mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling operation of a dispensing mechanism for dispensing a material, the mechanism having a removable component removably coupled thereto selected from one or more of a reservoir containing the material to be dispensed and an element of a pump mechanism required for dispensing the material to be dispensed, wherein a plurality of waveguides (64; 184; 200) are carried on the removable component, each waveguide (64; 184; 200) having an entrance and an outlet, comprising the steps of: measuring electromagnetic radiation passing through two or more of said waveguides (64; 184; 200) carried on the removable component by emitting electromagnetic radiation from an electromagnetic radiation emitter, directing the electromagnetic radiation into the entrance of the two or more waveguides (64; 184; 200), and sensing electromagnetic radiation exiting from the outlet of the two or more waveguides (64; 184; 200), permitting operation of the dispensing mechanism only when measured electromagnetic radiation complies with one or more pre-selected output parameters, preventing operation of the dispensing mechanism when the measured electromagnetic radiation of a first of two of the waveguides (64; 184; 200) does not comply with the pre-selected output parameters and the measured electromagnetic radiation of a second of two of the waveguides (64; 184; 200) does not comply with the pre-selected output parameters. measuring electromagnetic radiation passing through two or more of said waveguides (64; 184; 200) carried on the removable component by emitting electromagnetic radiation from an electromagnetic radiation emitter, directing the electromagnetic radiation into the entrance of the two or more waveguides (64; 184; 200), and sensing electromagnetic radiation exiting from the outlet of the two or more waveguides (64; 184; 200), permitting operation of the dispensing mechanism only when measured electromagnetic radiation complies with one or more pre-selected output parameters, preventing operation of the dispensing mechanism when the measured electromagnetic radiation of a first of two of the waveguides (64; 184; 200) does not comply with the pre-selected output parameters and the measured electromagnetic radiation of a second of two of the waveguides (64; 184; 200) does not comply with the pre-selected output parameters.
Device for multifunctional embossing of foils, comprising a basic embossing element, an accommodation area and an exchange embossing element detachably disposed within the accommodation area, wherein the detachably disposed exchange embossing element comprises an emboss image providing haptically perceptible information, wherein the device comprises fixing means for detachably fixing the exchange embossing element and the accommodation area is configured to accommodate a plurality of exchange embossing elements (120, 121, 122, 123) and wherein the basic embossing element and the exchange embossing element are configured as a female die and the device comprises a basic male die which is inverted with respect to the emboss image of the basic embossing element and comprises an accommodation area and an exchange male die element detachably disposed within the accommodation area, wherein the exchange male die element is inverted with respect to the emboss image of the exchange embossing element, wherein the basic embossing element and the basic male die are arranged such that they can be aligned with one another, characterized in that the device comprises an embossing plate which comprises a plurality of basic embossing elements and a male die plate which comprises a plurality of basic male dies, wherein the exchange embossing elements and the exchange male die elements are formed in such a way and/or are disposed in such a way in the basic embossing element/basic male die element that the emboss image obtained with a first basic embossing element/basic male die element (110, 210) and the exchange embossing element/exchange male die element (120/220) arranged therein is not identical to the emboss image obtained with a further basic embossing element/basic male die element and the basic embossing element/exchange male die element (120/220) disposed therein.
A right angle valve, comprising: a valve body including a cavity and a first pipe and a second pipe connected with the cavity; a fixing member fixed to the valve body, the fixing member provided with a combining end inserted into the cavity; a disc spring with one end thereof combined to the combining end and the other end thereof connected with a sealing member for sealing an inner end of the first pipe; a cover fixed to an end of the valve body away from the first pipe; a piston member slidingly disposed in the cover, one end of the piston member combined to the sealing member; and a covering measure including a sleeve, wherein the covering measure covers the disc spring when the piston member drives the sealing member to move away from the inner end of the first pipe to allow an air inflow, such that the disc spring is prevented from being exposed to the flowing air, characterized in that the sleeve comprises a fixing end and a free end, the fixing end fixedly combined with the fixing member, the free end surrounding the combining end of the fixing member and the disc spring, wherein the sealing member rests against the free end when the sealing member moves away from the inner end of the first pipe to the largest distance. a valve body including a cavity and a first pipe and a second pipe connected with the cavity; a fixing member fixed to the valve body, the fixing member provided with a combining end inserted into the cavity; a disc spring with one end thereof combined to the combining end and the other end thereof connected with a sealing member for sealing an inner end of the first pipe; a cover fixed to an end of the valve body away from the first pipe; a piston member slidingly disposed in the cover, one end of the piston member combined to the sealing member; and a covering measure including a sleeve, wherein the covering measure covers the disc spring when the piston member drives the sealing member to move away from the inner end of the first pipe to allow an air inflow, such that the disc spring is prevented from being exposed to the flowing air, characterized in that the sleeve comprises a fixing end and a free end, the fixing end fixedly combined with the fixing member, the free end surrounding the combining end of the fixing member and the disc spring, wherein the sealing member rests against the free end when the sealing member moves away from the inner end of the first pipe to the largest distance.
