mhurhangee/ep-ind-claims huggingface dataset:
A multi-ply radiation dosage indicator comprising: a first ply having at least two independent visible indicia thereon; a second ply having at least two independent radiation sensitive zones overlying each independent indicia of said first ply; said each radiation sensitive zone having a changing opacity in response to exposure to a radiation dosage exceeding an independently predetermined threshold of each radiation sensitive zone; and a third ply overlying said second ply and having at least two independent viewing zones through which the respective visible indicia of said first ply is exposed to view, said third ply having at least two independent visible indicia thereon positioned adjacent to each viewing zone, the indicia of said first ply and the indicia of said third ply together providing a visual indication as to whether said indicator has been exposed to a radiation dosage exceeding the predetermined threshold. a first ply having at least two independent visible indicia thereon; a second ply having at least two independent radiation sensitive zones overlying each independent indicia of said first ply; said each radiation sensitive zone having a changing opacity in response to exposure to a radiation dosage exceeding an independently predetermined threshold of each radiation sensitive zone; and a third ply overlying said second ply and having at least two independent viewing zones through which the respective visible indicia of said first ply is exposed to view, said third ply having at least two independent visible indicia thereon positioned adjacent to each viewing zone, the indicia of said first ply and the indicia of said third ply together providing a visual indication as to whether said indicator has been exposed to a radiation dosage exceeding the predetermined threshold.
An arrangement to control the movement speed of a percussive element which is arranged to move in a housing of a drilling machine, where the percussive element comprises a brake surface, wherein the housing comprises a damping chamber configured to contain a fluid provided to dampen the movement speed of the percussive element in the housing and a conduit configured to lead fluid from the damping chamber, characterized in that the arrangement is configured to control the movement speed of the percussive element by adapting a pressure by which the fluid in the damping chamber affects the brake surface of the percussive element by leading fluid from the damping chamber only when a predetermined reference point of the percussive element is located ahead of a predetermined first position along an axial elongation of the damping chamber.
A method of controlling movement of at least one joint of a walking assistance robot, the method comprising a step of: controlling the movement of the walking assistance robot based on a motion state of the at least one joint, wherein said step of controlling the movement of the walking assistance robot comprise: the steps of: collecting motion information by sensing or measuring a motion of the at least one joint of the walking assistance robot; calculating movement information related to the motion information; determine the motion state of the at least one joint based on the calculated movement information; determine if the motion state of the joint is changed based on the motion information, and if a change in a motion state of the at least one joint is detected: determining that the at least one joint is in a negative work state if a power or a work value based the calculated movement information is a negative number and determining that the at least one joint is in a positive work state if a power or a work value based the calculated movement information is a positive number, wherein the work state is indicative of a torque applied on the at least one joint; decelerating the motion of the at least one joint when the motion of the at least one joint is in a negative work state and accelerating the motion of the at least one joint when the motion of the at least one joint is in a positive work state. calculating movement information related to the motion information; determine the motion state of the at least one joint based on the calculated movement information; determine if the motion state of the joint is changed based on the motion information, and if a change in a motion state of the at least one joint is detected: determining that the at least one joint is in a negative work state if a power or a work value based the calculated movement information is a negative number and determining that the at least one joint is in a positive work state if a power or a work value based the calculated movement information is a positive number, wherein the work state is indicative of a torque applied on the at least one joint; decelerating the motion of the at least one joint when the motion of the at least one joint is in a negative work state and accelerating the motion of the at least one joint when the motion of the at least one joint is in a positive work state. determining that the at least one joint is in a negative work state if a power or a work value based the calculated movement information is a negative number and determining that the at least one joint is in a positive work state if a power or a work value based the calculated movement information is a positive number, wherein the work state is indicative of a torque applied on the at least one joint; decelerating the motion of the at least one joint when the motion of the at least one joint is in a negative work state and accelerating the motion of the at least one joint when the motion of the at least one joint is in a positive work state.
