mhurhangee/ep-ind-claims huggingface dataset:
A computer readable storage medium having stored thereon an information processing program executed on a computer of an information processing apparatus which executes a process using acceleration data outputted from an acceleration sensor detecting acceleration along at least two axis directions applied to an input device, the information processing program causing the computer to function as: data obtaining means (10, S42) for repeatedly obtaining the acceleration data; acceleration vector generation means (10, S61, S62) for generating a first acceleration vector in accordance with first acceleration data obtained by the data obtaining means, and for generating a second acceleration vector in accordance with second acceleration data obtained by the data obtaining means time-sequentially following the first acceleration data; characterised in that the information processing program further causes the computer to function as: cross product direction calculation means (10, S63, S64) for calculating a direction of a cross product between the first acceleration vector and the second acceleration vector; and swing direction identification means (10, S82) for identifying a swing direction in which the input device is swung in accordance with the direction of the cross product. data obtaining means (10, S42) for repeatedly obtaining the acceleration data; acceleration vector generation means (10, S61, S62) for generating a first acceleration vector in accordance with first acceleration data obtained by the data obtaining means, and for generating a second acceleration vector in accordance with second acceleration data obtained by the data obtaining means time-sequentially following the first acceleration data; characterised in that the information processing program further causes the computer to function as: cross product direction calculation means (10, S63, S64) for calculating a direction of a cross product between the first acceleration vector and the second acceleration vector; and swing direction identification means (10, S82) for identifying a swing direction in which the input device is swung in accordance with the direction of the cross product. cross product direction calculation means (10, S63, S64) for calculating a direction of a cross product between the first acceleration vector and the second acceleration vector; and swing direction identification means (10, S82) for identifying a swing direction in which the input device is swung in accordance with the direction of the cross product.
A method of processing a digital audio signal for a mobile device, the method comprising: receiving an acoustic signal by at least one microphone; converting the received acoustic signal into the digital audio signal; extracting at least one auditory context information from the digital audio signal; in response to automatically detecting a start event indicator based on the extracted context information or further context information, performing an audio logging for the digital audio signal; and in response to automatically detecting an end event indicator, ending the audio logging. receiving an acoustic signal by at least one microphone; converting the received acoustic signal into the digital audio signal; extracting at least one auditory context information from the digital audio signal; in response to automatically detecting a start event indicator based on the extracted context information or further context information, performing an audio logging for the digital audio signal; and in response to automatically detecting an end event indicator, ending the audio logging.
A sampling device comprising a housing, wherein the housing comprises a chamber, at least an opening, an actuation means and a separate compartment, wherein the separate compartment is releasably retained within the housing by a retention means and wherein the actuation means enables an internal substance to be drawn in through the opening into the chamber and simultaneously pushes the separate compartment along the housing until the separate compartment is ejected from the housing of the sampling device, thereby creating an increased space or volume for receiving and storing a sample within the chamber of the sampling device, characterised in that the actuation means is tethered to a closure means and the movement of the actuation means results in the closure means blocking the opening.
An apparatus for forming a radial flange on a cylindrical component, comprising: a mold disposed for placement of the component thereon; a forming tool assembled to hold the component with a first portion extending into a space defined between the mold and the forming tool; and a tubular bladder disposed in a step defined in the mold and configured to impart a forming force to the portion extending into the space to form the flange on the component when the bladder is inflated, characterized in that the bladder has a non-uniform wall thickness around its cross section along a longitudinal dimension of the bladder, and the bladder is axisymmetric, and is disposed around the mold. a mold disposed for placement of the component thereon; a forming tool assembled to hold the component with a first portion extending into a space defined between the mold and the forming tool; and a tubular bladder disposed in a step defined in the mold and configured to impart a forming force to the portion extending into the space to form the flange on the component when the bladder is inflated, the bladder has a non-uniform wall thickness around its cross section along a longitudinal dimension of the bladder, and the bladder is axisymmetric, and is disposed around the mold.
