mhurhangee/ep-ind-claims huggingface dataset:
A chronometric testing or chronometric certification method for a timepiece, comprising at least two status reports of the timepiece before and after at least a first static storage cycle, the first static storage cycle being a first static storage cycle in at least one predefined position of the timepiece, the at least one predefined position comprising at least a first inclined position (γ) of the timepiece, the inclined position being such that the plane of the dial of the timepiece is neither parallel to the Earth's gravitational field, nor perpendicular to the Earth's gravitational field, a rate variation of the timepiece being measured and given by the time difference between: - a time difference between two display values of the timepiece during at least two status reports of the timepiece, and - a time difference between the instants of the at least two status reports of the timepiece, given by a reference timebase. - a time difference between two display values of the timepiece during at least two status reports of the timepiece, and - a time difference between the instants of the at least two status reports of the timepiece, given by a reference timebase.
Use of at least one phosphodiester compound as an internal release agent, wherein the phosphodiester compound is represented by the following general formula: wherein, in the formula, R 1 and R 2 independently represent a hydrocarbon group having 1 to 30 carbon atoms, which is optionally substituted with at least one hydroxyl group; R 3 represents an alkylene group having 2 to 4 carbon atoms and a plurality of R 3 's may be the same as or different from each other; M represents a hydrogen atom, an ammonium ion, an alkali metal ion, or a monovalent/divalent alkali earth metal ion; and n is an integer of 1 to 60.
An organic light emitting diode, OLED, display, comprising: a substrate; a first electrode disposed over the substrate; an organic emission layer disposed over the first electrode; a second electrode disposed over the organic emission layer; a capping layer disposed over the second electrode; and a first color pixel, a second color pixel, and a third color pixel, wherein the optical thickness of the capping layer is in the range of 110 nm to 140 nm, wherein each of the first color pixel, the second color pixel, and the third color pixel comprises the first electrode, the organic emission layer, the second electrode, and the capping layer; the organic emission layer comprises: a hole injection layer and a hole transporting layer disposed in this order over the first electrode; an emission layer disposed over the hole transporting layer, the emission layer comprising a host and a dopant; and an electron transporting layer and an electron injection layer disposed in this order over the emission layer, characterized in that the emission layer of the first color pixel comprises: a first emission layer comprising the host; and a second emission layer comprising the host and the dopant, wherein the first emission layer does not comprise the dopant. a substrate; a first electrode disposed over the substrate; an organic emission layer disposed over the first electrode; a second electrode disposed over the organic emission layer; a capping layer disposed over the second electrode; and a first color pixel, a second color pixel, and a third color pixel, wherein the optical thickness of the capping layer is in the range of 110 nm to 140 nm, wherein each of the first color pixel, the second color pixel, and the third color pixel comprises the first electrode, the organic emission layer, the second electrode, and the capping layer; the organic emission layer comprises: a hole injection layer and a hole transporting layer disposed in this order over the first electrode; an emission layer disposed over the hole transporting layer, the emission layer comprising a host and a dopant; and an electron transporting layer and an electron injection layer disposed in this order over the emission layer, a hole injection layer and a hole transporting layer disposed in this order over the first electrode; an emission layer disposed over the hole transporting layer, the emission layer comprising a host and a dopant; and an electron transporting layer and an electron injection layer disposed in this order over the emission layer, characterized in that the emission layer of the first color pixel comprises: a first emission layer comprising the host; and a second emission layer comprising the host and the dopant, a first emission layer comprising the host; and a second emission layer comprising the host and the dopant, wherein the first emission layer does not comprise the dopant.
A tampon comprising an absorbent body and a withdrawal string, whereby the absorbent body comprises an insertion end, a withdrawal end, and an essentially cylindrical body in between, whereby the cylindrical body further comprises a central axis, and whereby the withdrawal string extends out of the withdrawal end, characterized in that the withdrawal string follows within the absorbent body a string path comprising a helical portion around the central axis, and wherein the withdrawal string has a contact ratio, defined as the ratio of the contact length of the withdrawal string and the absorbent body to the length of the absorbent body measured along the central axis, of at least 2.0075 and at most 4.7324.
