mhurhangee/patent-ind-claim-en huggingface dataset:
Pressure-sensitive adhesive strip (PSA strip) which is redetachable, without residue or destruction, by extensive stretching substantially in the bond plane, comprising one or more layers of pressure-sensitive adhesive (PSA layers) and optionally one or more intermediate carrier layers, where at least one of the PSA layers comprises at least one filler which can be separated into its primary particles, the primary particles (i) being spherical, and (ii) having a median diameter d(0.5) of less than 10 μm, and where the ratio of the median diameter d(0.5) of the primary particles to the thickness of the PSA layer containing the primary particles is less than 1:2, characterized in that at least one PSA layer is based on vinyl aromatic block copolymer, where the vinyl aromatic block copolymer comprises (i) polymer blocks predominantly formed by polymerization of vinyl aromatics (A blocks), preferably styrene, and at the same time (ii) polymer blocks predominantly formed by polymerization of conjugated dienes having 4 to 18 carbon atoms and/or isobutylene (B blocks), preferably of 1,3-dienes such as, for example, butadiene, where the B blocks are optionally at least partly, such as, for example, completely, hydrogenated, and where the PSA strip has a thickness of less than 500 μm. where at least one of the PSA layers comprises at least one filler which can be separated into its primary particles, the primary particles (i) being spherical, and (ii) having a median diameter d(0.5) of less than 10 μm, (i) being spherical, and (ii) having a median diameter d(0.5) of less than 10 μm, and where the ratio of the median diameter d(0.5) of the primary particles to the thickness of the PSA layer containing the primary particles is less than 1:2, characterized in that at least one PSA layer is based on vinyl aromatic block copolymer, where the vinyl aromatic block copolymer comprises (i) polymer blocks predominantly formed by polymerization of vinyl aromatics (A blocks), preferably styrene, and at the same time (ii) polymer blocks predominantly formed by polymerization of conjugated dienes having 4 to 18 carbon atoms and/or isobutylene (B blocks), preferably of 1,3-dienes such as, for example, butadiene, where the B blocks are optionally at least partly, such as, for example, completely, hydrogenated, and where the PSA strip has a thickness of less than 500 μm.
A device for filling a container with a fill product, preferably in a beverage filling plant, wherein the device comprises: at least one filling station having a filling member for introducing the fill product into the container to be filled; a treatment device for treating, preferably cleaning and/or sterilizing, at least part of the filling member with a treatment medium; at least one temperature sensor (7, 7`) for detecting a temperature of at least one section of the filling station; and a control apparatus which is configured to determine a reference value which corresponds to a temperature of the treatment medium at a point other than the at least one filling station, to compare the temperature detected by the temperature sensor (7, 7`) with the reference value during the treatment of the filling member and to determine therefrom whether there is sufficient treatment of the filling member . at least one filling station having a filling member for introducing the fill product into the container to be filled; a treatment device for treating, preferably cleaning and/or sterilizing, at least part of the filling member with a treatment medium; at least one temperature sensor (7, 7`) for detecting a temperature of at least one section of the filling station; and a control apparatus which is configured to determine a reference value which corresponds to a temperature of the treatment medium at a point other than the at least one filling station, to compare the temperature detected by the temperature sensor (7, 7`) with the reference value during the treatment of the filling member and to determine therefrom whether there is sufficient treatment of the filling member .
