mhurhangee/ep-ind-claims huggingface dataset:
An audio data transmission method, executed by a sending end, characterized in that, the method comprises: parsing input audio data to be processed, and obtaining, for the audio data to be processed, a frequency of sampling, a number of slots and an original bit width of audio data of each slot; determining the frequency of sampling as a clock frequency of a first clock signal; determining a clock frequency of a second clock signal according to the clock frequency of the first clock signal, the number of slots and a preset audio data occupying bit width; determining a duration of a high level of the first clock signal in each cycle of the first clock signal according to the clock frequency of the second clock signal and the number of slots; performing data bit width conversion on audio data having the original bit width of each slot in the audio data to be processed according to a preset alignment manner and the preset audio data occupying bit width, and obtaining processed audio data, wherein the original bit width is less than or equal to the preset audio data occupying bit width; and outputting the processed audio data according to a pulse code modulation, PCM, timing determined by the clock frequency of the first clock signal, the clock frequency of the second clock signal and the duration of the high level in each cycle of the first clock signal. parsing input audio data to be processed, and obtaining, for the audio data to be processed, a frequency of sampling, a number of slots and an original bit width of audio data of each slot; determining the frequency of sampling as a clock frequency of a first clock signal; determining a clock frequency of a second clock signal according to the clock frequency of the first clock signal, the number of slots and a preset audio data occupying bit width; determining a duration of a high level of the first clock signal in each cycle of the first clock signal according to the clock frequency of the second clock signal and the number of slots; performing data bit width conversion on audio data having the original bit width of each slot in the audio data to be processed according to a preset alignment manner and the preset audio data occupying bit width, and obtaining processed audio data, wherein the original bit width is less than or equal to the preset audio data occupying bit width; and outputting the processed audio data according to a pulse code modulation, PCM, timing determined by the clock frequency of the first clock signal, the clock frequency of the second clock signal and the duration of the high level in each cycle of the first clock signal.
High-side switch for supplying current to at least one sensor, comprising: - two connections (1, 2); - a current path, via which the connections (1, 2) are electrically conductively connected to one another, and within which a measuring transistor and at least two resistors are connected in series with one another, wherein the high-side switch also comprises: - a power transistor that is connected in parallel with the current path, - a comparator having: two inputs (31, 32), of which one is fixedly connected to the current path and one can be variably connected to the current path in such a way that the number of resistors located between the connecting points of the inputs (31, 32) to the current path can be changed, one output that is electrically conductively connected to the control input of the measuring transistor and of the power transistor, wherein a first calibratable current source is electrically conductively connected to the control input of the measuring transistor, characterized in that the first calibratable current source is designed to compensate for an error voltage, resulting on account of the negative feedback of the resistors at the control input of the power transistor, by switching a first compensation current to the control input of the measuring transistor. - two connections (1, 2); - a current path, via which the connections (1, 2) are electrically conductively connected to one another, and within which a measuring transistor and at least two resistors are connected in series with one another, - a power transistor that is connected in parallel with the current path, - a comparator having: two inputs (31, 32), of which one is fixedly connected to the current path and one can be variably connected to the current path in such a way that the number of resistors located between the connecting points of the inputs (31, 32) to the current path can be changed, one output that is electrically conductively connected to the control input of the measuring transistor and of the power transistor, wherein a first calibratable current source is electrically conductively connected to the control input of the measuring transistor, characterized in that the first calibratable current source is designed to compensate for an error voltage, resulting on account of the negative feedback of the resistors at the control input of the power transistor, by switching a first compensation current to the control input of the measuring transistor.