A picture coding device configured to partition difference information between a picture serving as a coding target and a picture serving as a prediction target into a plurality of sub blocks, and codes the partitioned sub block in a certain order, the picture coding device comprising: a significant sub block information encoder (706, 708, 701) configured to code significant sub block information indicating whether or not all values of difference coefficients belonging to the sub block serving as the coding target are zero; a significant difference coefficient information encoder (706, 708) configured to code significant difference coefficient information indicating whether or not each value of difference coefficient at each position of difference coefficient serving as the coding target is zero; a difference coefficient value encoder (707, 701) configured to code value of difference coefficient serving as the coding target; and a context deriver (707, 701) configured to derive a context for coding the significant difference coefficient information based on sum of vertical position of the difference coefficient and horizontal position of the difference coefficient in sub block serving as the coding target, and sum of significant sub block information of coded sub block neighboring the sub block serving as the coding target at right side and lower side, wherein the context deriver is configured to set an index value of the context within a range of 0 to 2. a significant sub block information encoder (706, 708, 701) configured to code significant sub block information indicating whether or not all values of difference coefficients belonging to the sub block serving as the coding target are zero; a significant difference coefficient information encoder (706, 708) configured to code significant difference coefficient information indicating whether or not each value of difference coefficient at each position of difference coefficient serving as the coding target is zero; a difference coefficient value encoder (707, 701) configured to code value of difference coefficient serving as the coding target; and a context deriver (707, 701) configured to derive a context for coding the significant difference coefficient information based on sum of vertical position of the difference coefficient and horizontal position of the difference coefficient in sub block serving as the coding target, and sum of significant sub block information of coded sub block neighboring the sub block serving as the coding target at right side and lower side, wherein the context deriver is configured to set an index value of the context within a range of 0 to 2.
A bicycle comprising a frame having a sprung portion and an unsprung portion, which bicycle further comprises: a terrain sensor; an electronically adjustable damping assembly (25, 80) mounted between the sprung portion and the unsprung portion, said electronically adjustable damping assembly comprising an electronically adjustable valve for controlling a damping rate of the electronically adjustable damping assembly (25, 80); and a controller comprising a processor for directing a position of the electronically adjustable valve in response to input from the terrain sensor; wherein said terrain sensor comprises a first acceleration sensor fixed to said unsprung portion and a second acceleration sensor fixed to the sprung portion, and in that said controller is adapted to receive an input from each of the first and second acceleration sensors respectively, to compare each of the inputs, to determine a setting position for the electronically adjustable valve according to said comparison, and to direct said electronically adjustable valve to said setting position whereby automatic control of the damping rate of the electronically adjustable damping assembly is provided; and a pedal force sensor providing an input to said controller, wherein if said input from said second acceleration sensor is synchronized in frequency with the input from said pedal force sensor, the controller directs closure of said electronically adjustable valve until said synchronisation is eliminated or reduced. a terrain sensor; an electronically adjustable damping assembly (25, 80) mounted between the sprung portion and the unsprung portion, said electronically adjustable damping assembly comprising an electronically adjustable valve for controlling a damping rate of the electronically adjustable damping assembly (25, 80); and a controller comprising a processor for directing a position of the electronically adjustable valve in response to input from the terrain sensor; wherein said terrain sensor comprises a first acceleration sensor fixed to said unsprung portion and a second acceleration sensor fixed to the sprung portion, and in that said controller is adapted to receive an input from each of the first and second acceleration sensors respectively, to compare each of the inputs, to determine a setting position for the electronically adjustable valve according to said comparison, and to direct said electronically adjustable valve to said setting position whereby automatic control of the damping rate of the electronically adjustable damping assembly is provided; and a pedal force sensor providing an input to said controller, wherein if said input from said second acceleration sensor is synchronized in frequency with the input from said pedal force sensor, the controller directs closure of said electronically adjustable valve until said synchronisation is eliminated or reduced.
