mhurhangee/patent-ind-claim-en huggingface dataset:
A method for monitoring a charge of a battery in a device , comprising: providing a low power processor having a wake state and a dormant state, the low power processor configured to periodically change from the dormant state to the wake state; wherein the dormant state draws a small amount of current to maintain an internal timing mechanism to determine when to enter the wake state; and wherein in the wake state, the low power processor enables several circuits, including a battery monitor circuit , to determine the remaining charge of the battery ; and periodically enabling the battery monitor circuit to determine the charge of the battery , the low power processor enabling the battery monitor circuit when the low power processor is in the wake state; wherein the battery monitor circuit has a default safe state in which a digital processor enables the battery monitor circuit , wherein in the default safe state, the battery monitor circuit does not or has not detected the low power processor and signals to the digital processor that it is responsible for monitoring the charge of the battery, and a normal operating state in which the low power processor periodically enables the battery monitor circuit , wherein the normal operating state allows for the low power processor to monitor the charge of the battery, the battery monitor circuit switching from the default safe state to the normal operating state when the low power processor is detected, wherein the digital processor is different than the low power processor . providing a low power processor having a wake state and a dormant state, the low power processor configured to periodically change from the dormant state to the wake state; wherein the dormant state draws a small amount of current to maintain an internal timing mechanism to determine when to enter the wake state; and wherein in the wake state, the low power processor enables several circuits, including a battery monitor circuit , to determine the remaining charge of the battery ; and periodically enabling the battery monitor circuit to determine the charge of the battery , the low power processor enabling the battery monitor circuit when the low power processor is in the wake state; wherein the battery monitor circuit has a default safe state in which a digital processor enables the battery monitor circuit , wherein in the default safe state, the battery monitor circuit does not or has not detected the low power processor and signals to the digital processor that it is responsible for monitoring the charge of the battery, and a normal operating state in which the low power processor periodically enables the battery monitor circuit , wherein the normal operating state allows for the low power processor to monitor the charge of the battery, the battery monitor circuit switching from the default safe state to the normal operating state when the low power processor is detected, wherein the digital processor is different than the low power processor .
A method comprising: at a user equipment, UE , during machine-type communications, (MTC): transmitting, to a base station , one or more transmissions of block data on a Physical Uplink Shared Channel, PUSCH, during a retransmission window ; receiving, from the base station , a downlink control information, DCI, message as an early termination of repeated transmissions message for the data block, wherein the DCI message comprises cyclic redundancy check, CRC, parity bits scrambled with a cell radio network temporary identifier, C - RNTI, a new data indicator, NDI, value set to zero, and a resource block assignment set to all '1's; and stopping any remaining transmissions for the data block in response to the early termination of repeated transmissions message. transmitting, to a base station , one or more transmissions of block data on a Physical Uplink Shared Channel, PUSCH, during a retransmission window ; receiving, from the base station , a downlink control information, DCI, message as an early termination of repeated transmissions message for the data block, wherein the DCI message comprises cyclic redundancy check, CRC, parity bits scrambled with a cell radio network temporary identifier, C - RNTI, a new data indicator, NDI, value set to zero, and a resource block assignment set to all '1's; and stopping any remaining transmissions for the data block in response to the early termination of repeated transmissions message.
A method of preparing a positive electrode active material for a secondary battery, the method comprising: preparing a positive electrode active material precursor including nickel (Ni), cobalt (Co), manganese (Mn) and aluminum (Al); and forming a lithium composite transition metal oxide by mixing the positive electrode active material precursor and a lithium source and performing calcination, wherein the positive electrode active material precursor includes nickel (Ni) in an amount of 60 mol% or more out of the entire metal element, and a molar ratio (Li/M) of lithium (Li) of the lithium source to the entire metal element (M) of the positive electrode active material precursor is 1.105 to 1.30. preparing a positive electrode active material precursor including nickel (Ni), cobalt (Co), manganese (Mn) and aluminum (Al); and forming a lithium composite transition metal oxide by mixing the positive electrode active material precursor and a lithium source and performing calcination, wherein the positive electrode active material precursor includes nickel (Ni) in an amount of 60 mol% or more out of the entire metal element, and a molar ratio (Li/M) of lithium (Li) of the lithium source to the entire metal element (M) of the positive electrode active material precursor is 1.105 to 1.30.
