seat , wherein at least one bracket-like retaining element for the child seat is arranged on the crossmember , characterized in that the crossmember and the at least one retaining element are manufactured in one piece from plastic and exhibit at least one fibre reinforcement , and in that the fibre reinforcement is in the form of a fibre winding.
A waterborne coating composition comprising: (a) a base-neutralized carboxylic acid functional polyacrylate having a calculated Tg of greater than 50°C and that is a reaction product of reactants comprising: (a1) at least 50% by weight of a hardening vinyl aromatic monomer, based on the total weight of the reactants; (a2) a plasticizing ethylenically unsaturated monomer that does not include carboxylic acid or hydroxyl groups; and (a3) a carboxylic-acid functional ethylenically unsaturated monomer; and (b) a water-miscible polyaziridine, wherein the coating composition is free of any added isocyanate-functional compounds, wherein the glass transition temperature T g (in Kelvin) of a polyacrylate copolymer can be calculated as follows: 1 Tg = M 1 Tg 1 + M 2 Tg 2 + ... M n Tg n in which M 1 , M 2 , ... , M n are the mass fraction of monomers 1, 2, ..., n used to make the copolymer and Tg 1 , Tg 2 , ..., Tg n are the glass transition temperatures in Kelvin of a homopolymer of the monomers 1, 2, ..., n. (a) a base-neutralized carboxylic acid functional polyacrylate having a calculated Tg of greater than 50°C and that is a reaction product of reactants comprising: (a1) at least 50% by weight of a hardening vinyl aromatic monomer, based on the total weight of the reactants; (a2) a plasticizing ethylenically unsaturated monomer that does not include carboxylic acid or hydroxyl groups; and (a3) a carboxylic-acid functional ethylenically unsaturated monomer; and (a1) at least 50% by weight of a hardening vinyl aromatic monomer, based on the total weight of the reactants; (a2) a plasticizing ethylenically unsaturated monomer that does not include carboxylic acid or hydroxyl groups; and (a3) a carboxylic-acid functional ethylenically unsaturated monomer; and (b) a water-miscible polyaziridine, wherein the coating composition is free of any added isocyanate-functional compounds, wherein the glass transition temperature T g (in Kelvin) of a polyacrylate copolymer can be calculated as follows: 1 Tg = M 1 Tg 1 + M 2 Tg 2 + ... M n Tg n in which M 1 , M 2 , ... , M n are the mass fraction of monomers 1, 2, ..., n used to make the copolymer and Tg 1 , Tg 2 , ..., Tg n are the glass transition temperatures in Kelvin of a homopolymer of the monomers 1, 2, ..., n. wherein the coating composition is free of any added isocyanate-functional compounds, wherein the glass transition temperature T g (in Kelvin) of a polyacrylate copolymer can be calculated as follows: 1 Tg = M 1 Tg 1 + M 2 Tg 2 + ... M n Tg n in which M 1 , M 2 , ... , M n are the mass fraction of monomers 1, 2, ..., n used to make the copolymer and Tg 1 , Tg 2 , ..., Tg n are the glass transition temperatures in Kelvin of a homopolymer of the monomers 1, 2, ..., n.
A motor control device, comprising: an inverter configured to convert a DC voltage into an AC voltage to output three-phase terminal voltages; a motor to be driven by being applied with the three-phase terminal voltages from the inverter to generate an assist torque for assisting a driver in steering; a three-phase voltage command value calculation unit configured to calculate three-phase voltage command values for controlling the motor to be in a set state; an offset voltage calculation unit configured to calculate an offset voltage; and a modified three-phase voltage command value calculation unit configured to add the offset voltage equally to each phase of the three-phase voltage command values to output modified three-phase voltage command values, wherein the inverter is configured to output the three-phase terminal voltages based on comparison between each of the modified three-phase voltage command values and a PWM carrier wave, and wherein the offset voltage calculation unit is configured to periodically switch the offset voltage at a set time interval among n stored offset candidate voltages, n is a natural number of three or more, having different values to vary timings to turn on and timings to turn off the three-phase terminal voltages equally for all phases. an inverter configured to convert a DC voltage into an AC voltage to output three-phase terminal voltages; a motor to be driven by being applied with the three-phase terminal voltages from the inverter to generate an assist torque for assisting a driver in steering; a three-phase voltage command value calculation unit configured to calculate three-phase voltage command values for controlling the motor to be in a set state; an offset voltage calculation unit configured to calculate an offset voltage; and a modified three-phase voltage command value calculation unit configured to add the offset voltage equally to each phase of the three-phase voltage command values to output modified three-phase voltage command values, wherein the inverter is configured to output the three-phase terminal voltages based on comparison between each of the modified three-phase voltage command values and a PWM carrier wave, and wherein the offset voltage calculation unit is configured to periodically switch the offset voltage at a set time interval among n stored offset candidate voltages, n is a natural number of three or more, having different values to vary timings to turn on and timings to turn off the three-phase terminal voltages equally for all phases.