mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a first processor having fetch logic for fetching instructions from memory and decode logic for decoding said instructions; a second processor coupled to said first processor, characterized in that the second processor comprises control means arranged to detect patterns of supported and unsupported instructions yet to be executed, wherein a supported instruction is an instruction executable by the first processor and an unsupported instruction is an instruction not executable by the first processor; wherein on detection by the control means, of a number of consecutive supported instructions less than a predetermined threshold, the first processor is arranged to operate in a first mode in which the fetch logic is operable to fetch the supported instructions from memory and the decode logic is operable to decode said instructions for execution by the first processor; wherein on detection of an unsupported instruction by the control means, the second processor is arranged to execute the unsupported instruction; and wherein on detection of an unsupported instruction followed by less than the threshold number of consecutive supported instructions before the next unsupported instruction, the first processor is arranged to operate in a second mode in which the second processor is operable to fetch the supported instructions and to load the fetched instructions into the decode logic for execution by the first processor. a first processor having fetch logic for fetching instructions from memory and decode logic for decoding said instructions; a second processor coupled to said first processor, characterized in that the second processor comprises control means arranged to detect patterns of supported and unsupported instructions yet to be executed, wherein a supported instruction is an instruction executable by the first processor and an unsupported instruction is an instruction not executable by the first processor; wherein on detection by the control means, of a number of consecutive supported instructions less than a predetermined threshold, the first processor is arranged to operate in a first mode in which the fetch logic is operable to fetch the supported instructions from memory and the decode logic is operable to decode said instructions for execution by the first processor; wherein on detection of an unsupported instruction by the control means, the second processor is arranged to execute the unsupported instruction; and wherein on detection of an unsupported instruction followed by less than the threshold number of consecutive supported instructions before the next unsupported instruction, the first processor is arranged to operate in a second mode in which the second processor is operable to fetch the supported instructions and to load the fetched instructions into the decode logic for execution by the first processor.
An optical biometric sensor comprising: an image sensor comprising an array of photodetectors, wherein for acquiring sensing signals, the image sensor is controllable to sequentially start exposure of subsets (306, 308, 309) of photodetectors; and a timing circuitry configured to control the start of exposure of a subset of photodetectors such that a data production rate from the image sensor is adapted to a present data transfer capacity on a data transfer bus configured to transfer data indicative of the acquired sensing signals from the optical biometric sensor to a host device. an image sensor comprising an array of photodetectors, wherein for acquiring sensing signals, the image sensor is controllable to sequentially start exposure of subsets (306, 308, 309) of photodetectors; and a timing circuitry configured to control the start of exposure of a subset of photodetectors such that a data production rate from the image sensor is adapted to a present data transfer capacity on a data transfer bus configured to transfer data indicative of the acquired sensing signals from the optical biometric sensor to a host device.
Holding device for inserting into an initially open can which, after it is filled, is closed by fitting a cover, characterised in that the holding device is designed so that it is moved from a first state to a second state when a cover is fitted onto the initially open can, wherein the holding device is formed by two parts (110, 120) which are releasably connected to one another and are arranged and designed in such a way that, when a cover is fitted onto the initially open can, at least one of the two parts (110, 120) comes into contact with the cover in such a way that at least one section of the connection between the two parts is released.
Pressure indicator comprising a base, a deformable membrane fixed to the base sealed against fluids along a closed edge, and a body secured to the base, delimiting a hollow volume covering the deformable membrane on the side opposite the base, by comprising at least the closed edge, at least one inlet mouth (5, 5') for a fluid of which the pressure can be measured in a pressure range, wherein the deformable membrane is such that the expansion thereof for said pressure range is sufficient to be detectable to the naked eye and to make it possible for a direct display, indicating the pressure, wherein the base is bored with at least one first hole of which a first end opens between the deformable membrane and the base in the closed edge, characterised in that the body is bored with at least one second hold of which a first end opens into said hollow volume, in that the other end of the first hole is connected to the inlet mouth, respectively to the open air, in that the other end of the second hole is connected to the open air, respectively to the inlet mouth, such that a pressure, respectively depression, of fluid to the inlet mouth (5, 5') causes an expansion of the deformable membrane in the hollow volume delimited by the body in that the indicator comprises at least one pressure marker carried by the body, facing an expansion position of the deformable membrane, making it possible to determine, according to said expansion position of the membrane, two ranges of pressure values, in that the pressure indicator is configured such that the membrane, during the expansion thereof, bears against a wall of the body carrying the at least one pressure marker and in that the pressure indicator is configured such that the membrane progressively spread over the wall as the pressure increases.