A method of producing a colored plastic article comprising providing a container comprising a liquid colorant, the container comprising an integrated pump cap comprising an input port and an output port; coupling the container to a molding device; driving the integrated pump cap to add a determined dose of the liquid colorant from the output port into a neutral plastic base material to produce a colored melted plastic that can be delivered to a mold to produce a colored plastic article; wherein the integrated pump cap comprises a motor coupler, wherein the method further comprises coupling the motor coupler to a motor at a downward orientation such that the motor coupler is above the motor and the liquid colorant is gravitationally directed to the input port of the integrated pump cap.
A camera system, comprising: a camera operative to capture an image, said camera comprising a power input port for coupling to a power supply assembly and a data storage device port for receiving a removable data storage device; a housing for supporting said camera, said housing comprising a first opening and a second opening, wherein said first opening is arranged to provide access to said data storage device port and said second opening is arranged to provide access to said power input port; a first removable panel engageable to said housing to cover said first opening by a first security fastener to secure said first removable panel to said housing in a cover configuration; and a second removable panel engageable to said housing to cover said second opening by a second security fastener to secure said second removable panel to said housing in a cover configuration, said second removable panel comprising a formation for engaging with a portion of said power supply assembly in said cover configuration to restrain movement of said power supply assembly to maintain a coupled arrangement of said power supply assembly and said power input port in said cover configuration, wherein said housing comprises a first part and a second part, wherein said second opening and said power input port are located in said second part and said first opening and said data storage device port are located in said first part; wherein access to said security fastener of said second opening is inhibited by coupling of said first and second parts of the housing. a camera operative to capture an image, said camera comprising a power input port for coupling to a power supply assembly and a data storage device port for receiving a removable data storage device; a housing for supporting said camera, said housing comprising a first opening and a second opening, wherein said first opening is arranged to provide access to said data storage device port and said second opening is arranged to provide access to said power input port; a first removable panel engageable to said housing to cover said first opening by a first security fastener to secure said first removable panel to said housing in a cover configuration; and a second removable panel engageable to said housing to cover said second opening by a second security fastener to secure said second removable panel to said housing in a cover configuration, said second removable panel comprising a formation for engaging with a portion of said power supply assembly in said cover configuration to restrain movement of said power supply assembly to maintain a coupled arrangement of said power supply assembly and said power input port in said cover configuration, wherein said housing comprises a first part and a second part, wherein said second opening and said power input port are located in said second part and said first opening and said data storage device port are located in said first part; wherein access to said security fastener of said second opening is inhibited by coupling of said first and second parts of the housing.
A heating, ventilating, air conditioning, and refrigeration, HVAC&R, system, comprising: - a variable speed drive configured to provide power to a motor configured to drive a compressor of the HVAC&R system, the variable speed drive comprising: - a rectifier configured to receive alternating current, AC, power from an AC power source and convert the AC power to direct current, DC, power, wherein the AC power comprises a constant voltage and a constant frequency, the rectifier comprising a first silicon carbide transistor configured to adjust a voltage, or a frequency, or both, of power flowing through the variable speed drive; - a DC bus configured to receive the DC power from the rectifier; and - an inverter configured to receive the DC power from the DC bus and to convert the DC power to AC power having a variable voltage and a variable frequency, the inverter comprising a second silicon carbide transistor configured to adjust a voltage, or a frequency, or both, of power flowing through the variable speed drive; and - a controller coupled to each silicon carbide transistor and configured to adjust a state of the first and second silicon carbide transistors based on a discharge pressure of the compressor. - a variable speed drive configured to provide power to a motor configured to drive a compressor of the HVAC&R system, the variable speed drive comprising: - a rectifier configured to receive alternating current, AC, power from an AC power source and convert the AC power to direct current, DC, power, wherein the AC power comprises a constant voltage and a constant frequency, the rectifier comprising a first silicon carbide transistor configured to adjust a voltage, or a frequency, or both, of power flowing through the variable speed drive; - a DC bus configured to receive the DC power from the rectifier; and - an inverter configured to receive the DC power from the DC bus and to convert the DC power to AC power having a variable voltage and a variable frequency, the inverter comprising a second silicon carbide transistor configured to adjust a voltage, or a frequency, or both, of power flowing through the variable speed drive; and - a rectifier configured to receive alternating current, AC, power from an AC power source and convert the AC power to direct current, DC, power, wherein the AC power comprises a constant voltage and a constant frequency, the rectifier comprising a first silicon carbide transistor configured to adjust a voltage, or a frequency, or both, of power flowing through the variable speed drive; - a DC bus configured to receive the DC power from the rectifier; and - an inverter configured to receive the DC power from the DC bus and to convert the DC power to AC power having a variable voltage and a variable frequency, the inverter comprising a second silicon carbide transistor configured to adjust a voltage, or a frequency, or both, of power flowing through the variable speed drive; and - a controller coupled to each silicon carbide transistor and configured to adjust a state of the first and second silicon carbide transistors based on a discharge pressure of the compressor.