A conveyor system, comprising - two frame profiles (2, 3) which run such that they are spaced apart from one another, - a plurality of motorized conveyor rollers arranged in between, - an insulator which runs along the at least one frame profile and - a plurality of electric conductors which are arranged in the insulator and are electrically connected to drive electronics of the conveyor rollers, wherein the form factor f of an electric conductor, which is defined as a quotient of the circumference of a circle which is equivalent in area to the cross section of the electric conductor and of the circumference of said cross section of the electric conductor, is in the range of from f= 0.88 to f=1.00, and - a connection box which is disposed separately from the conveyor roller, characterized in that the insulator comprises a plurality of receptacles which are open on the longitudinal side and one electric conductor is mounted in each receptacle, and the connection box is equipped with contacts which lie on the electric conductors in a spring-loaded and punctiform, linear or flat manner to establish an electrical connection to the drive electronics of the conveyor roller. - two frame profiles (2, 3) which run such that they are spaced apart from one another, - a plurality of motorized conveyor rollers arranged in between, - an insulator which runs along the at least one frame profile and - a plurality of electric conductors which are arranged in the insulator and are electrically connected to drive electronics of the conveyor rollers, wherein the form factor f of an electric conductor, which is defined as a quotient of the circumference of a circle which is equivalent in area to the cross section of the electric conductor and of the circumference of said cross section of the electric conductor, is in the range of from f= 0.88 to f=1.00, and - a connection box which is disposed separately from the conveyor roller, characterized in that
A method of forming a MEMS device, comprising: depositing an organic based sacrificial layer over an electrode; depositing a silicon rich layer comprising silicon oxide over the organic based sacrificial layer with a silicon containing gas and an oxygen containing gas, wherein the silicon rich layer has an amount of silicon greater than a stoichiometric silicon layer; depositing a dielectric layer comprising silicon oxide over the silicon rich layer, wherein a ratio of silicon containing gas to oxygen containing gas is higher when depositing the silicon rich layer as compared to depositing the dielectric layer; forming a movable plate on the dielectric layer, wherein the movable plate comprises an electrically conductive material; and removing the organic based sacrificial layer. depositing an organic based sacrificial layer over an electrode; depositing a silicon rich layer comprising silicon oxide over the organic based sacrificial layer with a silicon containing gas and an oxygen containing gas, wherein the silicon rich layer has an amount of silicon greater than a stoichiometric silicon layer; depositing a dielectric layer comprising silicon oxide over the silicon rich layer, wherein a ratio of silicon containing gas to oxygen containing gas is higher when depositing the silicon rich layer as compared to depositing the dielectric layer; forming a movable plate on the dielectric layer, wherein the movable plate comprises an electrically conductive material; and removing the organic based sacrificial layer.
A printing apparatus comprising: a data reading unit configured to read data from a storage device that can store pieces of data, the data reading unit being connectable to the storage device; an input panel configured to accept an input password used to decrypt encrypted data stored in the storage device; a password storing unit configured to store the input password; a first decrypting unit configured to decrypt the encrypted data by using the stored password; and a printer section configured to print out the decrypted data; a decrypted data storing unit configured to temporarily store the decrypted data, characterised by further comprising: a second decrypting unit configured to decrypt other encrypted data stored in the storage device by using the stored password, the printer section being configured to print out the other decrypted data, and in that: said printing apparatus is configured so that said storage device can be connected to or disconnected from the printing apparatus while the printing apparatus is operating. a data reading unit configured to read data from a storage device that can store pieces of data, the data reading unit being connectable to the storage device; an input panel configured to accept an input password used to decrypt encrypted data stored in the storage device; a password storing unit configured to store the input password; a first decrypting unit configured to decrypt the encrypted data by using the stored password; and a printer section configured to print out the decrypted data; a decrypted data storing unit configured to temporarily store the decrypted data, characterised by further comprising: a second decrypting unit configured to decrypt other encrypted data stored in the storage device by using the stored password, the printer section being configured to print out the other decrypted data, and in that: said printing apparatus is configured so that said storage device can be connected to or disconnected from the printing apparatus while the printing apparatus is operating.
Method to produce a lollipop with a lollipop head (4.1), wherein a mass is formed into a flat lollipop head (4.1) in a forming apparatus into which a stick (4.2) is inserted, wherein the lollipop is handed over to transportation means (2, 3) with grippers (6, 7), which grip the stick (4.2) of the lollipop and transport the lollipop away, characterized in that the lollipop head (4.1) is much larger in two dimensions, the x- and y-direction, than in a third dimension, the z-dimension and that the lollipop is transported by a transportation chain with the x- and y-direction parallel to a horizontal plane, wherein after handover and during transportation, the stick of the lollipop is always clamped by a gripper such that the lollipop cannot rotate.