A process comprising: a) producing a first adduct comprising a reaction product of a difunctional epoxy and Isophrondiamine (IPDA); b) producing a second adduct comprising a reaction product of a difunctional epoxy and m-Xylylenediamine (MXDA) and c) contacting i) the first adduct; ii) the second adduct; iii) an accelerator; and iv) a modifier to form a hardener composition. a) producing a first adduct comprising a reaction product of a difunctional epoxy and Isophrondiamine (IPDA); b) producing a second adduct comprising a reaction product of a difunctional epoxy and m-Xylylenediamine (MXDA) and c) contacting i) the first adduct; ii) the second adduct; iii) an accelerator; and iv) a modifier i) the first adduct; ii) the second adduct; iii) an accelerator; and iv) a modifier
A package, comprising: a sleeve comprising a plurality of walls, wherein the plurality of walls comprises a bottom wall, a top wall, and a plurality of sidewalls connecting the top wall and the bottom wall; the bottom wall, the top wall and the side walls cooperatively form an inner cavity having an insertion opening; and a tray slidably received in the inner cavity via the insertion opening; wherein the sleeve is provided with a rear locking slot on one of the plurality of sidewalls, and the tray is provided with a locking tab capable of elastically extending through the rear locking slot to lock the tray in place relative to the sleeve, and the sleeve is further provided with a release tab capable of pressing the locking tab into the inner cavity, so as to release the locking tab from the rear locking slot, wherein the rear locking slot defines a notch on the sidewall and the top wall; wherein the release tab comprises an end fixed to the top wall, two side edges extending into and connecting to the top wall, said package being characterized in that the release tab further comprises a free edge having two ends, each side edge being connected to a respective end of the free edge, the end of the release tab fixed to the top wall being away from the free edge, and the release tab being adapted, when being pressed, to bend downward to press the locking tab and deform it elastically in a bending state to retract into the inner cavity. a sleeve comprising a plurality of walls, wherein the plurality of walls comprises a bottom wall, a top wall, and a plurality of sidewalls connecting the top wall and the bottom wall; the bottom wall, the top wall and the side walls cooperatively form an inner cavity having an insertion opening; and a tray slidably received in the inner cavity via the insertion opening; wherein the sleeve is provided with a rear locking slot on one of the plurality of sidewalls, and the tray is provided with a locking tab capable of elastically extending through the rear locking slot to lock the tray in place relative to the sleeve, and the sleeve is further provided with a release tab capable of pressing the locking tab into the inner cavity, so as to release the locking tab from the rear locking slot, wherein the rear locking slot defines a notch on the sidewall and the top wall; wherein the release tab comprises an end fixed to the top wall, two side edges extending into and connecting to the top wall, said package being characterized in that the release tab further comprises a free edge having two ends, each side edge being connected to a respective end of the free edge, the end of the release tab fixed to the top wall being away from the free edge, and the release tab being adapted, when being pressed, to bend downward to press the locking tab and deform it elastically in a bending state to retract into the inner cavity.
A squeezable tube dispenser comprising: a body comprising an internal cavity for containing a substance, a sealed bottom end, and an open top end; a nozzle coupled to the body adjacent to the open top end of the body, the nozzle defining a passageway into the internal cavity; and a closure component comprising: a cover member having a top portion and a sidewall portion, an inner surface of the top portion and an inner surface of the sidewall portion defining a cover cavity; and a cap member coupled to the inner surface of the top portion of the cover member and protruding downwardly therefrom into the cover cavity, the cap member comprising an inner surface (238, 240) that defines a cap cavity; wherein the cap member of the closure component is detachably coupled to the nozzle via a friction fit with the nozzle nesting within the cap cavity of the cap member; and wherein the body and the cover member of the closure component are formed predominantly from a fibrous material and the nozzle and the cap member of the closure component are formed from a plastic material, and wherein the squeezable tube dispenser comprises no more than 15% by weight of plastic. a body comprising an internal cavity for containing a substance, a sealed bottom end, and an open top end; a nozzle coupled to the body adjacent to the open top end of the body, the nozzle defining a passageway into the internal cavity; and a closure component comprising: a cover member having a top portion and a sidewall portion, an inner surface of the top portion and an inner surface of the sidewall portion defining a cover cavity; and a cap member coupled to the inner surface of the top portion of the cover member and protruding downwardly therefrom into the cover cavity, the cap member comprising an inner surface (238, 240) that defines a cap cavity; a cover member having a top portion and a sidewall portion, an inner surface of the top portion and an inner surface of the sidewall portion defining a cover cavity; and a cap member coupled to the inner surface of the top portion of the cover member and protruding downwardly therefrom into the cover cavity, the cap member comprising an inner surface (238, 240) that defines a cap cavity; wherein the cap member of the closure component is detachably coupled to the nozzle via a friction fit with the nozzle nesting within the cap cavity of the cap member; and wherein the body and the cover member of the closure component are formed predominantly from a fibrous material and the nozzle and the cap member of the closure component are formed from a plastic material, and wherein the squeezable tube dispenser comprises no more than 15% by weight of plastic.