A method of improving the resolution of compounds eluted from a chromatography device comprising: (a) measuring spectroscopic data from an effluent eluted from a chromatography device as a function of elution time, the effluent containing eluted compounds; (b) identifying at least some peaks in intensity as a function of time in at least some of the measured spectroscopic data to form a first set of identified peaks; (c) discarding from the first set of identified peaks those peaks that are not due to an eluted compound on the basis of a match between the shape of the identified peak and a second model peak shape thereby forming a second set of peaks from those retained; (d) transforming each peak in the second set of peaks into a first model peak centred on the elution time of each peak in the second set of peaks, the width of the first model peak being less than the width of the second model peak; (e) adding together some or all the model peaks created in step (d) to create a new chromatogram; (f) identifying at least some peaks in intensity in the new chromatogram; (g) grouping together all identified peaks in intensity in the second set of peaks having elution times within a given time period of identified peaks in intensity in the new chromatogram and assigning them to a single eluted compound thereby forming a processed data set. (a) measuring spectroscopic data from an effluent eluted from a chromatography device as a function of elution time, the effluent containing eluted compounds; (b) identifying at least some peaks in intensity as a function of time in at least some of the measured spectroscopic data to form a first set of identified peaks; (c) discarding from the first set of identified peaks those peaks that are not due to an eluted compound on the basis of a match between the shape of the identified peak and a second model peak shape thereby forming a second set of peaks from those retained; (d) transforming each peak in the second set of peaks into a first model peak centred on the elution time of each peak in the second set of peaks, the width of the first model peak being less than the width of the second model peak; (e) adding together some or all the model peaks created in step (d) to create a new chromatogram; (f) identifying at least some peaks in intensity in the new chromatogram; (g) grouping together all identified peaks in intensity in the second set of peaks having elution times within a given time period of identified peaks in intensity in the new chromatogram and assigning them to a single eluted compound thereby forming a processed data set.
A radiological image processing apparatus for processing a radiological image taken through a grid for removing scattered radiation, comprising a separating device for separating the radiological image into a grid image including components of a grid figure due to the grid and a non-grid image including other components; an adjusting device for adjusting intensity of the grid image on real space based on the non-grid image to generate an adjusted image; and a removing device for subtracting the adjusted image from the non-grid image to generate a corrected image free of influences of the grid.
A method for initializing an operating system (122, 220) of a control utility in a computing environment, the method comprising: performing, by a processor, a boot sequence (124, 222) to boot the operating system in one of a first architectural configuration or a second architectural configuration, wherein in the first architectural configuration the operating system is initialized in a first architectural mode, the first architectural mode comprising a first instruction set, and then processing switches (904, 906) to a second architectural mode, the second architectural mode comprising a second instruction set different from the first architectural instruction set, wherein in the second architectural configuration the operating system is initialized (1000, 1002) and processed in the second architectural mode, and wherein the performing the boot sequence comprises: executing one or more instructions irrespective of whether the processor is to perform initialization (1100, 1102) based on the first architectural configuration or the second architectural configuration, the one or more instructions common to the first architectural mode and the second architectural mode in that the one or more instructions are defined in the first architectural mode and the second architectural mode, and the executing comprising executing a switch operation to request a switch of architectural modes for the processor regardless of whether the processor is to perform initialization in the first architectural mode or the second architectural mode, wherein the switch operation performs differently based on which architecture of the first architectural mode or the second architectural mode, the processor is to perform initialization, and based on executing the switch operation, the control utility is booted in the selected architectural mode; wherein switching comprises sending a switch instruction to the processor to switch to the selected architectural mode. executing one or more instructions irrespective of whether the processor is to perform initialization (1100, 1102) based on the first architectural configuration or the second architectural configuration, the one or more instructions common to the first architectural mode and the second architectural mode in that the one or more instructions are defined in the first architectural mode and the second architectural mode, and the executing comprising executing a switch operation to request a switch of architectural modes for the processor regardless of whether the processor is to perform initialization in the first architectural mode or the second architectural mode, wherein the switch operation performs differently based on which architecture of the first architectural mode or the second architectural mode, the processor is to perform initialization, and based on executing the switch operation, the control utility is booted in the selected architectural mode; wherein switching comprises sending a switch instruction to the processor to switch to the selected architectural mode.
A unit LED display screen, comprising: at least one LED display module, a supporting substrate, and a control panel, wherein the supporting substrate is arranged between the LED display module and the control panel in a sandwich manner for supporting an LED display device, characterized in that the supporting substrate is made of carbon fibre, and in that the LED display module comprises: a front cover, a lamp plate and a pad which are arranged in sequence, the pad is adhered to the lamp plate by pouring a thermal-conductive material into through-holes of the pad, and is adhered to the side of the supporting substrate towards the lamp plate.
