mhurhangee/ep-ind-claims huggingface dataset:
Method for stopping a print system from printing, the print system comprising a control unit for controlling the printing of sheets, a print engine for printing recording material on the sheets, an input tray for holding sheets to be printed upon, and a finishing unit, the method comprising the steps of scheduling a plurality of sheets (X-1, X) for printing by the print engine and for finishing by the finishing unit, the scheduling step comprising for each sheet of the plurality a) sending a sheet request for the sheet from the control unit to the finishing unit and b) upon receiving the sheet request, replying by the finishing unit an earliest expected arrival time of the sheet at the finishing unit, which earliest expected arrival time is respected by the print engine as a minimum delay time between the sheet and a previous sheet preceding the sheet, wherein an earliest expected arrival time for a particular sheet of the plurality, which particular sheet has not been separated from the input tray, is so huge that a gap in time between the particular sheet and a previous sheet (X-1) which is preceding the particular sheet is larger than a travel time of the previous sheet (X-1) from the input tray to the finishing unit, and the method comprises the steps of c) submitting a notification by the finishing unit to the control unit, after the previous sheet (X-1) has been deposited in the finishing unit, the notification comprising a stop request by means of reporting an error on the particular sheet to the print system, which error normally leads to a print engine stop, and d) stopping the print engine by the control unit before the particular sheet is separated from the input tray. a) sending a sheet request for the sheet from the control unit to the finishing unit and b) upon receiving the sheet request, replying by the finishing unit an earliest expected arrival time of the sheet at the finishing unit, which earliest expected arrival time is respected by the print engine as a minimum delay time between the sheet and a previous sheet preceding the sheet, c) submitting a notification by the finishing unit to the control unit, after the previous sheet (X-1) has been deposited in the finishing unit, the notification comprising a stop request by means of reporting an error on the particular sheet to the print system, which error normally leads to a print engine stop, and d) stopping the print engine by the control unit before the particular sheet is separated from the input tray.
Valve assembly for a fluid injection valve comprising - a valve body having a fluid inlet end, a fluid outlet end, and a cavity which hydraulically connects the fluid inlet end to the fluid outlet end, - a valve needle which interacts with the valve body for preventing fluid flow from the fluid outlet end in a closing position and which is displaceable away from the closing position to enable fluid flow out of the valve body from the fluid outlet end, and - a return spring element which is seated against the valve needle at a first end and against the valve body at a second end and is preloaded for biasing the valve needle towards the closing position, characterized in that the return spring element comprises an elastically deformable bellows which is pre-compressed in the valve assembly for biasing the valve needle towards the closing position and a filter sieve for filtering the fluid which flows through the cavity to the fluid outlet end in operation of the valve assembly wherein - the bellows comprises a multitude of filter holes which perforate the bellows for forming the filter sieve or a section of the filter sieve and/or - the return spring element comprises a rigid, annular end piece (142, 144) to which an axial end sections of the bellows is fixed in fluid tight fashion, the end piece comprising a multitude of filter holes which perforate the end piece for forming the filter sieve or a section of the filter sieve. - a valve body having a fluid inlet end, a fluid outlet end, and a cavity which hydraulically connects the fluid inlet end to the fluid outlet end, - a valve needle which interacts with the valve body for preventing fluid flow from the fluid outlet end in a closing position and which is displaceable away from the closing position to enable fluid flow out of the valve body from the fluid outlet end, and - a return spring element which is seated against the valve needle at a first end and against the valve body at a second end and is preloaded for biasing the valve needle towards the closing position, - the bellows comprises a multitude of filter holes which perforate the bellows for forming the filter sieve or a section of the filter sieve and/or - the return spring element comprises a rigid, annular end piece (142, 144) to which an axial end sections of the bellows is fixed in fluid tight fashion, the end piece comprising a multitude of filter holes which perforate the end piece for forming the filter sieve or a section of the filter sieve.