An electric vehicle comprising: a motor unit configured to drive a wheel, the motor unit including motor coils; a control system that controls the motor unit, the control system including an inverter; a motor temperature sensor (Sma) that is associated with the motor coils of the motor unit and is configured to sense temperature Tmc of the motor coils or an inverter temperature sensor (Sia) that is associated with the inverter and is configured to sense temperature Tic of the inverter; and a limiter configured to, if the temperature Tmc sensed by the motor temperature sensor (Sma) exceeds a motor coils temperature threshold, reduce a motor current of the motor unit until a derivative dTmc/dt of the sensed temperature Tmc with time t drops to zero or below, or to, if the temperature Tic sensed by the inverter temperature sensor (Sia) exceeds an inverter temperature threshold, limit a current command to the inverter until a derivative dTic/dt of the sensed temperature Tic with time t drops to zero or below, the limiter being further configured to, when the dTmc/dt or dTic/dt drops to zero or below, stop reducing a motor current of the motor or limiting the current command to the inverter. a motor unit configured to drive a wheel, the motor unit including motor coils; a control system that controls the motor unit, the control system including an inverter; a motor temperature sensor (Sma) that is associated with the motor coils of the motor unit and is configured to sense temperature Tmc of the motor coils or an inverter temperature sensor (Sia) that is associated with the inverter and is configured to sense temperature Tic of the inverter; and a limiter configured to, if the temperature Tmc sensed by the motor temperature sensor (Sma) exceeds a motor coils temperature threshold, reduce a motor current of the motor unit until a derivative dTmc/dt of the sensed temperature Tmc with time t drops to zero or below, or to, if the temperature Tic sensed by the inverter temperature sensor (Sia) exceeds an inverter temperature threshold, limit a current command to the inverter until a derivative dTic/dt of the sensed temperature Tic with time t drops to zero or below, the limiter being further configured to, when the dTmc/dt or dTic/dt drops to zero or below, stop reducing a motor current of the motor or limiting the current command to the inverter.
A method of electronically controlling a light beam distribution of a solid-state luminaire, the method comprising: presenting a field of selectable control features on a graphical user interface on a computing device configured to be communicatively coupled with the solid-state luminaire, wherein at least one of the field of selectable control features is presented as a graphical canvas including two or more selectable nodes each corresponding to one or more light sources of the solid-state luminaire; and adjusting the light beam distribution of the solid-state luminaire based on a selection of one of the two or more selectable nodes. presenting a field of selectable control features on a graphical user interface on a computing device configured to be communicatively coupled with the solid-state luminaire, wherein at least one of the field of selectable control features is presented as a graphical canvas including two or more selectable nodes each corresponding to one or more light sources of the solid-state luminaire; and adjusting the light beam distribution of the solid-state luminaire based on a selection of one of the two or more selectable nodes.
A method for managing alternative frequency lists for a radio data system, the method comprising: measuring a received signal strength of a main frequency, wherein the main frequency is a currently received frequency; receiving at least one alternative frequency list; establishing an accumulated alternative frequency list including all previously received alternative frequency lists; comparing the received signal strength of the main frequency with a reference received signal strength; and attempting, when the received signal strength of the main frequency is less than the reference received signal strength, to switch to an alternative frequency in the accumulated alternative frequency list; characterized in that attempting to switch to the alternative frequency comprises deleting the accumulated frequency list when the received signal strength of each of the alternative frequencies in the accumulated frequency list is less than a predetermined valid received signal strength. measuring a received signal strength of a main frequency, wherein the main frequency is a currently received frequency; receiving at least one alternative frequency list; establishing an accumulated alternative frequency list including all previously received alternative frequency lists; comparing the received signal strength of the main frequency with a reference received signal strength; and attempting, when the received signal strength of the main frequency is less than the reference received signal strength, to switch to an alternative frequency in the accumulated alternative frequency list; characterized in that attempting to switch to the alternative frequency comprises deleting the accumulated frequency list when the received signal strength of each of the alternative frequencies in the accumulated frequency list is less than a predetermined valid received signal strength.