Shading apparatus having a tensionable cloth and at least one lateral guide profile strip in which the cloth and/or a drop rod attached to the cloth is movably guided, the guide profile strip being attachable to a support structure via at least one holder which is in engagement with the guide profile strip via at least one engagement device , the engagement device having at least one latching element which is formed on the holder and engages behind a projection of the guide profile strip in a latching position, and a blocking element being provided which can be brought into a blocking position in which it blocks the latching element in the latching position thereof, characterized in that the blocking element is locked in its blocking position with the latching element and/or the guide profile strip .
A method for producing a bispecific antibody comprising a first H chain, a second H chain, and commonly shared L chains, wherein the method comprises the steps of: preparing a first antibody against a first antigen, and a second antibody against a second antigen; producing a bispecific antibody against the first antigen and the second antigen, which comprises variable regions of the first antibody and the second antibody; measuring the antigen binding activity or the biological activity of the bispecific antibody produced in step ; producing a commonly shared L chain antibody by linking the H chain of the first antibody and the H chain of the second antibody with the L chain of the first antibody or the second antibody; measuring the antigen binding activity or biological activity of the commonly shared L chain antibody produced in step ; substituting one, two, or three CDRs of the commonly shared L chains produced in step with the L chain CDRs of the first antibody, or the second antibody; selecting the antibody having a desired activity by comparing the antigen binding activity or the biological activity of the antibody obtained in step with that of the original bispecific antibody produced in step or the antibody produced in step ; and obtaining the antibody which has an activity equivalent to or higher than that of the original bispecific antibody produced in step , by repeating steps and as necessary for the antibody selected in step . preparing a first antibody against a first antigen, and a second antibody against a second antigen; producing a bispecific antibody against the first antigen and the second antigen, which comprises variable regions of the first antibody and the second antibody; measuring the antigen binding activity or the biological activity of the bispecific antibody produced in step ; producing a commonly shared L chain antibody by linking the H chain of the first antibody and the H chain of the second antibody with the L chain of the first antibody or the second antibody; measuring the antigen binding activity or biological activity of the commonly shared L chain antibody produced in step ; substituting one, two, or three CDRs of the commonly shared L chains produced in step with the L chain CDRs of the first antibody, or the second antibody; selecting the antibody having a desired activity by comparing the antigen binding activity or the biological activity of the antibody obtained in step with that of the original bispecific antibody produced in step or the antibody produced in step ; and obtaining the antibody which has an activity equivalent to or higher than that of the original bispecific antibody produced in step , by repeating steps and as necessary for the antibody selected in step .
An evaluation method, comprising measuring a transmittance and thickness of a rubber material with no strain applied thereto and measuring a transmittance of the rubber material with the strain applied thereto and measuring or calculating from the following Equation a thickness of the rubber material with the strain applied thereto, and evaluating a percentage of voids in the rubber material with a strain applied thereto based on a φ void calculated from the following Equation using said transmittances and thicknesses, ∅ void = 1 − ρ s / ρ 0 = 1 − In I s I 0 / In I I 0 × t 0 / t s wherein ρ 0 : a density of the rubber material with no strain applied thereto, ρ s : a density of the rubber material with the strain applied thereto, I/I 0 : the transmittance of the rubber material with no strain applied thereto, I s /I 0 : the transmittance of the rubber material with the strain applied thereto, I 0 : an intensity of a beam incident on the rubber material, I: an intensity of the beam transmitted through the rubber material with no strain applied thereto, I s : an intensity of the beam transmitted through the rubber material with the strain applied thereto, t 0 : the thickness of the rubber material with no strain applied thereto, and t s : the thickness of the rubber material with the strain applied thereto, t s = t 0 / ∈ / 100 wherein t 0 : the thickness of the rubber material with no strain applied thereto, t s : the thickness of the rubber material with the strain applied thereto, and ε: the amount (%) of strain. evaluating a percentage of voids in the rubber material with a strain applied thereto based on a φ void calculated from the following Equation using said transmittances and thicknesses, ∅ void = 1 − ρ s / ρ 0 = 1 − In I s I 0 / In I I 0 × t 0 / t s wherein ρ 0 : a density of the rubber material with no strain applied thereto, ρ s : a density of the rubber material with the strain applied thereto, I/I 0 : the transmittance of the rubber material with no strain applied thereto, I s /I 0 : the transmittance of the rubber material with the strain applied thereto, I 0 : an intensity of a beam incident on the rubber material, I: an intensity of the beam transmitted through the rubber material with no strain applied thereto, I s : an intensity of the beam transmitted through the rubber material with the strain applied thereto, t 0 : the thickness of the rubber material with no strain applied thereto, and t s : the thickness of the rubber material with the strain applied thereto, t s = t 0 / ∈ / 100 wherein t 0 : the thickness of the rubber material with no strain applied thereto, t s : the thickness of the rubber material with the strain applied thereto, and ε: the amount (%) of strain. t 0 : the thickness of the rubber material with no strain applied thereto, t s : the thickness of the rubber material with the strain applied thereto, and ε: the amount (%) of strain.