A rotation angle detection apparatus comprising: a driving gear configured to rotate integrally with a component whose rotation is to be detected; two driven gears (12, 13) having different numbers of teeth, each of the driven gears (12, 13) being in mesh with the driving gear; two sensors (17, 18) each configured to detect a rotation angle (α, β) of an associated one of the two driven gears (12, 13); and an arithmetic circuit configured to compute a rotation angle (θ) of the driving gear based on the rotation angles (α, β) of the two driven gears (12, 13), detected through the two sensors (17, 18), the arithmetic circuit being configured to, when a relationship between the rotation angles (α, β) of the two driven gears (12, 13), detected through the two sensors (17, 18), is different from the relationship when the rotation angle (α) of the driving gear, computed by the arithmetic circuit, is normal, detect an abnormality in the rotation angle (α) of the driving gear, computed by the arithmetic circuit, characterized in that the arithmetic circuit is configured to detect an abnormality in the rotation angle (θ) of the driving gear based on a difference (Δαβ) between the rotation angle (α) of the first driven gear and the rotation angle (β) of the second driven gear and an ideal difference after adjustment of gradients such that the gradient of the rotation angle (α) of the first driven gear to the rotation angle (θ) of the driving gear and the gradient of the rotation angle (β) of the second driven gear to the rotation angle of the driving gear are made equal to each other. a driving gear configured to rotate integrally with a component whose rotation is to be detected; two driven gears (12, 13) having different numbers of teeth, each of the driven gears (12, 13) being in mesh with the driving gear; two sensors (17, 18) each configured to detect a rotation angle (α, β) of an associated one of the two driven gears (12, 13); and an arithmetic circuit configured to compute a rotation angle (θ) of the driving gear based on the rotation angles (α, β) of the two driven gears (12, 13), detected through the two sensors (17, 18), the arithmetic circuit being configured to, when a relationship between the rotation angles (α, β) of the two driven gears (12, 13), detected through the two sensors (17, 18), is different from the relationship when the rotation angle (α) of the driving gear, computed by the arithmetic circuit, is normal, detect an abnormality in the rotation angle (α) of the driving gear, computed by the arithmetic circuit, characterized in that the arithmetic circuit is configured to detect an abnormality in the rotation angle (θ) of the driving gear based on a difference (Δαβ) between the rotation angle (α) of the first driven gear and the rotation angle (β) of the second driven gear and an ideal difference after adjustment of gradients such that the gradient of the rotation angle (α) of the first driven gear to the rotation angle (θ) of the driving gear and the gradient of the rotation angle (β) of the second driven gear to the rotation angle of the driving gear are made equal to each other.
Device for actuating an electric motor, in particular a DC motor in a cordless power tool, comprising a power circuit that comprises at least one power semiconductor (4, 5) and is intended for controllably applying an electrical voltage to the electric motor, as well as a control circuit for controlling the power semiconductor (4, 5) such that the electric motor can be operated at an adjustable speed or an adjustable torque, and comprising a switching module for switching on and/or off the operation for the electric motor, characterised in that the power circuit comprises one branch (9, 10), in each case, as a current path comprising a power semiconductor (4, 5) for the clockwise and for the anti-clockwise rotation of the electric motor, and in that a mechanical, electric switch which can be actuated by a user, via a manually operable slide, and is intended for adjusting the relevant branch (9, 10) is arranged for the power circuit and/or in the power circuit, wherein detection means for determining the switching position of the electric switch by the control circuit are provided, such that the power semiconductor (4, 5) associated with the particular switching position can be actuated using the control circuit.
Vehicle seat, in particular motor vehicle seat, comprising a seat part structure and a backrest structure pivotably arranged with its lower end on the seat part structure and covered by a backrest lining, a belt deflector with a belt runner opening for a seat belt being fastened to the upper region of said backrest structure on the vehicle sill side, said belt runner opening being oriented in the longitudinal direction of the vehicle, and said seat belt being guided out of a belt roller mechanism fixedly receiving one end of the seat belt through the belt runner opening of the belt deflector, wherein the belt deflector is covered by the backrest lining, wherein the backrest lining comprises a continuous belt through-opening which coincides with the belt runner opening, said belt through-opening being covered on the backrest front face by a belt cover comprising a belt guide slot, fixedly connected to the backrest lining, and not fixedly connected to the belt deflector.