Suspension concentrate comprising - from 1 to 60 % by weight of imidacloprid or thiacloprid, - from 1 to 50 % by weight of at least one penetrant from the class of the polyalkoxytriglycerides obtainable by ethoxylation of rapeseed oil, the degree of etholylation being from 60 to 80 % by weight, - from 1 to 25 % by weight of at least one adjuvant from the group of the polyglycerols or polyglycerol derivatives obtainable by copolymerization of a) glycerol, b) phthalic acid and c) coco acid, - from 1 to 20 % by weight of at least one nonionic and/or at least one anionic surfactant, - from 0.1 to 25 % by weight of additives from the groups of the antifoams, the preservatives, the antioxidants, the spreading agents, the colorants and/or the thickeners. - from 1 to 60 % by weight of imidacloprid or thiacloprid, - from 1 to 50 % by weight of at least one penetrant from the class of the polyalkoxytriglycerides obtainable by ethoxylation of rapeseed oil, the degree of etholylation being from 60 to 80 % by weight, - from 1 to 25 % by weight of at least one adjuvant from the group of the polyglycerols or polyglycerol derivatives obtainable by copolymerization of a) glycerol, b) phthalic acid and c) coco acid, - from 1 to 20 % by weight of at least one nonionic and/or at least one anionic surfactant, - from 0.1 to 25 % by weight of additives from the groups of the antifoams, the preservatives, the antioxidants, the spreading agents, the colorants and/or the thickeners.
A mobile communication device, comprising: a wireless module adapted to perform wireless transmissions and receptions to and from a first Public Land Mobile Network, PLMN, and a second PLMN; and a controller module adapted to perform a signaling procedure with the first PLMN using a first wireless technology via the wireless module, wherein the signaling procedure is an attach procedure, a location update procedure, a routing area update procedure or a tracking area update procedure; characterized in that: the controller module is furhter adapted to perform a PLMN selection procedure only for the first PLMN using a second wireless technology via the wireless module without retrying the signaling procedure with the first PLMN using the first wireless technology, in response to the signaling procedure being failed with a rejection cause indicating a network failure. a wireless module adapted to perform wireless transmissions and receptions to and from a first Public Land Mobile Network, PLMN, and a second PLMN; and a controller module adapted to perform a signaling procedure with the first PLMN using a first wireless technology via the wireless module, wherein the signaling procedure is an attach procedure, a location update procedure, a routing area update procedure or a tracking area update procedure; the controller module is furhter adapted to perform a PLMN selection procedure only for the first PLMN using a second wireless technology via the wireless module without retrying the signaling procedure with the first PLMN using the first wireless technology, in response to the signaling procedure being failed with a rejection cause indicating a network failure.
A vacuum pump comprising: a rotor that is rotated to perform evacuation; a pump disassembly detection circuit that detects a disassembled state in which the vacuum pump is disassembled; a pump operation prohibition circuit that prohibits rotary drive of the rotor when the pump operation prohibition circuit determines that the pump disassembly detection circuit has detected the disassembled state; a pump unit that includes the rotor and performs evacuation; and a control unit that is separably fixed to the pump unit and performs drive control of the pump unit including the rotary drive of the rotor, characterised in that the pump disassembly detection circuit detects the disassembled state when the control unit is separated from the pump unit. a rotor that is rotated to perform evacuation; a pump disassembly detection circuit that detects a disassembled state in which the vacuum pump is disassembled; a pump operation prohibition circuit that prohibits rotary drive of the rotor when the pump operation prohibition circuit determines that the pump disassembly detection circuit has detected the disassembled state; a pump unit that includes the rotor and performs evacuation; and a control unit that is separably fixed to the pump unit and performs drive control of the pump unit including the rotary drive of the rotor, characterised in that the pump disassembly detection circuit detects the disassembled state when the control unit is separated from the pump unit.
A smoke detector for an air duct, comprises a sampling space in fluid communication with the air duct and a photoelectric detection system, wherein the sampling space is enclosed by a removable sampling space enclosure having an optic window, and the photoelectric detection system is located adjacent to the optic window; characterized in that: at least a portion of the removable sampling space enclosure is removable without removing the photoelectric detection system.
An epoxy resin composition, comprising an epoxy resin having a structure represented by formula described below (hereinafter, referred to as an "epoxy resin ") and an epoxy resin having a structure represented by formula described below (hereinafter, referred to as an "epoxy resin ") and/or an epoxy resin having a structure represented by formula described below (hereinafter, referred to as an "epoxy resin "), 89.0% to 99.9% by mass of the epoxy resin and 0.1% to 11.0% by mass of the epoxy resin and/or the epoxy resin being contained in 100% by mass of a total of the epoxy resin and the epoxy resin and/or the epoxy resin, where in formulae,, and, each X is a direct bond or a divalent linking group selected from -SO 2 -, -O-, -CO-, -C(CF 3) 2 -, -S-, and a hydrocarbon group having 1 to 20 carbon atoms, R 1 's are each a hydrogen atom, a hydrocarbon group having 1 to 10 carbon atoms, or a halogen element and are optionally the same or different, two R 1 's bonded to two adjacent carbon atoms of one of cyclohexane rings are optionally taken together to form a ring structure having 4 to 20 carbon atoms, and n is an integer of 0 to 2.