A removable lock core comprising: a primary energy storage element; a harvester configured to harvest energy from a source located external from the removable lock core; an actuator configured to control a state of a lock associated with the removable lock core; an energy store configured to selectively receive energy from the primary energy storage element or from the harvester and provide energy to the actuator; and a processing device configured to select whether the energy store receives energy from the primary energy storage element or the harvester to provide the energy to the actuator; wherein the primary energy storage element comprises a battery; wherein the processing device is configured to select the harvester as the power source to be used by the energy store to provide the energy to the actuator when the battery provides energy in an amount less than a threshold, and wherein the energy provided to the actuator by the energy store using the harvester is used to remove the core so that the battery can be replaced; wherein the source located external from the removable lock core comprises a mobile phone; and wherein the removable lock core comprises a transceiver configured to receive a command from the mobile phone to change a state of the lock, wherein the command comprises at least one credential, and wherein the removable lock core is configured to change a state of the lock based on an authentication of the at least one credential. a primary energy storage element; a harvester configured to harvest energy from a source located external from the removable lock core; an actuator configured to control a state of a lock associated with the removable lock core; an energy store configured to selectively receive energy from the primary energy storage element or from the harvester and provide energy to the actuator; and a processing device configured to select whether the energy store receives energy from the primary energy storage element or the harvester to provide the energy to the actuator; wherein the primary energy storage element comprises a battery; wherein the processing device is configured to select the harvester as the power source to be used by the energy store to provide the energy to the actuator when the battery provides energy in an amount less than a threshold, and wherein the energy provided to the actuator by the energy store using the harvester is used to remove the core so that the battery can be replaced; wherein the source located external from the removable lock core comprises a mobile phone; and wherein the removable lock core comprises a transceiver configured to receive a command from the mobile phone to change a state of the lock, wherein the command comprises at least one credential, and wherein the removable lock core is configured to change a state of the lock based on an authentication of the at least one credential.
Guide device for a dispenser, the guide device comprising: a) a manually actuated kinematic mechanism (410, 415) with a dispenser receptacle, wherein the manually actuated kinematic mechanism comprises a manually actuated Cartesian X-Y kinematic system with an X axis and a Y axis, and a position sensor system (411, 416) comprises a linear path measurement system for the X axis and one for the Y axis; b) a dispensing target holder, by which a plurality of dispensing targets arranged next to one another are mounted in a fixed position and free of play with respect to the kinematic mechanism (410, 415); wherein the kinematic mechanism (410, 415) is designed to hold the dispenser, and in particular a valve tip of the dispenser (100, 100', 100"), at a distance above the dispensing target holder; c) the position sensor system (411, 416) for electronic detection of an actual position of the dispenser (100, 100', 100") and in particular of a valve tip of the dispenser in a plane above the dispensing target holder. a) a manually actuated kinematic mechanism (410, 415) with a dispenser receptacle, wherein the manually actuated kinematic mechanism comprises a manually actuated Cartesian X-Y kinematic system with an X axis and a Y axis, and a position sensor system (411, 416) comprises a linear path measurement system for the X axis and one for the Y axis; b) a dispensing target holder, by which a plurality of dispensing targets arranged next to one another are mounted in a fixed position and free of play with respect to the kinematic mechanism (410, 415); wherein the kinematic mechanism (410, 415) is designed to hold the dispenser, and in particular a valve tip of the dispenser (100, 100', 100"), at a distance above the dispensing target holder; c) the position sensor system (411, 416) for electronic detection of an actual position of the dispenser (100, 100', 100") and in particular of a valve tip of the dispenser in a plane above the dispensing target holder.
Method for production of an ultra-thin steel strip with an austenitic and/or ferritic microstructure and a thickness of less than 0.8 millimetres, wherein initially in a casting direction a raw steel strip with a thickness in the range of 1.50 to 4.0 millimetres is continuously cast and then directly hot rough-rolled in the austenitic and/or ferritic structural range, preferably above a temperature of at least 700° C and by means of at least one hot-rolling stand coupled to the casting device, to form the steel strip, characterised in that the hot rough-rolled steel strip is hot-rolled austenitically and/or ferritically to finished state by way of at least one rolling module, which comprises a cooling device, a heating device and a hot-rolling stand in that sequence and which is arranged directly after the hot-rolling stand coupled to the casting device, to form the ultra-thin steel strip.
