mhurhangee/ep-ind-claims huggingface dataset:
A direct-current solid-fuel grill comprising: a direct-current power source; a direct-current motor receiving power from the direct-current power source; a solid-fuel grill component configured to be driven by the direct-current motor; and a direct-current controller in communication with the direct-current motor, wherein the direct-current controller is configured to provide at least: a first signal to the direct-current motor causing the solid-fuel grill component to actuate at a first velocity, and a second signal to the direct-current motor causing the solid-fuel grill component to actuate at a second velocity; characterised in that the first velocity comprises a positive velocity and the second velocity comprises a negative velocity. a direct-current power source; a direct-current motor receiving power from the direct-current power source; a solid-fuel grill component configured to be driven by the direct-current motor; and a direct-current controller in communication with the direct-current motor, wherein the direct-current controller is configured to provide at least: a first signal to the direct-current motor causing the solid-fuel grill component to actuate at a first velocity, and a second signal to the direct-current motor causing the solid-fuel grill component to actuate at a second velocity; a first signal to the direct-current motor causing the solid-fuel grill component to actuate at a first velocity, and a second signal to the direct-current motor causing the solid-fuel grill component to actuate at a second velocity; characterised in that the first velocity comprises a positive velocity and the second velocity comprises a negative velocity.
A method of isolating and purifying (-)-Ambrox from a reaction mixture, comprising one or more of the compounds, and said method comprising the step of selectively crystallizing (-)-Ambrox from the mixture comprising one or more of the compounds, and, whereby (-)-Ambrox is caused to crystallize from a solvent, whilst the compounds, and remain dissolved in the crystallizing solvent.
In a digital cinema network of NTP-timekeeping devices, the network having a variable, but expected maximum, latency among its devices, one of the NTP-timekeeping devices decoding video information, which video information has a nominal frame rate, at an actual frame rate determined by a clock that is not locked to the network NTP time, the network having a schedule of instructions to be performed at one or more future frame times by one or more devices on the network, wherein the schedule's future NTP times corresponding to such_future frame times are initially based on said nominal frame rate, a method of instructing said one or more devices with improved frame accuracy, comprising adjusting one or more of the future NTP times in said schedule of instructions in response to a measure of the actual frame rate, and sending at least one NTP-time-adjusted instruction to at least one device on the network, wherein the adjusted NTP time or times of the at least one instruction is or are at least as far in the future as the expected maximum network time latency.
Device for braking a wheel of an aircraft, a hub (5a, 5b) of which is mounted rotatably on an axle, the device comprising a stack of discs threaded on a torque tube which is intended to be attached to the axle and equipped internally with a heat shield which is intended to extend opposite an outer surface (5.1) of the hub facing the stack of discs to protect said hub from heat radiation generated by the stack of discs, the heat shield comprising a tubular body coaxial to the torque tube, the braking device being characterized in that the heat shield also comprises a plurality of retaining tabs which are resiliently deformable and secured to the tubular body, each of the retaining tabs and an inner surface (12.1) of the torque tube comprising additional raised portions to engage with one another so as to axially immobilise the heat shield inside the torque tube.
A hybrid cord having a Nylon core yarn and an Aramid wrap yarn wrapped around the Nylon core yarn, the hybrid cord having the cord construction: A / 1 Aramid + B / 1 Nylon x Z + y Z / z S or A / 1 Aramid + B / 1 Nylon x S + y S / z Z wherein A is the weight per length of the Aramid wrap yarn and is in a range of from 900 to 1100 Denier (1000 to 1222.22 Dtex), B is the weight per length of the Nylon core yarn and is in a range of from 700 to 900 Denier (777.78 Dtex to 1000 Dtex), x is the number twists per 2.54 cm of the Aramid wrap yarn and is in a range of from 4 to 6, y is the number twists per 2.54 cm of the Nylon core yarn and is in a range of from 4 to 6, and z is the number twists per 2.54 cm of the hybrid cord and is in a range of from 4 to 6.