A charging method comprising following steps: performing a first rectification on an input alternating current to output a first voltage with a first pulsating waveform; performing a voltage conversion and a second rectification on the first voltage, to acquire a second voltage with a second pulsating waveform, and the second voltage being used to charge a battery in a terminal; controlling the voltage conversion according to voltage/current information of the battery feedback by the terminal, to adjust a magnitude of the second voltage; being characterized by: communicating with the terminal to determine a charging mode, the charging mode comprising a first charging mode and a second charging mode, the second charging mode being configured to charge the battery in the terminal with the second voltage, the first charging mode being configured to charge the battery with a fourth voltage obtained by performing filtering on the second voltage; and when it is determined to charge the battery in the first charging mode, controlling a filter to perform the filtering on the second voltage to output the fourth voltage for charging the battery. performing a first rectification on an input alternating current to output a first voltage with a first pulsating waveform; performing a voltage conversion and a second rectification on the first voltage, to acquire a second voltage with a second pulsating waveform, and the second voltage being used to charge a battery in a terminal; controlling the voltage conversion according to voltage/current information of the battery feedback by the terminal, to adjust a magnitude of the second voltage; being characterized by: communicating with the terminal to determine a charging mode, the charging mode comprising a first charging mode and a second charging mode, the second charging mode being configured to charge the battery in the terminal with the second voltage, the first charging mode being configured to charge the battery with a fourth voltage obtained by performing filtering on the second voltage; and when it is determined to charge the battery in the first charging mode, controlling a filter to perform the filtering on the second voltage to output the fourth voltage for charging the battery. communicating with the terminal to determine a charging mode, the charging mode comprising a first charging mode and a second charging mode, the second charging mode being configured to charge the battery in the terminal with the second voltage, the first charging mode being configured to charge the battery with a fourth voltage obtained by performing filtering on the second voltage; and when it is determined to charge the battery in the first charging mode, controlling a filter to perform the filtering on the second voltage to output the fourth voltage for charging the battery.
A method of processing a split view in a portable device, the method comprising: displaying, by a display screen of a display unit, a plurality of applications as a split view corresponding to split display regions of the display unit; determining a first application of the plurality of applications, wherein the first application is an application calling for an input panel; displaying the input panel on a particular display region corresponding to a second application of the plurality of applications, wherein the particular display region is one of the split display regions of the display unit; and processing data input through the input panel by the first application. displaying, by a display screen of a display unit, a plurality of applications as a split view corresponding to split display regions of the display unit; determining a first application of the plurality of applications, wherein the first application is an application calling for an input panel; displaying the input panel on a particular display region corresponding to a second application of the plurality of applications, wherein the particular display region is one of the split display regions of the display unit; and processing data input through the input panel by the first application.
A manufacturing method of a semiconductor device including a pixel region in which one or more pixels are formed and a storage element region in which one or more storage elements for storing output signals from said pixels are formed wherein said pixel includes an imaging element and a storage section for temporarily holding a charge generated by said imaging element, comprising the step of: forming each of layers constituting said pixel region and said, storage element region in the same process; characterized in that a fuse for pixel for adjusting the voltage to be supplied to said pixel is formed; and a fuse for storage element for adjusting the voltage to be supplied to said storage element and said fuse for pixel are formed in the same process. forming each of layers constituting said pixel region and said, storage element region in the same process; characterized in that a fuse for pixel for adjusting the voltage to be supplied to said pixel is formed; and a fuse for storage element for adjusting the voltage to be supplied to said storage element and said fuse for pixel are formed in the same process.
Hydraulic steering system comprising a first steering circuit and a second steering circuit, each of said steering circuits (2a, 2b) comprising a steering device (3a, 3b) and a steering motor (4a, 4b) connected to said steering device (3a, 3b), each of said steering devices (3a, 3b) comprising a supply port arrangement having a high pressure port (Pa, Pb) and a low pressure port (Ta, Tb), a working port arrangement having two working ports (La, Ra; Lb, Rb) connected to said steering motor (4a, 4b), a control valve (5a, 5b), and a measuring motor (6a, 6b), wherein in each of said steering devices (3a, 3b) said measuring motor (6a, 6b) is arranged in a working line (19a, 20b) between said control valve (5a, 5b) and one of said working ports (La, Ra; Lb, Rb), characterized in that said control valves (5a, 5b) comprise a common control valve element arrangement (15a, 15b; 16a, 16b), the measuring motors (6a, 6b) being connected to a common sleeve of the common control valve element arrangement (15a, 15b; 16a, 16b) by means of a connection.
