mhurhangee/ep-ind-claims huggingface dataset:
A vehicle fault detection system comprising: at least one sensor configured for coupling with a vehicle system; a vehicle control module coupled to the at least one sensor, the vehicle control module being configured to receive at least one time series of numerical sensor data (112TA-112Tn) from the at least one sensor, at least one of the at least one time series of numerical sensor data (112TA-112Tn) corresponds to a respective system parameter (112A-112n) of the vehicle system being monitored, and characterised by the vehicle control module being configured to generate a graphical representation for the at least one time series of numerical sensor data (112TA-112Tn) to form an analysis image of at least one system parameter (112A-112n), and detect anomalous behavior of a component of the vehicle system based on the analysis image of at least one system parameter (112A-112n); and a user interface coupled to the vehicle control module, the user interface being configured to present to an operator an indication of the anomalous behavior for the component of the vehicle system. at least one sensor configured for coupling with a vehicle system; a vehicle control module coupled to the at least one sensor, the vehicle control module being configured to receive at least one time series of numerical sensor data (112TA-112Tn) from the at least one sensor, at least one of the at least one time series of numerical sensor data (112TA-112Tn) corresponds to a respective system parameter (112A-112n) of the vehicle system being monitored, and characterised by the vehicle control module being configured to generate a graphical representation for the at least one time series of numerical sensor data (112TA-112Tn) to form an analysis image of at least one system parameter (112A-112n), and detect anomalous behavior of a component of the vehicle system based on the analysis image of at least one system parameter (112A-112n); and receive at least one time series of numerical sensor data (112TA-112Tn) from the at least one sensor, at least one of the at least one time series of numerical sensor data (112TA-112Tn) corresponds to a respective system parameter (112A-112n) of the vehicle system being monitored, and characterised by the vehicle control module being configured to generate a graphical representation for the at least one time series of numerical sensor data (112TA-112Tn) to form an analysis image of at least one system parameter (112A-112n), and detect anomalous behavior of a component of the vehicle system based on the analysis image of at least one system parameter (112A-112n); and a user interface coupled to the vehicle control module, the user interface being configured to present to an operator an indication of the anomalous behavior for the component of the vehicle system.
A method of monitoring the health of an aircraft propeller (10, 110, 210, 1210) whilst the propeller is in operation, the propeller having a plurality of blades (20a-d, 120a-d, 220a-d, 1210a-d) extending radially outwardly from a central axis extending through the propeller and a propeller drive shaft (30, 130, 230, 1230) having a circumference, the method comprising: obtaining measurements representative of strain in the propeller drive shaft using multiple primary strain sensors (40a-b, 140a-b, 240a-b, 1240a-b), each primary strain sensor providing a respective measurement representative of strain; the method characterised in that the primary strain sensors are located on the circumference of the drive shaft of the propeller; and in that the primary strain sensors are fixed around the drive shaft at positions on the circumference of the drive shaft which are aligned with the circumferential positions at which the blades are located. obtaining measurements representative of strain in the propeller drive shaft using multiple primary strain sensors (40a-b, 140a-b, 240a-b, 1240a-b), each primary strain sensor providing a respective measurement representative of strain; the method characterised in that the primary strain sensors are located on the circumference of the drive shaft of the propeller; and in that the primary strain sensors are fixed around the drive shaft at positions on the circumference of the drive shaft which are aligned with the circumferential positions at which the blades are located.
A device adapted to dosing fluids having a pasty consistency, comprising: - a first base with an inlet for the fluid; - a second base, spaced from the first base, with an outlet for the fluid; - an elastically deformable tubular conduit with an end in fluid communication with the inlet and with the opposite end in fluid communication with the outlet; - a rotating spindle with at least one spiral thread (3.1) for driving the fluid housed in the tubular conduit, with an end of the spindle rotationally attached to the first base and the opposite end of the spindle rotationally attached to the second base, this spindle being adapted for pressing on the tubular conduit with at least one part of its spiral thread (3.1); - a support backing of the tubular conduit such that at least the segment of tubular conduit adapted for being in contact with the spindle is located between the spindle and the support backing; - an actuating shaft integrally attached to the spindle for driving the rotation of said spindle and being characterised in that the tubular conduit and the support backing are integrated in one and same part, and in that the integrated tubular conduit and support backing are either made by joint injection using different materials or manufactured with the same material. - a first base with an inlet for the fluid; - a second base, spaced from the first base, with an outlet for the fluid; - an elastically deformable tubular conduit with an end in fluid communication with the inlet and with the opposite end in fluid communication with the outlet; - a rotating spindle with at least one spiral thread (3.1) for driving the fluid housed in the tubular conduit, with an end of the spindle rotationally attached to the first base and the opposite end of the spindle rotationally attached to the second base, this spindle being adapted for pressing on the tubular conduit with at least one part of its spiral thread (3.1); - a support backing of the tubular conduit such that at least the segment of tubular conduit adapted for being in contact with the spindle is located between the spindle and the support backing; - an actuating shaft integrally attached to the spindle for driving the rotation of said spindle and being characterised in that the tubular conduit and the support backing are integrated in one and same part, and in that the integrated tubular conduit and support backing are either made by joint injection using different materials or manufactured with the same material.