A carpet composition comprising: a) a primary backing material having a face side and a back side; b) a plurality of fibers attached to the primary backing material and extending from the face side of the primary backing material and exposed at the back side of the primary backing material; and c) a layer of precoat composition applied to the back side of the primary backing material, wherein said precoat composition comprises: a) a binder; b) from 20 % to 90 % by weight of a filler comprising a kaolin clay slurry; and c) from greater than 0 % to 10 % by weight of a tackifier, wherein the kaolin clay slurry has a total solids content from 60 % to 80 %, and wherein the precoat composition has a total solids content in the range of from 50 % to 90 %. a) a primary backing material having a face side and a back side; b) a plurality of fibers attached to the primary backing material and extending from the face side of the primary backing material and exposed at the back side of the primary backing material; and c) a layer of precoat composition applied to the back side of the primary backing material, wherein said precoat composition comprises: a) a binder; b) from 20 % to 90 % by weight of a filler comprising a kaolin clay slurry; and c) from greater than 0 % to 10 % by weight of a tackifier, a) a binder; b) from 20 % to 90 % by weight of a filler comprising a kaolin clay slurry; and c) from greater than 0 % to 10 % by weight of a tackifier,
Arrangement, comprising a particle receiving device for attachment to a particle outlet of a vacuum cleaner and/or of a cyclone separator and for receiving separated particles, further comprising the particle outlet which comprises a particle outlet opening , wherein the particle receiving device is attached to the particle outlet , wherein the particle receiving device comprises: - a particle receiving volume for receiving the particles, - an access element with an access element opening through which the particles can be transported into the particle receiving volume , and - a closure element , wherein the access element can be selectively displaced relative to the closure element into a closure position, in which the closure element closes the access element opening , or into an open position, in which the closure element releases the access element opening characterized in that the particle receiving volume is closed with respect to the environment in every possible position of the access element relative to the closure element . - a particle receiving volume for receiving the particles, - an access element with an access element opening through which the particles can be transported into the particle receiving volume , and - a closure element , wherein the access element can be selectively displaced relative to the closure element into a closure position, in which the closure element closes the access element opening , or into an open position, in which the closure element releases the access element opening characterized in that the particle receiving volume is closed with respect to the environment in every possible position of the access element relative to the closure element . the access element can be selectively displaced relative to the closure element into a closure position, in which the closure element closes the access element opening , or into an open position, in which the closure element releases the access element opening characterized in that the particle receiving volume is closed with respect to the environment in every possible position of the access element relative to the closure element .
A system for generating an incrementally completed 3D security mark (20"'), the system being characterised by comprising a computer-readable medium encoded with a computer program having: computer readable code for selecting a color transformation process at each stage in a workflow associated with the 3D security mark (20"'); computer readable code for selecting a scrambling technique for data to be placed into a carrier object (20, 20', 20", 20"') of the 3D security mark (20"') at each stage in the workflow, the carrier object including a set of color modules (T1, T2, T3, T4, T5); computer readable code for selecting a manner in which a state change of the carrier object (20, 20', 20", 20"') at each stage in the workflow results in a predictable change in the 3D security mark (20"'); computer readable code for weighting writing schemes at each stage in the workflow, wherein the weighting affects the probability of a color change of a module (T1, T2, T3, T4, T5) in a state change of the carrier object (20, 20', 20", 20"'); and wherein the system further includes memory and a processor operatively coupled to the memory and to the computer-readable medium. computer readable code for selecting a color transformation process at each stage in a workflow associated with the 3D security mark (20"'); computer readable code for selecting a scrambling technique for data to be placed into a carrier object (20, 20', 20", 20"') of the 3D security mark (20"') at each stage in the workflow, the carrier object including a set of color modules (T1, T2, T3, T4, T5); computer readable code for selecting a manner in which a state change of the carrier object (20, 20', 20", 20"') at each stage in the workflow results in a predictable change in the 3D security mark (20"'); computer readable code for weighting writing schemes at each stage in the workflow, wherein the weighting affects the probability of a color change of a module (T1, T2, T3, T4, T5) in a state change of the carrier object (20, 20', 20", 20"'); and wherein the system further includes memory and a processor operatively coupled to the memory and to the computer-readable medium.