A method comprising: obtaining measurements associated with a plurality of controlled variables, CVs, and a plurality of manipulated variables, MVs, of a controller ; detecting an irregular operating condition in the obtained measurements of at least one of the plurality of CVs or the plurality of MVs; analyzing case specific operating conditions based on the irregular operating condition; and removing the irregular operating condition based on analyzing the case specific operating conditions; characterized in that analyzing case specific operating conditions, when a steady state of the CV violating a hard limit is detected for the irregular operating condition , comprises: switching one or more MVs from an operator mode to a controller mode ; relaxing limits of one of more of the MVs when a current value of an MV is at a hard or soft bound ; switching one or more additional MVs from an operator mode to a controller mode when the one or more MVs are wound up ; reducing error in a steady state value of another CV violating a hard limit that is limiting the MV from moving ; relaxing a limit on the other CV ; and providing operating information to a display when the controller cannot resolve the irregular operating condition . obtaining measurements associated with a plurality of controlled variables, CVs, and a plurality of manipulated variables, MVs, of a controller ; detecting an irregular operating condition in the obtained measurements of at least one of the plurality of CVs or the plurality of MVs; analyzing case specific operating conditions based on the irregular operating condition; and removing the irregular operating condition based on analyzing the case specific operating conditions; characterized in that analyzing case specific operating conditions, when a steady state of the CV violating a hard limit is detected for the irregular operating condition , comprises: switching one or more MVs from an operator mode to a controller mode ; relaxing limits of one of more of the MVs when a current value of an MV is at a hard or soft bound ; switching one or more additional MVs from an operator mode to a controller mode when the one or more MVs are wound up ; reducing error in a steady state value of another CV violating a hard limit that is limiting the MV from moving ; relaxing a limit on the other CV ; and providing operating information to a display when the controller cannot resolve the irregular operating condition . switching one or more MVs from an operator mode to a controller mode ; relaxing limits of one of more of the MVs when a current value of an MV is at a hard or soft bound ; switching one or more additional MVs from an operator mode to a controller mode when the one or more MVs are wound up ; reducing error in a steady state value of another CV violating a hard limit that is limiting the MV from moving ; relaxing a limit on the other CV ; and providing operating information to a display when the controller cannot resolve the irregular operating condition .
A method comprising: reading a first activation from a first row of an array of activations, the first activation comprising a least significant part and a most significant part, the most significant part of the first activation being zero; multiplying a first weight by the first activation; reading a second activation from a second row of the array of activations, the second activation comprising a least significant part and a most significant part, the most significant part of the second activation being nonzero; and multiplying a second weight by the second activation, the multiplying of the first weight by the first activation comprising multiplying the first weight by the least significant part of the first activation in a first multiplier , the first multiplier being associated with the first row; the multiplying of the second weight by the second activation comprising: multiplying the second weight by the least significant part of the second activation in a second multiplier , the second multiplier being associated with the second row; and multiplying the second weight by the most significant part of the second activation in a shared multiplier , the shared multiplier being associated with a plurality of rows of the array of activations, including the first row and the second row. reading a first activation from a first row of an array of activations, the first activation comprising a least significant part and a most significant part, the most significant part of the first activation being zero; multiplying a first weight by the first activation; reading a second activation from a second row of the array of activations, the second activation comprising a least significant part and a most significant part, the most significant part of the second activation being nonzero; and multiplying a second weight by the second activation, the multiplying of the first weight by the first activation comprising multiplying the first weight by the least significant part of the first activation in a first multiplier , the first multiplier being associated with the first row; the multiplying of the second weight by the second activation comprising: multiplying the second weight by the least significant part of the second activation in a second multiplier , the second multiplier being associated with the second row; and multiplying the second weight by the most significant part of the second activation in a shared multiplier , the shared multiplier being associated with a plurality of rows of the array of activations, including the first row and the second row. multiplying the second weight by the least significant part of the second activation in a second multiplier , the second multiplier being associated with the second row; and multiplying the second weight by the most significant part of the second activation in a shared multiplier , the shared multiplier being associated with a plurality of rows of the array of activations, including the first row and the second row.
Method for managing the recharging of an energy storer of a motor vehicle comprising a thermal engine in operation, a first non-thermal driving source coupled to the thermal engine and to at least one first wheel of the motor vehicle , as well as a second non-thermal drive source coupled to at least one second wheel of the motor vehicle , the first source non-thermal motor and the second non-thermal motor source each being capable of exchanging energy with said energy store , the management method comprising a step of prohibiting the exceeding of a value of so-called shedding recharging torque (Vd) for recharging the energy storer by the sum of the torques (Cel1, Cel2) of the first and second non-thermal driving sources , the management method being characterized in that it comprises a step of controlling an overall torque at the wheels n negative, this overall torque being distributed between the at least one first wheel and the at least one second wheel , a step of detecting an overrun of the recharging torque value (Vd) that can be relieved by the torque (Cel2) of the second non-thermal driving source and, in response to said step of detecting, a step of limiting the torque (Cel1) generated by the first non-thermal driving source and of authorizing exceeding of said recharging torque value (Vd) which can be shed by the sum of the torques (Cel1, Cel2) of the first and second non-thermal driving sources for recharging the energy storer .
Passenger compartment side window for a vehicle, in particular a rail vehicle, comprising a single glass pane and reflector slats which are embedded in the single glass pane , wherein a spacing between adjacent reflector slats and an angle of tilt subtended by each reflector slat with the plane of the pane is fixed.