A knit fabric comprising elastic fibers wherein the elastic fibers comprise the reaction product of at least one ethylene polymer and at least one cross-linking agent, said cross-linking agent being any means which cross-links one or more of the fibers, and wherein the percent of cross-linked polymer is from 10 to 90 percent as measured by the weight percent of gels formed, wherein the gel content is determined as described in Example 28, and wherein at least a portion of said fabric has been molded.
An air data probe comprising: a probe head (102;202;402;602), the probe head defining a longitudinal axis with a forward tip (104;204;404;604) and a probe head surface (107;207;407;607); and a raised portion (106;206;406;606) defined in the probe head surface aft of the forward tip, wherein the raised portion is raised radially relative to the probe head surface, characterised in that the air data probe further comprises a single static port (110;210;410;610) proximate the forward tip and the raised portion is arranged in a single strip or two opposing strips defined along the surface (107;207;407;607) of the probe head (102;202;402;602) in an axial direction, wherein a center of the one or both strip(s) is located, in a circumferential direction, 90 degrees from the static port (110;210;410;610) to trip a fluid boundary layer passing over the probe head to transition from laminar to turbulent for reducing boundary layer separation for consistent readings at high altitudes and high mach numbers. a probe head (102;202;402;602), the probe head defining a longitudinal axis with a forward tip (104;204;404;604) and a probe head surface (107;207;407;607); and a raised portion (106;206;406;606) defined in the probe head surface aft of the forward tip, wherein the raised portion is raised radially relative to the probe head surface, characterised in that the air data probe further comprises a single static port (110;210;410;610) proximate the forward tip and the raised portion is arranged in a single strip or two opposing strips defined along the surface (107;207;407;607) of the probe head (102;202;402;602) in an axial direction, wherein a center of the one or both strip(s) is located, in a circumferential direction, 90 degrees from the static port (110;210;410;610) to trip a fluid boundary layer passing over the probe head to transition from laminar to turbulent for reducing boundary layer separation for consistent readings at high altitudes and high mach numbers.
A self-cleaning material comprising a solid surface having one to ten monolayers of titanium dioxide coated thereon, said titanium dioxide coating comprising titanium dioxide crystals having crystal size of about 3-25 nm and crystallinity of 70-100%, wherein the titanium dioxide coating comprises surface hydroxyl groups, wherein 90-100% of the surface hydroxyl groups are characterized by at least one absorption peak between 3000-3680 cm-1 in an infrared spectrum when recorded at 150°C.
A pressure sensing device comprising: a first electrode and a second electrode being formed of or comprising a unitary piece of non-metallic conductive material, wherein the first electrode and second electrode are spaced apart from each other by a distance that is changeable in response to a pressure or force applied to the first and/or second electrode; and a measurement module connected to the first or second electrode at a plurality of sensing points (S1, S2) on said electrode, wherein the measurement module is configured to: measure a change in capacitance between the first and second electrode, in response to a change in the distance when a pressure or force is applied to the first and/or second electrode, at each sensing point individually and at all sensing points simultaneously; map each measurement obtained from an individual sensing point to a distance of the applied pressure/force from said individual sensing point; and determine the location, area and the amount of the applied pressure on the first and/or second electrode from the individual measurements and mapped distances, and the amount of the applied pressure from the simultaneous measurement. a first electrode and a second electrode being formed of or comprising a unitary piece of non-metallic conductive material, wherein the first electrode and second electrode are spaced apart from each other by a distance that is changeable in response to a pressure or force applied to the first and/or second electrode; and a measurement module connected to the first or second electrode at a plurality of sensing points (S1, S2) on said electrode, wherein the measurement module is configured to: measure a change in capacitance between the first and second electrode, in response to a change in the distance when a pressure or force is applied to the first and/or second electrode, at each sensing point individually and at all sensing points simultaneously; map each measurement obtained from an individual sensing point to a distance of the applied pressure/force from said individual sensing point; and determine the location, area and the amount of the applied pressure on the first and/or second electrode from the individual measurements and mapped distances, and the amount of the applied pressure from the simultaneous measurement. measure a change in capacitance between the first and second electrode, in response to a change in the distance when a pressure or force is applied to the first and/or second electrode, at each sensing point individually and at all sensing points simultaneously; map each measurement obtained from an individual sensing point to a distance of the applied pressure/force from said individual sensing point; and determine the location, area and the amount of the applied pressure on the first and/or second electrode from the individual measurements and mapped distances, and the amount of the applied pressure from the simultaneous measurement.