A cushion member for a patient interface for delivery of a supply of pressurised air or breathable gas to an entrance of a patient's airways, the cushion member comprising: at least one retaining structure for repeatable engagement with and disengagement from a frame member; and a seal-forming structure having a nasal opening to provide pressurized gas to both nares of the patient and a plenum chamber formed in one piece, the seal-forming structure configured to seal around an inferior periphery of the patient's nose, and the seal-forming structure and plenum chamber permanently connected to the at least one retaining structure, wherein the seal-forming structure is made from a first material and the at least one retaining structure is made from a second material with different mechanical characteristics from the first material and the second material is more rigid than the first material, wherein the seal-forming structure comprises a pair of protruding ends extending symmetrically about the nasal opening, each protruding end configured to seal against a region of the patient's face where the ala of the patient's nose joins to the patient's face, characterized in that: the seal-forming structure comprises a pair of protruding end support sections, each of the pair of protruding end support sections extending into a gas chamber defined at least in part by the seal-forming structure to support a corresponding protruding end, and in that: each protruding end support section comprises a solid projection extending into the gas chamber in cantilever fashion. at least one retaining structure for repeatable engagement with and disengagement from a frame member; and a seal-forming structure having a nasal opening to provide pressurized gas to both nares of the patient and a plenum chamber formed in one piece, the seal-forming structure configured to seal around an inferior periphery of the patient's nose, and the seal-forming structure and plenum chamber permanently connected to the at least one retaining structure, wherein the seal-forming structure is made from a first material and the at least one retaining structure is made from a second material with different mechanical characteristics from the first material and the second material is more rigid than the first material, wherein the seal-forming structure comprises a pair of protruding ends extending symmetrically about the nasal opening, each protruding end configured to seal against a region of the patient's face where the ala of the patient's nose joins to the patient's face, characterized in that: the seal-forming structure comprises a pair of protruding end support sections, each of the pair of protruding end support sections extending into a gas chamber defined at least in part by the seal-forming structure to support a corresponding protruding end, and in that: each protruding end support section comprises a solid projection extending into the gas chamber in cantilever fashion.
An input device comprising: a base (100, 100'); a plastic part (300, 300''', 300'''', 300''''') provided on the base; and a touch sensor of sheet form, the touch sensor being disposed on the base (100, 100') and embedded in the plastic part, a bonding layer between the base and the plastic part, characterized in that the touch sensor is fixed to the base with the bonding layer. a base (100, 100'); a plastic part (300, 300''', 300'''', 300''''') provided on the base; and a touch sensor of sheet form, the touch sensor being disposed on the base (100, 100') and embedded in the plastic part, a bonding layer between the base and the plastic part, characterized in that the touch sensor is fixed to the base with the bonding layer.
A container with a lid retainer system comprising: - a body of the container formed by four side walls, which are opposite one another in pairs, an upper opening, and a base; and - a lid of the container having a configuration corresponding to the plan section of the body and a skirting which projects along the perimeter such that when the lid is in a closed position, it completely covers the upper opening of the body and the skirting extends along the outer portion of the side walls of said body, wherein the lid retainer system comprises housings, and retainer devices formed by projections extending from the lid, on opposite sides of the skirting, towards the interior of said skirting, and wherein the retainer devices are configured for being housed in the housings, characterized in that the housings are arranged on at least two opposite side walls, and in that the retainer devices are configured for being housed in the housings on the side walls when the lid is arranged in an open position, such that the lid is supported on two side walls opposite one another. - a body of the container formed by four side walls, which are opposite one another in pairs, an upper opening, and a base; and - a lid of the container having a configuration corresponding to the plan section of the body and a skirting which projects along the perimeter such that when the lid is in a closed position, it completely covers the upper opening of the body and the skirting extends along the outer portion of the side walls of said body,
Anhydrous cosmetic or dermatological composition comprising, in a physiologically acceptable support: a) at least one merocyanine compound corresponding to the following formula and also the E/E- or E/Z- geometrical isomer forms thereof: in which: A is -O- or -NH; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, it being possible for the said groups to be interrupted with one or more O, and b) at least one oily phase comprising at least one oil chosen from hydrocarbon-based oils, silicone oils and fluoro oils, and mixtures thereof. a) at least one merocyanine compound corresponding to the following formula and also the E/E- or E/Z- geometrical isomer forms thereof: in which: A is -O- or -NH; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, it being possible for the said groups to be interrupted with one or more O, and A is -O- or -NH; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, it being possible for the said groups to be interrupted with one or more O, and b) at least one oily phase comprising at least one oil chosen from hydrocarbon-based oils, silicone oils and fluoro oils, and mixtures thereof.