An induction heating system comprising: - an induction heating device ; - a temperature sensor assembly ; - control circuitry configured to control an output power of a power source configured to deliver the output power to the induction heating device configured to generate induction heat using the output power and to direct the generated induction heat to a workpiece , wherein the control circuitry is configured to adjust the output power based at least in part on a signal received from the temperature sensor assembly , wherein the signal is representative of a temperature of the workpiece , and wherein the signal received from the temperature sensor assembly is usable by the control circuitry to adjust the output power without compensating for a surface emissivity of the workpiece , wherein the temperature sensor assembly moves relative to the workpiece as the induction heating device moves relative to the workpiece , characterized in that the temperature sensor assembly is removably attached to the main housing of the induction heating device by means of first and second brackets of the temperature assembly which are couplable to each other via an adjustable connection mechanism and mating with first and second brackets of the main housing , wherein different angular orientations may be adjusted between said first and second bracket and the respective first and second mating brackets by engagement of the adjustable connection mechanism with different mating features in the first and/or second bracket . - an induction heating device ; - a temperature sensor assembly ; - control circuitry configured to control an output power of a power source configured to deliver the output power to the induction heating device configured to generate induction heat using the output power and to direct the generated induction heat to a workpiece , wherein the control circuitry is configured to adjust the output power based at least in part on a signal received from the temperature sensor assembly , wherein the signal is representative of a temperature of the workpiece , and wherein the signal received from the temperature sensor assembly is usable by the control circuitry to adjust the output power without compensating for a surface emissivity of the workpiece , wherein the temperature sensor assembly moves relative to the workpiece as the induction heating device moves relative to the workpiece ,
A mounting base for an articulator in dental technology for creating and handling plaster models that are free from retention plates, which has a base body with a mounting surface facing the articulator in a mounting state and a holding surface facing away therefrom, and wherein at least one permanently magnetic holding element is provided in the holding surface , characterised in that the mounting base - has at least one recess in the holding surface and at least one impression element each of which is movably placed into the recess , and - has at least one lifting element which is inserted between the mounting surface and the holding surface , wherein the at least one lifting element is in operative connection with the at least one impression element and can be actuated from outside the mounting base in order to carry out a lifting movement and a lowering movement of the at least one impression element, and wherein the at least one lifting element is configured to move the at least one impression element between two predefined maximum positions and to position the same at least in the two predefined maximum positions, wherein, in a first maximum position, the impression element protrudes farthest out of the holding surface and, in a second maximum position, is flush with the holding surface . - has at least one recess in the holding surface and at least one impression element each of which is movably placed into the recess , and - has at least one lifting element which is inserted between the mounting surface and the holding surface ,
An energy storage device (1; 1', 1", 1"') comprising a gas receptacle for storing pressurized gas, at least one thermal storage element for storing thermal energy, and one or several electrical heating devices for heating the at least one thermal storage element by means of electrical energy, characterized in that the at least one thermal storage element and the one or several electrical heating devices are arranged within the gas receptacle , such that the pressurized gas surrounds the at least one thermal storage element , when the pressurized gas is stored in the gas receptacle . a gas receptacle for storing pressurized gas, at least one thermal storage element for storing thermal energy, and one or several electrical heating devices for heating the at least one thermal storage element by means of electrical energy, characterized in that the at least one thermal storage element and the one or several electrical heating devices are arranged within the gas receptacle , such that the pressurized gas surrounds the at least one thermal storage element , when the pressurized gas is stored in the gas receptacle .
Lighting device, in particular contour lighting for a motor vehicle having a housing , made of a plastic material which is transparent for light coupled into the housing, which functions as a diffuser and is covered, at least in the area of its outer side which is visible in the mounting position, with a coating which is not transparent for the coupled-in light, which is locally removed for forming a narrow light-emission line , and having a light guide which emits the light to be outputted via the light-emission line into the housing, wherein the housing has a receptacle for the light guide , characterised in that the coating is a lacquer, a vapour-deposited layer or a galvanically desposited layer, and the light guide has a light-guide structure such that coupled-in light passes through the light guide from an end face of the light guide, wherein the light is not only conducted longitudinally but is also coupled-out to the side and inevitably is coupled into the housing. having a housing , made of a plastic material which is transparent for light coupled into the housing, which functions as a diffuser and is covered, at least in the area of its outer side which is visible in the mounting position, with a coating which is not transparent for the coupled-in light, which is locally removed for forming a narrow light-emission line , and having a light guide which emits the light to be outputted via the light-emission line into the housing, wherein the housing has a receptacle for the light guide , characterised in that the coating is a lacquer, a vapour-deposited layer or a galvanically desposited layer, and the light guide has a light-guide structure such that coupled-in light passes through the light guide from an end face of the light guide, wherein the light is not only conducted longitudinally but is also coupled-out to the side and inevitably is coupled into the housing. characterised in that the coating is a lacquer, a vapour-deposited layer or a galvanically desposited layer, and the light guide has a light-guide structure such that coupled-in light passes through the light guide from an end face of the light guide, wherein the light is not only conducted longitudinally but is also coupled-out to the side and inevitably is coupled into the housing.