A covering element for raised floors, comprising a decorative component made of ceramic material, said decorative component having a top side, a bottom side opposite the top side and a thickness greater than 15 mm, wherein the covering element comprises a reinforcing component arranged underneath the bottom surface of the decorative component, characterized in that the reinforcing component comprises a metal plate configured to produce a compressive tensioned state in the decorative component, and in that metal plate is firstly stretched, then the stretched condition is released after that the metal plate is arranged underneath the decorative component, so as to cause compression of the decorative component.
A robot system in which a slave arm is remotely controlled by a master arm, comprising: a robot body being the slave arm and including a robot arm and an end effector attached to the robot arm (lb); an operating device being the master arm, having an operating part and configured to output, when the operating part is operated, operational information according to the operation; a motion controller configured to control operation of the robot body according to the operational information outputted from the operating device; the system characterized by a velocity detector configured to detect a velocity at a tip end of the end effector; a virtual reaction-force information generating module configured to output force information containing a first force component as virtual reaction-force information, the first force component being a force component proportional to the velocity at the tip end of the end effector; and a force applying device configured to drive the operating part according to the virtual reaction-force information outputted from the virtual reaction-force information generating module in order to make an operator operating the operating part perceive force corresponding to the virtual reaction-force information, wherein the virtual reaction-force information generating module is configured to determine whether the velocity at the tip end of the end effector is positive or negative, and output the virtual reaction-force information when the velocity at the tip end of the end effector is positive, and output a value of zero when the velocity at the tip end of the end effector is negative. a robot body being the slave arm and including a robot arm and an end effector attached to the robot arm (lb); an operating device being the master arm, having an operating part and configured to output, when the operating part is operated, operational information according to the operation; a motion controller configured to control operation of the robot body according to the operational information outputted from the operating device; the system characterized by a velocity detector configured to detect a velocity at a tip end of the end effector; a virtual reaction-force information generating module configured to output force information containing a first force component as virtual reaction-force information, the first force component being a force component proportional to the velocity at the tip end of the end effector; and a force applying device configured to drive the operating part according to the virtual reaction-force information outputted from the virtual reaction-force information generating module in order to make an operator operating the operating part perceive force corresponding to the virtual reaction-force information, wherein the virtual reaction-force information generating module is configured to determine whether the velocity at the tip end of the end effector is positive or negative, and output the virtual reaction-force information when the velocity at the tip end of the end effector is positive, and output a value of zero when the velocity at the tip end of the end effector is negative.
A composition useful in electroplating a conductive metal layer onto the surface of a non-conductive material, said composition comprising: (i) conventional carbon black particles, where said conventional carbon black particles do not have an oil absorption number of at least about 150 cm 3 /100 g as a dibutyl phthalate absorption number, a surface area of at least about 150 m 2 /g, or a volatiles content of less than 5% by weight; (ii) highly conductive carbon black particles selected from the group consisting of carbon black articles having an oil absorption number of at least about 150 cm 3 /100 g, carbon black particles having a surface area of at least about 150 m 2 /g and carbon black particles having a volatiles content of less than 5% by weight; c. one or more dispersing agents; d. an alkali metal hydroxide; and e. water. (i) conventional carbon black particles, where said conventional carbon black particles do not have an oil absorption number of at least about 150 cm 3 /100 g as a dibutyl phthalate absorption number, a surface area of at least about 150 m 2 /g, or a volatiles content of less than 5% by weight; (ii) highly conductive carbon black particles selected from the group consisting of carbon black articles having an oil absorption number of at least about 150 cm 3 /100 g, carbon black particles having a surface area of at least about 150 m 2 /g and carbon black particles having a volatiles content of less than 5% by weight; c. one or more dispersing agents; d. an alkali metal hydroxide; and e. water. c. one or more dispersing agents; d. an alkali metal hydroxide; and e. water.