A method for wireless communication at a user equipment, UE, the method comprising: determining, that a reference signal, RS, transmission has been triggered; receiving an antenna selection authorization indication from a base station, BS, wherein the indication is received in a system information block, SIB, or a radio resource control, RRC, message, or a RS trigger message, or combinations thereof, wherein the indication is associated with a predefined set of time units comprising a set of subframes, or a set of radio frames, or a set of slots, or a set of symbols, or combinations thereof; selecting a subset of antennas from a set of available antennas based at least in part on a signal property associated with each antenna of the subset of antennas; and transmitting the RS using the selected subset of antennas; wherein in other time units, the UE selects predetermined antennas instead of selecting the subset of antennas based at least in part on the signal property for the RS transmission. determining, that a reference signal, RS, transmission has been triggered; receiving an antenna selection authorization indication from a base station, BS, wherein the indication is received in a system information block, SIB, or a radio resource control, RRC, message, or a RS trigger message, or combinations thereof, wherein the indication is associated with a predefined set of time units comprising a set of subframes, or a set of radio frames, or a set of slots, or a set of symbols, or combinations thereof; selecting a subset of antennas from a set of available antennas based at least in part on a signal property associated with each antenna of the subset of antennas; and transmitting the RS using the selected subset of antennas; wherein in other time units, the UE selects predetermined antennas instead of selecting the subset of antennas based at least in part on the signal property for the RS transmission.
Locking plate for locking a housing of an electronic device, wherein the housing has at least one cover (2a, 2b) and one opening lever (6a, 6b) which can be operated to move from a closed position to an open position in order to allow the housing to be opened by means of movement of the cover (2a, 2b), wherein the locking plate has at least one lug (11a, 11b) which is arranged approximately perpendicular to the locking plate, characterized in that the lug (11a, 11b) can fix the opening lever (6a, 6b) in the closed position when the locking plate is fitted to the housing.
A continuous preparation system of a conjugated diene-based polymer, comprising a polymerization reactor comprising one upflow reactor and at least one downflow reactor, connected in order, for performing polymerization reaction of a conjugated diene-based monomer in the presence of a catalyst composition comprising a rare earth metal-containing compound in a hydrocarbon solvent, wherein the system comprises: the upflow reactor comprising an upflow reaction chamber, a raw material feed line connected with the bottom of the upflow reaction chamber and feeding a raw material, and a first polymer product discharge line connected with the top of the upflow reaction chamber and discharging a first polymer product; and the downflow reactor comprising a downflow reaction chamber, a first polymer product feed line connected with the top of the downflow reaction chamber and feeding the first polymer product, and a second polymer product discharge line connected with the bottom of the downflow chamber and discharging a second polymer product, the first polymer product discharge line in the upflow reactor is connected with the first polymer product feed line in the downflow reactor so that the first polymer product discharged from the upflow reactor is fed to the downflow reactor, and the polymerization reaction in the upflow reactor is performed while controlling a polymerization conversion ratio to greater than 30% to 80% or less. the system comprises: the upflow reactor comprising an upflow reaction chamber, a raw material feed line connected with the bottom of the upflow reaction chamber and feeding a raw material, and a first polymer product discharge line connected with the top of the upflow reaction chamber and discharging a first polymer product; and the downflow reactor comprising a downflow reaction chamber, a first polymer product feed line connected with the top of the downflow reaction chamber and feeding the first polymer product, and a second polymer product discharge line connected with the bottom of the downflow chamber and discharging a second polymer product, the first polymer product discharge line in the upflow reactor is connected with the first polymer product feed line in the downflow reactor so that the first polymer product discharged from the upflow reactor is fed to the downflow reactor, and the polymerization reaction in the upflow reactor is performed while controlling a polymerization conversion ratio to greater than 30% to 80% or less.