A device for preventing insertion of a fuse into a fuse holder , the device comprising: two retaining elements that are capable of engaging with a fuse holder , wherein each retaining element comprises an actuator tab , a stem region , and a foot , wherein the actuator tab and the foot are at respective ends of the stem region , and the foot and the actuator tab lie in a plane that is perpendicular to a longitudinal axis of the stem region , a resilient member situated between the two retaining elements , wherein the retaining elements are moveable relative to each other between an engaged and a released position, such that in the engaged position the resilient member exerts pressure on the two retaining elements thereby urging them apart, and in the released position the retaining elements are moved towards each other and the resilient member is compressed, characterized in that , the device further comprises a core body , wherein there is a cavity in the core body , and the dimensions of the cavity are such that it houses the stem region of the retaining elements and the resilient member , and allows for movement of the retaining elements encompassed therein in a single plane along the longitudinal axis of the device between the released and engaged positions. two retaining elements that are capable of engaging with a fuse holder , wherein each retaining element comprises an actuator tab , a stem region , and a foot , wherein the actuator tab and the foot are at respective ends of the stem region , and the foot and the actuator tab lie in a plane that is perpendicular to a longitudinal axis of the stem region , a resilient member situated between the two retaining elements , wherein the retaining elements are moveable relative to each other between an engaged and a released position, such that in the engaged position the resilient member exerts pressure on the two retaining elements thereby urging them apart, and in the released position the retaining elements are moved towards each other and the resilient member is compressed, characterized in that , the device further comprises a core body , wherein there is a cavity in the core body , and the dimensions of the cavity are such that it houses the stem region of the retaining elements and the resilient member , and allows for movement of the retaining elements encompassed therein in a single plane along the longitudinal axis of the device between the released and engaged positions.
A door closure of the door of an elevator, wherein the door closure has a housing and a bolt , which is transferable with location change into a locked position and into an unlocked position, wherein a drive is provided, which interacts with the bolt via a drive mechanism , which transfers the bolt into its unlocked position, wherein the drive comprises a controller , which is connected or connectable in a signal-transmitting manner to an elevator controller, which activates the drive in dependence on the location of an external device such as an elevator car to transfer the bolt into its unlocked position, and wherein the door closure has a closing mechanism , which, after its triggering without cooperation of the drive, forcibly transfers the bolt from its unlocked position into its locked position, and wherein the door closure has an emergency unlocking device to be able to transfer the bolt independently of the drive manually into its unlocked position if needed by means of said emergency unlocking device, characterized in that the drive is an electric motor and the electric motor and the drive mechanism are arranged inside the door closure housing, and/or a brake device is provided, which at least temporarily brakes the bolt during its transfer into its locked position.
Test apparatus for non-destructive testing of rotationally symmetrical objects, in particular of rotors of gas or steam turbines, the rotationally symmetrical objects being rotatable in a peripheral direction (U), and extending perpendicularly with respect to the peripheral direction (U) in an axial direction (A), characterized in that this test apparatus has at least three elongate runner bodies which extend in a peripheral direction (U) and parallel to one another, are connected to one another and define supporting surfaces for setting up on the peripheral surface of the object to be tested, a testing probe receptacle for an ultrasonic testing probe being provided at least on the middle runner body . in particular of rotors of gas or steam turbines, the rotationally symmetrical objects being rotatable in a peripheral direction (U), and extending perpendicularly with respect to the peripheral direction (U) in an axial direction (A), characterized in that this test apparatus has at least three elongate runner bodies which extend in a peripheral direction (U) and parallel to one another, are connected to one another and define supporting surfaces for setting up on the peripheral surface of the object to be tested, a testing probe receptacle for an ultrasonic testing probe being provided at least on the middle runner body .
A steel alloy comprising, by weight percent: Ni: 18 to 19%; Co: 11.5 to 12.5%; Mo: 4.6 to 5.2%; Ti: 1.3 to 1.6%; Al: 0.05 to 0.15%; Nb: 0.15 to 0.30%; B: 0.003 to 0.020%; Cr: max 0.25%; Mn: max 0.1%; Si: max 0.1%; C: max 0.03%; Zr: max 0.020%; Ca max 0.05%; P: max 0.005%; and S: max 0.002%, the balance being iron plus incidental impurities.