Power supply device comprising: a group of at least one power supply cell, means for managing the cell group comprising a passive balancing unit of said cells, the device being characterised in that, during a request to move into long-duration storage mode of the device, the management means are configured to, via the passive balancing unit, discharge the cell group until the cell group reaches a target charge state or a target charge state range, if a charge state of the cell group is greater than the target charge state or the target charge state range. a group of at least one power supply cell, means for managing the cell group comprising a passive balancing unit of said cells,
A composition for an adhesive layer of a non-aqueous secondary battery, the composition comprising: a particulate polymer A and a particulate polymer B, wherein the particulate polymer A has a glass-transition temperature of no higher than 20°C and a volume-average particle diameter of at least 100 nm and less than 450 nm, and the particulate polymer B has a glass-transition temperature of at least 30°C and no higher than 55°C and a volume-average particle diameter larger than the volume-average particle diameter of the particulate polymer A, wherein a content of the particulate polymer A is at least 20 parts by mass and no greater than 70 parts by mass per 100 parts by mass of the particulate polymer B, and wherein the volume-average particle diameter of the particulate polymer B is at least 400 nm and no greater than 700 nm. a particulate polymer A and a particulate polymer B, wherein the particulate polymer A has a glass-transition temperature of no higher than 20°C and a volume-average particle diameter of at least 100 nm and less than 450 nm, and the particulate polymer B has a glass-transition temperature of at least 30°C and no higher than 55°C and a volume-average particle diameter larger than the volume-average particle diameter of the particulate polymer A, wherein a content of the particulate polymer A is at least 20 parts by mass and no greater than 70 parts by mass per 100 parts by mass of the particulate polymer B, and wherein the volume-average particle diameter of the particulate polymer B is at least 400 nm and no greater than 700 nm.
A method of X-ray analysis comprising: making an X-ray diffraction measurement in transmission by directing X-rays from an X-ray source at an energy E onto a sample at an incident angle ψ 1 to the surface of the sample and measuring a diffraction intensity I d ( θ d) of the diffracted X-rays at the energy E with a X-ray detector at an exit angle ψ 2 to the surface of the sample, the difference 2 θ d between the incident angle and the exit angle corresponding to an X-ray diffraction peak of a predetermined component; and making a correction measurement of X-rays by measuring the background intensity of X-rays I d ( θ bg) at the energy E, with the difference 2 θ bg between the incident angle and the exit angle deviating by 0.2 to 5° from the difiference 2 θ d corresponding to the X-ray diffraction peak; and calculating the quantity of the predetermined component from the intensity ratio of the diffraction intensity and the background intensity. making an X-ray diffraction measurement in transmission by directing X-rays from an X-ray source at an energy E onto a sample at an incident angle ψ 1 to the surface of the sample and measuring a diffraction intensity I d ( θ d) of the diffracted X-rays at the energy E with a X-ray detector at an exit angle ψ 2 to the surface of the sample, the difference 2 θ d between the incident angle and the exit angle corresponding to an X-ray diffraction peak of a predetermined component; and making a correction measurement of X-rays by measuring the background intensity of X-rays I d ( θ bg) at the energy E, with the difference 2 θ bg between the incident angle and the exit angle deviating by 0.2 to 5° from the difiference 2 θ d corresponding to the X-ray diffraction peak; and calculating the quantity of the predetermined component from the intensity ratio of the diffraction intensity and the background intensity.