A production device for queen bees and royal jelly comprising; a spawn-incubating unit which is to be inserted in the beehives and includes a first spawn-incubating plate and a second spawn-incubating plate being detachably attachable to each other and forming an inner space, a plurality of worker bee inlets and a queen bee inlet formed on at least one of the first spawn-incubating plate and the second spawn-incubating plate through which the worker bees and the queen bee can respectively pass, a plurality of spawning holes formed on a side of the inlets (23, 24) in which the queen bee can spawn, and feed chambers formed as separate chambers at a side of the inner space and communicating with the inner space or formed on-the inner side of the plates (21, 22) as a plurality of recesses, in which feeds such as pollen, water and sugar solution are supplied, a plurality of larva cell pieces or a larva cell strip on which a plurality of larva cell pieces are aligned, the larva cell pieces or the larva cell strip being separated from the spawn-incubating unit and detachably attachable to the spawning holes and having larva recess on which the queen bee spawns and the incubated larva is seated, characterised in that, the device further comprises a production unit which includes a plurality of queen houses or a queen house strip on which a plurality of queen houses are aligned, and a queen house frame on which the queen houses or queen house strip are mounted, the queen house having an insert hole corresponding to the larva recess of the larva cell piece, and the larva cell piece or the larva cell strip being detachably attachable to the queen house or the queen house strip so that the royal jelly supplied by the worker bees on the larva recess is collected or the queen bee can be brought up.
A method for receiving a Reference Signal, RS, performed by a User Equipment, UE, in a wireless communication system, comprising: receiving, from a base station, configuration information including a maximum number value related to a maximum number of symbols to which a Dedicated Demodulation Reference Signal, DMRS, is mapped and a configuration type of the DMRS related to (i) a time and frequency mapping pattern of the DMRS to physical resources and (ii) antenna ports configuration used to transmit the DMRS, through a higher layer signaling; receiving, from the base station, a Physical Downlink Control Channel, PDCCH, including Downlink Control Information, DCI, related to a configuration of the DMRS; and receiving, from the base station, the DMRS and a Physical Downlink Shared Channel, PDSCH, based on the PDCCH, wherein the DCI includes a DCI field for receiving the DMRS, wherein configurations related to receiving the DMRS are configured differently based on (i) the maximum number value and (ii) the configuration type, and wherein the DCI field is configured based on the configurations differently configured based on (i) the maximum number value and (ii) the configuration type. receiving, from a base station, configuration information including a maximum number value related to a maximum number of symbols to which a Dedicated Demodulation Reference Signal, DMRS, is mapped and a configuration type of the DMRS related to (i) a time and frequency mapping pattern of the DMRS to physical resources and (ii) antenna ports configuration used to transmit the DMRS, through a higher layer signaling; receiving, from the base station, a Physical Downlink Control Channel, PDCCH, including Downlink Control Information, DCI, related to a configuration of the DMRS; and receiving, from the base station, the DMRS and a Physical Downlink Shared Channel, PDSCH, based on the PDCCH, wherein the DCI includes a DCI field for receiving the DMRS, wherein configurations related to receiving the DMRS are configured differently based on (i) the maximum number value and (ii) the configuration type, and wherein the DCI field is configured based on the configurations differently configured based on (i) the maximum number value and (ii) the configuration type.
A method of controlling access to a device in a system including the device, a first unit and a second unit, the device having associated therewith first information, the first information provided from an external source, wherein the first unit communicates with the device via a radio frequency identification (RFID) interface, and wherein the first unit includes a device reader/writer capable of reading/writing data from/to the device, the method comprising: retrieving by the first unit second information from the device, the second information being unique to the device, the first unit using the first information to retrieve from the second unit third information, the third information being associated with the first information; generating by the first unit a key based on the second information and the third information by performing a cryptographic operation on the second information and the third information, without storing the key; and programming by the first unit the key into the device for disabling access to the device, wherein for enabling access to the device, the method comprises regenerating the key by: retrieving by the second unit the second information from the device; using by the second unit the second information to identify the associated third information, via the associated first information; and performing by the second unit the cryptographic operation on the second information and the third information to regenerate the key, without storing the key. retrieving by the first unit second information from the device, the second information being unique to the device, the first unit using the first information to retrieve from the second unit third information, the third information being associated with the first information; generating by the first unit a key based on the second information and the third information by performing a cryptographic operation on the second information and the third information, without storing the key; and programming by the first unit the key into the device for disabling access to the device, wherein for enabling access to the device, the method comprises regenerating the key by: retrieving by the second unit the second information from the device; using by the second unit the second information to identify the associated third information, via the associated first information; and performing by the second unit the cryptographic operation on the second information and the third information to regenerate the key, without storing the key. retrieving by the second unit the second information from the device; using by the second unit the second information to identify the associated third information, via the associated first information; and performing by the second unit the cryptographic operation on the second information and the third information to regenerate the key, without storing the key.