Gas absorption heat pump device including: - a pair of coolant/absorbent fluids, the coolant fluid (F1, F2) being subjected to state changes inside the device, - a gas combustion generator having a gas burner, for heating a rich solution of a mixture of coolant/absorbent fluids so as to desorb a gaseous coolant fluid, - a condenser for condensing the gaseous coolant fluid into a liquid coolant fluid, - an evaporator for evaporating the liquid coolant fluid so as to obtain a gaseous coolant fluid at the outlet, - an absorber for bringing the gaseous coolant fluid into contact with a weak solution of a mixture of coolant/absorbent fluids, coming from desorption of the coolant fluid after heating in the generator, so as to form a rich solution of a mixture of coolant/absorbent fluids returning to the generator, the generator including a first pipe for discharging the combustion fumes, characterised in that the evaporator is located at least partially in a second pipe including an outside air inlet and an outside air outlet, and in that the first pipe leads into the second pipe so that the heat from the combustion fumes is used for heating the air used in the evaporator, in that the generator includes a third pipe for supplying outside air leading into the second pipe wherein the evaporator is located, in that the device includes a first ventilation device located in the second pipe at the evaporator for ventilating between the outside air coming from the outside air inlet and the hot air of the combustion fumes coming from the first pipe, in that the device includes a second ventilation device located in the third pipe for ventilating the outside air coming from the outside air inlet towards the gas burner of the generator, and in that the first and second ventilation devices are asynchronous. - a pair of coolant/absorbent fluids, the coolant fluid (F1, F2) being subjected to state changes inside the device, - a gas combustion generator having a gas burner, for heating a rich solution of a mixture of coolant/absorbent fluids so as to desorb a gaseous coolant fluid, - a condenser for condensing the gaseous coolant fluid into a liquid coolant fluid, - an evaporator for evaporating the liquid coolant fluid so as to obtain a gaseous coolant fluid at the outlet, - an absorber for bringing the gaseous coolant fluid into contact with a weak solution of a mixture of coolant/absorbent fluids, coming from desorption of the coolant fluid after heating in the generator, so as to form a rich solution of a mixture of coolant/absorbent fluids returning to the generator,
Method of determining the interstitial pressure in the marine sediment at various depths, said method comprising the following step: - sinking into the marine sediment a hollow rod equipped with a plurality of pressure sensors and temperature sensors disposed along the rod, characterised in that, said rod being filled with a dielectric liquid, said method further comprises the following steps: - measuring by means of the pressure sensors the pressure in the sediment with respect to the pressure of the dielectric liquid in the rod for a plurality of depth levels, - determining by means of the temperature sensors the temperature in proximity to the pressure sensors, and - determining a real value of interstitial pressure for each of the depth levels on the basis of the pressure measurements provided by the pressure sensors and the temperature measurements provided by the temperature sensors. - sinking into the marine sediment a hollow rod equipped with a plurality of pressure sensors and temperature sensors disposed along the rod, - measuring by means of the pressure sensors the pressure in the sediment with respect to the pressure of the dielectric liquid in the rod for a plurality of depth levels, - determining by means of the temperature sensors the temperature in proximity to the pressure sensors, and - determining a real value of interstitial pressure for each of the depth levels on the basis of the pressure measurements provided by the pressure sensors and the temperature measurements provided by the temperature sensors.
A package, comprising: a glass container, including: a base; a body extending axially from the base; and a neck finish extending from the body, the neck finish having an axial sealing surface, wherein at least a portion of the axial sealing surface extends both axially toward the base and radially outwardly, and a closure assembly that includes a skirt, a lid, and a seal for sealing the contents of the container under vacuum pressure, wherein the lid has a bottom on which a circumferential sealing surface extends radially inwardly with respect to an edge, and radially outwardly of a central region of the lid, characterised in that the sealing surface of the lid has a circumferential bevel or wedge extending more axially away from a top side of the lid at a radially inwardly portion of the sealing surface than at a radially outwardly portion. 2. a base; a body extending axially from the base; and a neck finish extending from the body, the neck finish having an axial sealing surface, wherein at least a portion of the axial sealing surface extends both axially toward the base and radially outwardly, and a closure assembly that includes a skirt, a lid, and a seal for sealing the contents of the container under vacuum pressure, wherein the lid has a bottom on which a circumferential sealing surface extends radially inwardly with respect to an edge, and radially outwardly of a central region of the lid, characterised in that the sealing surface of the lid has a circumferential bevel or wedge extending more axially away from a top side of the lid at a radially inwardly portion of the sealing surface than at a radially outwardly portion. 2.