Method of delivering regulating power for an electric energy supply network with a plurality of energy generators, a plurality of energy consumers and a centralised control unit, wherein the method comprises the following steps: providing an overall energy storage device, consisting of a plurality of economic units couplable to the electric energy supply network with in each case at least one energy storage device and in each case at least one decentralised control unit; determining an individual instantaneous power and an individual maximum power of the at least one energy storage device for each of the economic units, at a frequency, through the at least one decentralised control unit; determining, through the centralised control unit, an individual power potential in each case for each of the economic units as the difference of the individual maximum power and the individual instantaneous power; assigning an individual power for a time period, through the centralised control unit, in each case for each of the economic units, wherein in each case the amount of the individual power is smaller than or equal to the amount of the individual power potential, and wherein the total of the individual powers and a power reserve is identical to a first total power for regulating power; reserving, through each of the economic units for the time period, the individual power for regulating power. providing an overall energy storage device, consisting of a plurality of economic units couplable to the electric energy supply network with in each case at least one energy storage device and in each case at least one decentralised control unit; determining an individual instantaneous power and an individual maximum power of the at least one energy storage device for each of the economic units, at a frequency, through the at least one decentralised control unit; determining, through the centralised control unit, an individual power potential in each case for each of the economic units as the difference of the individual maximum power and the individual instantaneous power; assigning an individual power for a time period, through the centralised control unit, in each case for each of the economic units, wherein in each case the amount of the individual power is smaller than or equal to the amount of the individual power potential, and wherein the total of the individual powers and a power reserve is identical to a first total power for regulating power; reserving, through each of the economic units for the time period, the individual power for regulating power.
A telescopic column, comprising at least a first (110a, 110c) and a second telescopic tube telescopically movable relative to each other, and a driving arrangement extending through the first and the second telescopic tubes (110a, 110b, 110c) wherein the telescopic column further comprises: a first static stabilizing device (16a, 16c); a second static stabilizing device (16b, 16d); and a mobile stabilizing device (10a, 10b); wherein the first and the second stabilizing devices are arranged axially separated at a fixed axial distance from each other, radially between and in contact with the first and a second tube, providing a bearing function therebetween; wherein the mobile stabilizing device is arranged in an inner space of the first tube and in contact with an inner surface of the first tube and the driving arrangement, and wherein the mobile stabilizing device is axially movable in relation to the first and second static stabilizing devices, and in relation to the first tube and the driving arrangement, during extension and retraction of the telescopic column. comprising at least a first (110a, 110c) and a second telescopic tube telescopically movable relative to each other, and a driving arrangement extending through the first and the second telescopic tubes (110a, 110b, 110c) wherein the telescopic column further comprises: a first static stabilizing device (16a, 16c); a second static stabilizing device (16b, 16d); and a mobile stabilizing device (10a, 10b); wherein the first and the second stabilizing devices are arranged axially separated at a fixed axial distance from each other, radially between and in contact with the first and a second tube, providing a bearing function therebetween; wherein the mobile stabilizing device is arranged in an inner space of the first tube and in contact with an inner surface of the first tube and the driving arrangement, and wherein the mobile stabilizing device is axially movable in relation to the first and second static stabilizing devices, and in relation to the first tube and the driving arrangement, during extension and retraction of the telescopic column. a first static stabilizing device (16a, 16c); a second static stabilizing device (16b, 16d); and a mobile stabilizing device (10a, 10b); wherein the first and the second stabilizing devices are arranged axially separated at a fixed axial distance from each other, radially between and in contact with the first and a second tube, providing a bearing function therebetween; wherein the mobile stabilizing device is arranged in an inner space of the first tube and in contact with an inner surface of the first tube and the driving arrangement, and wherein the mobile stabilizing device is axially movable in relation to the first and second static stabilizing devices, and in relation to the first tube and the driving arrangement, during extension and retraction of the telescopic column.