A device for weighing fish comprising: a frame comprising a plurality of feet; a support for supporting a fish to be weighed, wherein the support is attachable to the frame, wherein when the support is attached to the frame, the support forms a hammock on which a fish may be placed for weighing; a plurality of weight sensors, wherein the number of weight sensors is equal to the number of frame feet; and a receiving unit comprising a data processing unit and a display, wherein the receiving unit is capable of data communication with the plurality of weight sensors, wherein each weight sensor is configured to transmit mass data to the receiving unit, wherein the data processing unit is programmed to determine a mass from the mass data received from the plurality of weight sensors, and wherein the display is configured to display the mass determined by the data processing unit, characterised in that each weight sensor is integrally attached to one of the plurality of feet. a frame comprising a plurality of feet; a support for supporting a fish to be weighed, wherein the support is attachable to the frame, wherein when the support is attached to the frame, the support forms a hammock on which a fish may be placed for weighing; a plurality of weight sensors, wherein the number of weight sensors is equal to the number of frame feet; and a receiving unit comprising a data processing unit and a display, wherein the receiving unit is capable of data communication with the plurality of weight sensors,
An apparatus for applying negative pressure therapy to a wound, comprising: a source of negative pressure (150, 230) configured to be in fluidic communication with a wound dressing via a fluid flow path, the source of negative pressure configured to aspirate fluid from the wound; a pressure sensor configured to measure pressure under the wound dressing; a controller configured to operate the source of negative pressure to achieve a pressure setting under the wound dressing, the controller further configured to: determine a pressure difference between current pressure measured by the pressure sensor and the pressure setting, wherein the pressure setting is more positive than the current pressure; and based on the pressure difference and a compression setting, operate the source of negative pressure to attain the pressure setting by turning off the source of negative pressure for a duration of time, the duration of time based on the compression setting, characterised in that the compression setting is selected from a plurality of settings comprising a low compression setting, a medium compression setting, and a high compression setting, wherein the compression setting is configured to be selected by a user. a source of negative pressure (150, 230) configured to be in fluidic communication with a wound dressing via a fluid flow path, the source of negative pressure configured to aspirate fluid from the wound; a pressure sensor configured to measure pressure under the wound dressing; a controller configured to operate the source of negative pressure to achieve a pressure setting under the wound dressing, the controller further configured to: determine a pressure difference between current pressure measured by the pressure sensor and the pressure setting, wherein the pressure setting is more positive than the current pressure; and based on the pressure difference and a compression setting, operate the source of negative pressure to attain the pressure setting by turning off the source of negative pressure for a duration of time, the duration of time based on the compression setting, determine a pressure difference between current pressure measured by the pressure sensor and the pressure setting, wherein the pressure setting is more positive than the current pressure; and based on the pressure difference and a compression setting, operate the source of negative pressure to attain the pressure setting by turning off the source of negative pressure for a duration of time, the duration of time based on the compression setting, characterised in that the compression setting is selected from a plurality of settings comprising a low compression setting, a medium compression setting, and a high compression setting, wherein the compression setting is configured to be selected by a user. comprising a low compression setting, a medium compression setting, and a high compression setting, wherein the compression setting is configured to be selected by a user.
A hollow spring member which is constituted of a hollow rod, and includes a terminal sealed portion at an end portion of the rod, the terminal sealed portion having a rotationally symmetric shape in which an axis passing through a center of the rod is a symmetric axis, characterized by comprising: an end wall portion including a flat end face which is substantially flat and perpendicular to the axis; an arc-shaped curved surface formed between an outer peripheral surface of the rod and the flat end face, the arc-shaped curved surface connecting between the outer peripheral surface of the rod and the end face with a smooth curved surface, a distal-end-center closure portion existing on the axis at a center of the end wall portion; and a recess formed on an inner surface of the end wall portion, and having a rotationally symmetric shape in which the axis is the symmetric axis, wherein a thickness of the recess of the end wall portion is reduced toward the axis, and a center of the recess is located on the axis. an end wall portion including a flat end face which is substantially flat and perpendicular to the axis; an arc-shaped curved surface formed between an outer peripheral surface of the rod and the flat end face, the arc-shaped curved surface connecting between the outer peripheral surface of the rod and the end face with a smooth curved surface, a distal-end-center closure portion existing on the axis at a center of the end wall portion; and a recess formed on an inner surface of the end wall portion, and having a rotationally symmetric shape in which the axis is the symmetric axis, wherein a thickness of the recess of the end wall portion is reduced toward the axis, and a center of the recess is located on the axis.