A camera module comprising: a lens assembly (110, 120); a lens driving unit (240, 250, 310, 320) for moving the lens assembly in an optical axis direction; a position sensor unit (118, 128, 260, 270) for detecting a position of the lens assembly; and a control unit configured to output a driving signal, for moving the lens assembly to a target position, to the lens driving unit based on the position of the lens assembly detected through the position sensor unit, wherein the position sensor unit includes a plurality of sensor units with at least one output terminal interconnected to each other, an amplifier commonly connected to the sensor units, and an analog-to-digital converter connected to the amplifier, wherein the amplifier includes an inverting terminal and a non-inverting terminal, wherein the sensor units include a first sensor unit having a first output terminal and a second output terminal, and a second sensor unit having a third output terminal and a fourth output terminal, wherein the first output terminal of the first sensor unit is connected to the non-inverting terminal of the amplifier, wherein the fourth output terminal of the second sensor unit is connected to the inverting terminal of the amplifier either directly or via a switch, and wherein the second output terminal of the first sensor unit is connected to the third output terminal of the second sensor unit. a lens assembly (110, 120); a lens driving unit (240, 250, 310, 320) for moving the lens assembly in an optical axis direction; a position sensor unit (118, 128, 260, 270) for detecting a position of the lens assembly; and a control unit configured to output a driving signal, for moving the lens assembly to a target position, to the lens driving unit based on the position of the lens assembly detected through the position sensor unit, the position sensor unit includes a plurality of sensor units with at least one output terminal interconnected to each other, an amplifier commonly connected to the sensor units, and an analog-to-digital converter connected to the amplifier, wherein the amplifier includes an inverting terminal and a non-inverting terminal, wherein the sensor units include a first sensor unit having a first output terminal and a second output terminal, and a second sensor unit having a third output terminal and a fourth output terminal, wherein the first output terminal of the first sensor unit is connected to the non-inverting terminal of the amplifier, wherein the fourth output terminal of the second sensor unit is connected to the inverting terminal of the amplifier either directly or via a switch, and wherein the second output terminal of the first sensor unit is connected to the third output terminal of the second sensor unit.
A blowout preventer stack configured to provide Intervention WorkOver Control System (IWOC) functionality to a tree attached to a wellhead of a well, the BOP stack comprising: a lower marine riser package (LMRP) part configured to be attached to an end of a marine riser; a lower BOP part configured to be detachably attached to the LMRP part; characterised in that a pod extension module attached to the LMRP part or the lower BOP part and configured to receive a fluid under pressure and provide a set of functions to the tree based on the fluid under pressure; and at least a MUX pod (40,42) attached to the LMRP part or the lower BOP part and configured to receive electrical signals and the fluid under pressure and to transmit the fluid under pressure to the pod extension module, wherein the set of functions for the tree is different from functions provided to the lower BOP part. a lower marine riser package (LMRP) part configured to be attached to an end of a marine riser; a lower BOP part configured to be detachably attached to the LMRP part; characterised in that a pod extension module attached to the LMRP part or the lower BOP part and configured to receive a fluid under pressure and provide a set of functions to the tree based on the fluid under pressure; and at least a MUX pod (40,42) attached to the LMRP part or the lower BOP part and configured to receive electrical signals and the fluid under pressure and to transmit the fluid under pressure to the pod extension module, wherein the set of functions for the tree is different from functions provided to the lower BOP part.
A method for manufacturing a drape for a negative-pressure system, the method comprising: providing a film layer; coupling a layer of a bonding adhesive to the film layer; forming a mesh having a plurality of mesh apertures; coating the mesh with a sealing adhesive; forming a plurality of bonding apertures in the mesh; and coupling the mesh to the layer of the bonding adhesive; wherein the mesh apertures each having an effective diameter between 0.5 millimeters and 4 millimeters. providing a film layer; coupling a layer of a bonding adhesive to the film layer; forming a mesh having a plurality of mesh apertures; coating the mesh with a sealing adhesive; forming a plurality of bonding apertures in the mesh; and coupling the mesh to the layer of the bonding adhesive; wherein the mesh apertures each having an effective diameter between 0.5 millimeters and 4 millimeters.
A method for formulation of a vaccine, comprising: preserving one or more vaccines in a dry carbohydrate-glass using preservation by vaporization, said preserving including: vacuum drying the vaccines for at least 6 hours at 40°C, or a higher temperature, to yield thermostable vaccines that are stabile at all ambient temperatures between -20 °C to +37 °C for at least a year; wherein said thermostable vaccines can be stored and distributed without a need for refrigeration of the preserved vaccines; characterized in that: subsequent to preserving the vaccines, inactivating the thermostable vaccines by irradiating said dry carbohydrate-glass containing the thermostable vaccines using a permeated ionizing radiation dose of at least 12 kGy wherein said vaccine comprises a multicomponent vaccine including: one or a plurality of: viruses; bacterium; archaeon; fungi; Protista, yeast, or a combination thereof.
An installation module for a motor vehicle, with an optical sensor system which is designed a) to monitor a detection area outside of the motor vehicle to detect a proximity of a user, b) to trigger) a signal for starting an authentication check between an ID transponder and an access control system of the motor vehicle in the event that a user is recognised in the detection area, characterized in that the optical sensor system can be switched between an idle mode and a work mode, wherein in particular a frame rate in idle mode is lower than in work mode. a) to monitor a detection area outside of the motor vehicle to detect a proximity of a user, b) to trigger) a signal for starting an authentication check between an ID transponder and an access control system of the motor vehicle in the event that a user is recognised in the detection area,