A propylene-based resin composition comprising 40 to 60 parts by mass of a propylene-based polymer having a melt flow rate (230°C, under a load of 2.16 kg) of more than 100 g/10 min and 130 g/10 min or less and having an amount of a n-decane-soluble part at 23°C of 5 to 25% by mass, wherein the ethylene content of the n-decane-soluble part is more than 40% by mass and 60% by mass or less, 5 to 20 parts by mass of a propylene homopolymer, more than 15 parts by mass and 40 parts by mass or less of an ethylene/α-olefin copolymer, 4 to 20 parts by mass of an ethylene/α-olefin/diene copolymer, and 0 part by mass or more and less than 36 parts by mass of an inorganic filler [providing that the total amount of the components,,, and is taken as 100 parts by mass]. 40 to 60 parts by mass of a propylene-based polymer having a melt flow rate (230°C, under a load of 2.16 kg) of more than 100 g/10 min and 130 g/10 min or less and having an amount of a n-decane-soluble part at 23°C of 5 to 25% by mass, wherein the ethylene content of the n-decane-soluble part is more than 40% by mass and 60% by mass or less, 5 to 20 parts by mass of a propylene homopolymer, more than 15 parts by mass and 40 parts by mass or less of an ethylene/α-olefin copolymer, 4 to 20 parts by mass of an ethylene/α-olefin/diene copolymer, and 0 part by mass or more and less than 36 parts by mass of an inorganic filler
A method for receiving packet data in a mobile communication system, the method comprising the steps of: sending first measurement information indicating an addition of a cell to an active set from a user equipment, UE, to a UMTS Terrestrial Radio Access Network, UTRAN; updating, by the UE, the active set under control of the UTRAN and performing a pre-configuration for a high speed downlink packet access, HSDPA, upon receiving from the UTRAN an active set update information including pre-configuration information for updating the active set and pre-configuring the cell for the HSDPA; sending second measurement information indicating a change of a serving cell to one of the active set cells from the UE to the UTRAN after the pre-configuration; monitoring a handover command for the HSDPA from the one of the active set cells using a limited control channel configuration in order to cause a handover by detecting the handover command; and receiving scheduling information from a source cell serving the UE using a complete control channel configuration; wherein the limited control channel configuration is using less control channel resources than the complete control channel configuration. sending first measurement information indicating an addition of a cell to an active set from a user equipment, UE, to a UMTS Terrestrial Radio Access Network, UTRAN; updating, by the UE, the active set under control of the UTRAN and performing a pre-configuration for a high speed downlink packet access, HSDPA, upon receiving from the UTRAN an active set update information including pre-configuration information for updating the active set and pre-configuring the cell for the HSDPA; sending second measurement information indicating a change of a serving cell to one of the active set cells from the UE to the UTRAN after the pre-configuration; monitoring a handover command for the HSDPA from the one of the active set cells using a limited control channel configuration in order to cause a handover by detecting the handover command; and receiving scheduling information from a source cell serving the UE using a complete control channel configuration; wherein the limited control channel configuration is using less control channel resources than the complete control channel configuration.
A battery pack, comprising: a) a frame; and b) two or more battery cells installed to the frame; the two or more battery cells interconnected by a rotatable connector which is configured to enable electrical connections between the two or more battery cells; wherein, the rotatable connector is adapted to be switched between at least a first rotational position in which the two or more battery cells being electrically connected, and a second rotational position, in which the two or more battery cells being not electrically connected. a) a frame; and b) two or more battery cells installed to the frame; the two or more battery cells interconnected by a rotatable connector which is configured to enable electrical connections between the two or more battery cells;
A method for producing a gas diffusion electrode, said method comprising the steps of coating a conductive web on at least one side thereof with a catalyst for oxygen reduction comprising a ruthenium sulphide chemically stable in a hydrochloric environment in the presence of dissolved chlorine, said catalyst being obtained by treating a conductive support consisting of carbon having a surface area exceeding 120 g/m 2 either by subjecting the conductive support to incipient wetness impregnation with a solution containing at least one precursor of ruthenium or by precipitating a ruthenium oxide on the conductive support dispersed in an aqueous solution, drying the treated support; and treating the resulting product under an atmosphere of hydrogen sulphide, and subjecting the coated conductive web to a final sintering step comprising heating under a hydrogen atmosphere from room temperature up to an intermediate temperature comprised between 100 and 120°C, and subsequently heating under an inert atmosphere from said intermediate temperature up to a final temperature comprised between 300 and 350°C.