A waterproofing membrane for post-cast concrete applications, comprising: a carrier layer comprising two major faces; a pressure-sensitive adhesive layer having an average thickness of 0.05 to 2.0 mm as defined between two major faces, one of which is attached to one of the carrier layer major faces, the pressure-sensitive adhesive layer further having a penetration greater than 30 decimillimeters (dmm) (150 g., 5 sec., 21.1 °C [70° F]) as measured according to ASTM D 5-73; an inorganic particle layer comprising individual particulate bodies having an average size of 70 μm to 450 μm, the inorganic particle layer being formed by partially embedding the particulate bodies into the second major face of the pressure-sensitive adhesive layer (opposite the major face attached to the carrier layer) whereby a portion of the particulate bodies remain un-submerged; and characterized by an anti-submarining coating layer, having an average thickness of 0.003 to 0.011 mm, attached to un-submerged portions of the inorganic particulate bodies to prevent total embedding of individual particulate bodies within the pressure-sensitive adhesive layer when the membrane is rolled up or unrolled, the coating layer being formed by coating the inorganic particle layer with an emulsion comprising nano-silica particles and at least one film-forming polymer and allowing the coating layer to dry upon the un-submerged individual particulate bodies, the coating layer after drying having a Shore D hardness in the range of 50-90, measured at 23 degrees Celsius, in accordance with ASTM D 2240-00. a carrier layer comprising two major faces; a pressure-sensitive adhesive layer having an average thickness of 0.05 to 2.0 mm as defined between two major faces, one of which is attached to one of the carrier layer major faces, the pressure-sensitive adhesive layer further having a penetration greater than 30 decimillimeters (dmm) (150 g., 5 sec., 21.1 °C [70° F]) as measured according to ASTM D 5-73; an inorganic particle layer comprising individual particulate bodies having an average size of 70 μm to 450 μm, the inorganic particle layer being formed by partially embedding the particulate bodies into the second major face of the pressure-sensitive adhesive layer (opposite the major face attached to the carrier layer) whereby a portion of the particulate bodies remain un-submerged; and characterized by an anti-submarining coating layer, having an average thickness of 0.003 to 0.011 mm, attached to un-submerged portions of the inorganic particulate bodies to prevent total embedding of individual particulate bodies within the pressure-sensitive adhesive layer when the membrane is rolled up or unrolled, the coating layer being formed by coating the inorganic particle layer with an emulsion comprising nano-silica particles and at least one film-forming polymer and allowing the coating layer to dry upon the un-submerged individual particulate bodies, the coating layer after drying having a Shore D hardness in the range of 50-90, measured at 23 degrees Celsius, in accordance with ASTM D 2240-00.
Pendulum/pivot-joint articulated construction machine, comprising a front body, a rear body, wherein the front body and the rear body are connected via an pendulum/pivot joint, wherein further the pendulum/pivot joint comprises hydraulic hoses that span the space between the front body and the rear body in a self-supporting manner, wherein the hydraulic hoses are fixed in a stationary manner on both sides of the bridging location, wherein the hydraulic hoses are fixed with a fixing device on one side of the bridging segment with respect to a rotational and axial movement, and characterized in that the hydraulic hoses are fixed on the other side of the bridging segment in the axial direction with a guiding device and are freely rotatable, and that the hydraulic hoses on the side of the guiding device facing away from the fixing device have a predetermined compensation length, in which they can twist in an unimpeded manner in order to be able to distribute any torsional movements over this compensation length.
An adapter assembly (120, 320) for connecting an endoscope to a robotic surgical system, the adapter assembly comprising: a proximal housing (122, 322) having a proximal portion (122a, 322a) and a distal portion (122b, 322b), the proximal portion of the proximal housing configured to be coupled to an instrument drive unit of a robotic surgical system, the distal portion of the proximal housing defining an opening therein; a distal housing (124, 324) including a proximal portion (124a, 324a) and a distal portion (124b, 324b), the proximal portion of the distal housing being rotatably received within the opening of the distal portion of the proximal housing, the distal portion of the distal housing defining a channel longitudinally therethrough, the channel configured for non-rotatable receipt of an endoscope; and a drive assembly (160, 360) including an input (164, 364) configured to be operably coupled to a motor of a motor assembly of an instrument drive unit of a robotic surgical system, and an output operably coupled to the proximal portion of the distal housing to rotate the distal housing relative to the proximal housing, wherein the proximal housing is configured to be non-rotatably coupled to the motor assembly of the instrument drive unit such that rotation of the motor assembly causes a rotation of each of the proximal and distal housings (122, 322, 124, 324) of the adapter assembly (120, 320) and the endoscope. a proximal housing (122, 322) having a proximal portion (122a, 322a) and a distal portion (122b, 322b), the proximal portion of the proximal housing configured to be coupled to an instrument drive unit of a robotic surgical system, the distal portion of the proximal housing defining an opening therein; a distal housing (124, 324) including a proximal portion (124a, 324a) and a distal portion (124b, 324b), the proximal portion of the distal housing being rotatably received within the opening of the distal portion of the proximal housing, the distal portion of the distal housing defining a channel longitudinally therethrough, the channel configured for non-rotatable receipt of an endoscope; and a drive assembly (160, 360) including an input (164, 364) configured to be operably coupled to a motor of a motor assembly of an instrument drive unit of a robotic surgical system, and an output operably coupled to the proximal portion of the distal housing to rotate the distal housing relative to the proximal housing, wherein the proximal housing is configured to be non-rotatably coupled to the motor assembly of the instrument drive unit such that rotation of the motor assembly causes a rotation of each of the proximal and distal housings (122, 322, 124, 324) of the adapter assembly (120, 320) and the endoscope.