A solid oral pharmaceutical dosage form, selected from the group consisting of tablets and capsules, comprising a drug which is N-{3-[3-cyclopropyl-5-(2-fluoro-4-iodo-phenylamino)-6,8-dimethyl-2,4,7-trioxo-3,4,6,7-tetrahydro-2H-pyrido[4,3-d]pyrimidin-1-yl]phenyl}acetamide dimethyl sulfoxide solvate in an amount selected from: 0.5 mg, 1 mg, and 2 mg, by weight of N-{3-[3-cyclopropyl-5-(2-fluoro-4-iodo-phenylamino)-6,8-dimethyl-2,4,7-trioxo-3,4,6,7-tetrahydro-2H-pyrido[4,3-d]pyrimidin-1-yl]phenyl}acetamide.
An apparatus, comprising: an integrated structure (102; 702) including front and rear facets optically coupled by a waveguide (220;715) passing through the integrated structure, the integrated structure including: a gain section (202;702) for emitting an optical output; a reflector (208;716) optically coupled to the gain section by the waveguide; a modulator (214;720) optically coupled to the reflector by the waveguide, the modulator to modulate the optical output; and a control section disposed along the waveguide; characterised by: the control section comprising an optical amplifier optically coupled between the gain section and the modulator (214;720) by the waveguide, wherein the optical amplifier is operable to monitor a laser output from the gain section, and wherein the control section is operable to adjust the gain section (202;712) to optimize an optical output power in dependence upon an output from said optical amplifier. an integrated structure (102; 702) including front and rear facets optically coupled by a waveguide (220;715) passing through the integrated structure, the integrated structure including: a gain section (202;702) for emitting an optical output; a reflector (208;716) optically coupled to the gain section by the waveguide; a modulator (214;720) optically coupled to the reflector by the waveguide, the modulator to modulate the optical output; and a control section disposed along the waveguide; characterised by: the control section comprising an optical amplifier optically coupled between the gain section and the modulator (214;720) by the waveguide, wherein the optical amplifier is operable to monitor a laser output from the gain section, and wherein the control section is operable to adjust the gain section (202;712) to optimize an optical output power in dependence upon an output from said optical amplifier. a gain section (202;702) for emitting an optical output; a reflector (208;716) optically coupled to the gain section by the waveguide; a modulator (214;720) optically coupled to the reflector by the waveguide, the modulator to modulate the optical output; and a control section disposed along the waveguide; characterised by: the control section comprising an optical amplifier optically coupled between the gain section and the modulator (214;720) by the waveguide, wherein the optical amplifier is operable to monitor a laser output from the gain section, and wherein the control section is operable to adjust the gain section (202;712) to optimize an optical output power in dependence upon an output from said optical amplifier. the control section comprising an optical amplifier optically coupled between the gain section and the modulator (214;720) by the waveguide, wherein the optical amplifier is operable to monitor a laser output from the gain section, and wherein the control section is operable to adjust the gain section (202;712) to optimize an optical output power in dependence upon an output from said optical amplifier.
A membrane pin installation kit comprising: a membrane pin including an insertion part which can penetrate a membrane and can be inserted into the alveolar bone, a plate-shaped head disposed in the direction traversing the longitudinal direction of the insertion part and having one surface coupled to one end of the insertion part, and a projection formed on the other surface of the head; and a pin installation device including a head coupling unit shaped to correspond to the head of the membrane pin and coupled to the head while being in contact with the outer peripheral surface of the head, and a projection coupling unit shaped to correspond to the projection of the membrane pin and coupled to the projection while being in contact with the outer peripheral surface of the projection, characterized in that the head coupling unit and projection coupling unit (21, 22) are circumferentially divided into a plurality of sections. a membrane pin including an insertion part which can penetrate a membrane and can be inserted into the alveolar bone, a plate-shaped head disposed in the direction traversing the longitudinal direction of the insertion part and having one surface coupled to one end of the insertion part, and a projection formed on the other surface of the head; and a pin installation device including a head coupling unit shaped to correspond to the head of the membrane pin and coupled to the head while being in contact with the outer peripheral surface of the head, and a projection coupling unit shaped to correspond to the projection of the membrane pin and coupled to the projection while being in contact with the outer peripheral surface of the projection, characterized in that the head coupling unit and projection coupling unit (21, 22) are circumferentially divided into a plurality of sections.