A razor cartridge comprising a housing having a front wall, a rear wall opposing the front wall, retaining structures, and a plurality of cutting elements comprising a first cutting element and a second cutting element each having a first end and a second end, said cutting elements having connecting structures at the first end and at the second end, said cutting elements being adjacent and attached to each other, wherein the connecting structures comprise a cutting element attaching portion and a cutting element receiving portion, said connecting structures allowing said cutting elements to be attached on the housing, characterized in that, the attaching portion of the first cutting element is attached to the receiving portion of the second adjacent cutting element. a housing having a front wall, a rear wall opposing the front wall, retaining structures, and a plurality of cutting elements comprising a first cutting element and a second cutting element each having a first end and a second end, said cutting elements having connecting structures at the first end and at the second end, said cutting elements being adjacent and attached to each other, wherein the connecting structures comprise a cutting element attaching portion and a cutting element receiving portion, said connecting structures allowing said cutting elements to be attached on the housing, characterized in that, the attaching portion of the first cutting element is attached to the receiving portion of the second adjacent cutting element.
Mechanism for controlling the opening and closing of a folding mould comprising a right half-mould and a left half-mould mounted articulated relative to one another about a common hinge between a closed position in which the half-moulds (5, 6) are pressed against one another and an open position in which the half-moulds (5, 6) are separated angularly from one another, this mechanism comprising: - a right connecting rod coupled in rotation, at a front end, to the right half-mould about a right outer axis; - a left connecting rod coupled in rotation, at a front end, to the left half-mould about a left outer axis; - an actuation system comprising a crank articulated about an axis of rotation that is fixed relative to the hinge of the mould and coupled in rotation to the right connecting rod and to the left connecting rod at respective rear ends thereof; this mechanism being characterized in that the crank is coupled in rotation to the right connecting rod and to the left connecting rod about, respectively, a right inner axis and a left inner axis spaced apart from one another. - a right connecting rod coupled in rotation, at a front end, to the right half-mould about a right outer axis; - a left connecting rod coupled in rotation, at a front end, to the left half-mould about a left outer axis; - an actuation system comprising a crank articulated about an axis of rotation that is fixed relative to the hinge of the mould and coupled in rotation to the right connecting rod and to the left connecting rod at respective rear ends thereof;
A method for re-refining petroleum based waste oil to diesel fuel and petroleum products comprising: (i) Dehydrating waste oil to remove free and emulsified water; (ii) operating a thermal reactor to obtain a hydrocarbon vapour from thermal pyrolysis of the dehydrated waste oil; (iii) operating a hydrocarbon vapour distillation column to condense and distil one or more hydrocarbon fractions including a liquid hydrocarbon within a diesel boiling point range; and (iv) filtering the liquid hydrocarbon in the diesel boiling point range with a clay adsorbent material to remove particulates, contaminants, colour bodies, and odour, wherein the thermal kettle reactor is operated at a temperature ranging from 325°C to 425°C; wherein the thermal kettle reactor is operated at a vacuum pressure ranging from 0 kPag to -35 kPag; wherein the thermal kettle reactor is operated with an average nominal liquid residence time of 0.5 hours to 3.0 hours; so that the mild conditions and relatively low heat flux rate from fired thermal reactor shell 26 into the thermal kettle reactor 25 ensure that the bulk process temperature as well as the kettle wall temperature remain low enough to minimize coke formation to avoid withdrawing any sludge and/or heavy liquid and/or liquid/solid streams from the reactor. (i) Dehydrating waste oil to remove free and emulsified water; (ii) operating a thermal reactor to obtain a hydrocarbon vapour from thermal pyrolysis of the dehydrated waste oil; (iii) operating a hydrocarbon vapour distillation column to condense and distil one or more hydrocarbon fractions including a liquid hydrocarbon within a diesel boiling point range; and (iv) filtering the liquid hydrocarbon in the diesel boiling point range with a clay adsorbent material to remove particulates, contaminants, colour bodies, and odour,