A method of garbage collection in a non-volatile memory device, the method characterised by comprising: with a controller in the memory device: receiving incoming data to write to a logical addressable unit (402, 404, 406); determining an amount of garbage collection to be performed for a garbage collection operation; if the determined amount of garbage collection is less than a predetermined threshold, performing the garbage collection operation; and writing the incoming data to at least one physical metablock (408, 410, 412, 414) corresponding to the logical addressable unit (402, 404, 406). determining an amount of garbage collection to be performed for a garbage collection operation; if the determined amount of garbage collection is less than a predetermined threshold, performing the garbage collection operation; and writing the incoming data to at least one physical metablock (408, 410, 412, 414) corresponding to the logical addressable unit (402, 404, 406).
A method comprising: monitoring first characteristics of an electrical signal supplied to a traction motor of a vehicle during a first detection window, the first characteristics representing a first motor electrical signature for the traction motor, wherein the first characteristics are monitored as measurements of electric current supplied to the traction motor; wherein the first detection window is associated with one or more designated operating conditions of the traction motor and monitoring the characteristics occurs when one or more actual operating conditions of the traction motor exceed the one or more designated operating conditions, and wherein the one or more designated operating conditions include at least one of a designated speed or a designated torque of the actual traction motor and the one or more actual operating conditions include at least one of an actual speed or an actual torque of the traction motor; deriving one or more signature values from a first mathematical model of the first motor electrical signature; predicting a mechanical failure of the traction motor based on the one or more signature values, wherein predicting the mechanical failure includes determining that the traction motor will mechanically fail when the one or more signature values exceed a designated threshold; and automatically generating a vehicle control signal for changing one or more of tractive effort or braking effort of the vehicle in response to predicting the mechanical failure. monitoring first characteristics of an electrical signal supplied to a traction motor of a vehicle during a first detection window, the first characteristics representing a first motor electrical signature for the traction motor, wherein the first characteristics are monitored as measurements of electric current supplied to the traction motor; wherein the first detection window is associated with one or more designated operating conditions of the traction motor and monitoring the characteristics occurs when one or more actual operating conditions of the traction motor exceed the one or more designated operating conditions, and wherein the one or more designated operating conditions include at least one of a designated speed or a designated torque of the actual traction motor and the one or more actual operating conditions include at least one of an actual speed or an actual torque of the traction motor; deriving one or more signature values from a first mathematical model of the first motor electrical signature; predicting a mechanical failure of the traction motor based on the one or more signature values, wherein predicting the mechanical failure includes determining that the traction motor will mechanically fail when the one or more signature values exceed a designated threshold; and automatically generating a vehicle control signal for changing one or more of tractive effort or braking effort of the vehicle in response to predicting the mechanical failure.
An electric motor system (110; 210; 310) comprising: a power supply (112; 212); an electric motor (111; 211; 311) connected to said power supply (112; 212); an object (116; 216; 316) driven by said motor (111; 211; 311) having a range of motion and a substantially neutral range or position (134, 234) within said range of motion, wherein said object is not as inclined to move when at rest in said neutral range or position; a power sensor (114, 214) configured to sense power from said power supply (112; 212); a position sensor (115, 215) configured to sense position of said object (116; 216; 316) in at least a portion of said range of motion; an energy storage (123; 223); a controller (122; 222) connected to said position sensor (115, 215), power sensor (114, 214), power supply (112; 212) and energy storage (123; 223); characterised in that said controller (122; 222) is configured and arranged to brake said motor (111; 211; 311) in response to both said power sensed by said power sensor (114, 214) being less than a power source threshold (135, 235), and said position sensor (115, 215) indicating said object (116; 216; 316) is within a neutral position threshold (136, 236) of said neutral range or position (134, 234). a power supply (112; 212); an electric motor (111; 211; 311) connected to said power supply (112; 212); an object (116; 216; 316) driven by said motor (111; 211; 311) having a range of motion and a substantially neutral range or position (134, 234) within said range of motion, wherein said object is not as inclined to move when at rest in said neutral range or position; a power sensor (114, 214) configured to sense power from said power supply (112; 212); a position sensor (115, 215) configured to sense position of said object (116; 216; 316) in at least a portion of said range of motion; an energy storage (123; 223); a controller (122; 222) connected to said position sensor (115, 215), power sensor (114, 214), power supply (112; 212) and energy storage (123; 223); characterised in that said controller (122; 222) is configured and arranged to brake said motor (111; 211; 311) in response to both said power sensed by said power sensor (114, 214) being less than a power source threshold (135, 235), and said position sensor (115, 215) indicating said object (116; 216; 316) is within a neutral position threshold (136, 236) of said neutral range or position (134, 234).