A method for detecting downlink control information, comprising: determining , by a network device based on load of control resource sets of all bandwidth parts, BWPs, detection related information for detecting, by a terminal device, downlink control information, DCIs, of all the BWPs; and sending , by the network device, the detection related information to the terminal device, wherein the detection related information comprises information about a control resource set, an aggregation level set, a scale factor, and a detection period that are required for detecting each of the DCIs; and the information about a control resource set comprises at least one of a frequency domain resource of the control resource set, a start orthogonal frequency division multiplexing, OFDM, symbol, duration, and a detection period. determining , by a network device based on load of control resource sets of all bandwidth parts, BWPs, detection related information for detecting, by a terminal device, downlink control information, DCIs, of all the BWPs; and sending , by the network device, the detection related information to the terminal device, wherein the detection related information comprises information about a control resource set, an aggregation level set, a scale factor, and a detection period that are required for detecting each of the DCIs; and the information about a control resource set comprises at least one of a frequency domain resource of the control resource set, a start orthogonal frequency division multiplexing, OFDM, symbol, duration, and a detection period.
A thermal insulation structure for a substrate for use subsea, the structure comprising: an inner layer and an outer layer; the inner layer being the reaction product of a first part and a second part, wherein the weight ratio of the first part to the second part is from about 15:1 to 1:1, the first part comprises any of alkenyldialkyl terminated polydialkylsiloxane, alkenyldialkyl terminated polydialkylalkenylmethylsiloxane or mixtures thereof, which will individually or collectively have a viscosity of from 250 to 10000mPa.s at 25°C, and a hydrosilylation catalyst, wherein the second part comprises a mixture of organohydrogensiloxane having two Si-H bonds per molecule and organohydrogensiloxane having at least three Si-H bonds per molecule; the outer layer being the reaction product of a first part and a second part, wherein the weight ratio of the first part to the second part is from about 15:1 to 1:1, the first part comprises any of alkenyldialkyl terminated polydialkylsiloxane, alkenyldialkyl terminated polydialkylalkenylmethylsiloxane or mixtures thereof, which will individually or collectively have a viscosity of from 250 to 10000mPa.s at 25°C, and a hydrosilylation catalyst, wherein the second part comprises organohydrogensiloxane having at least two Si-H bonds per molecule and alkenylated MQ silicone resin, wherein said M group comprises at least two Si-alkenyl bonds per molecule, and where viscosity is determined in accordance with the method outlined in the description. an inner layer and an outer layer; the inner layer being the reaction product of a first part and a second part, wherein the weight ratio of the first part to the second part is from about 15:1 to 1:1, the first part comprises any of alkenyldialkyl terminated polydialkylsiloxane, alkenyldialkyl terminated polydialkylalkenylmethylsiloxane or mixtures thereof, which will individually or collectively have a viscosity of from 250 to 10000mPa.s at 25°C, and a hydrosilylation catalyst, wherein the second part comprises a mixture of organohydrogensiloxane having two Si-H bonds per molecule and organohydrogensiloxane having at least three Si-H bonds per molecule; the outer layer being the reaction product of a first part and a second part, wherein the weight ratio of the first part to the second part is from about 15:1 to 1:1, the first part comprises any of alkenyldialkyl terminated polydialkylsiloxane, alkenyldialkyl terminated polydialkylalkenylmethylsiloxane or mixtures thereof, which will individually or collectively have a viscosity of from 250 to 10000mPa.s at 25°C, and a hydrosilylation catalyst, wherein the second part comprises organohydrogensiloxane having at least two Si-H bonds per molecule and alkenylated MQ silicone resin, wherein said M group comprises at least two Si-alkenyl bonds per molecule, and where viscosity is determined in accordance with the method outlined in the description.