A control system for an electric motor of a cooling fan, wherein: - the control system is interconnected or interconnectable within an alternating current supply circuit (L1, N) of the electric motor, - the control system is connected or connectable in series to the electric motor, - the control system includes at least one negative temperature coefficient NTC thermistor, - the control system includes at least one first capacitor arranged parallel to the negative temperature coefficient thermistor, and - the control system includes at least one second capacitor arranged in series to the negative temperature coefficient thermistor and the first capacitor. - the control system is interconnected or interconnectable within an alternating current supply circuit (L1, N) of the electric motor, - the control system is connected or connectable in series to the electric motor, - the control system includes at least one negative temperature coefficient NTC thermistor, - the control system includes at least one first capacitor arranged parallel to the negative temperature coefficient thermistor, and - the control system includes at least one second capacitor arranged in series to the negative temperature coefficient thermistor and the first capacitor.
A method for interactive inquiring of an AAL2 media channel status, characterized in, comprising the following steps: Step 1, a first device constructs a CID status query message after receiving a query command from a manipulation platform, and sends the CID status query message to a second device to inquire status of a given channel or all channels of a path; Step 2, in which the second device obtains locally the status of the given channel or all channels to be inquired after receiving the CID status query message, and constructs a CID status query confirm message and sends it back to the first device; and Step 3, the first device parses the status of the given channel or all channels from the CID status query confirm message after receiving the CID status query confirm message, and sends the parsed status back to the manipulation platform; characterized in that the Step 3 further comprises steps as follows: the first device compares the parsed status with a local record, and when abnormal status of CID status inconsistence between the parsed status and the local record for the given or at least one of all channels is found by the comparison, a warning is sent to the manipulation platform; and the manipulation platform, after receiving the warning, automatically initiates a corresponding operation, wherein the corresponding operation includes any one of recovering the channel in abnormal status and blocking the channel in abnormal status. Step 1, a first device constructs a CID status query message after receiving a query command from a manipulation platform, and sends the CID status query message to a second device to inquire status of a given channel or all channels of a path; Step 2, in which the second device obtains locally the status of the given channel or all channels to be inquired after receiving the CID status query message, and constructs a CID status query confirm message and sends it back to the first device; and Step 3, the first device parses the status of the given channel or all channels from the CID status query confirm message after receiving the CID status query confirm message, and sends the parsed status back to the manipulation platform; the first device compares the parsed status with a local record, and when abnormal status of CID status inconsistence between the parsed status and the local record for the given or at least one of all channels is found by the comparison, a warning is sent to the manipulation platform; and the manipulation platform, after receiving the warning, automatically initiates a corresponding operation, wherein the corresponding operation includes any one of recovering the channel in abnormal status and blocking the channel in abnormal status.
A float assembly comprising: a. an upper valve assembly having a body, a substantially cylindrical central flow bore extending therethrough, and a flapper hingeably connected to said body; b. a lower valve assembly having a body, a substantially cylindrical central flow bore extending therethrough aligned with the central flow bore of said upper valve assembly, and a flapper hingeably connected to said body; c. a seat member disposed below said lower valve assembly, wherein said seat member travels in a direction parallel to the longitudinal axis of said aligned central flow bores (22, 42); d. a first retaining member having a first end and a second end, wherein said first end is connected to said seat member, and said second end is releasably joined with the flapper of said upper valve assembly when said flapper is in an open position; and e. a second retaining member having a first end and a second end, wherein said first end is connected to said seat member, and said second end is releasably joined with the flapper of said lower valve assembly when said flapper is in an open position. a. an upper valve assembly having a body, a substantially cylindrical central flow bore extending therethrough, and a flapper hingeably connected to said body; b. a lower valve assembly having a body, a substantially cylindrical central flow bore extending therethrough aligned with the central flow bore of said upper valve assembly, and a flapper hingeably connected to said body; c. a seat member disposed below said lower valve assembly, wherein said seat member travels in a direction parallel to the longitudinal axis of said aligned central flow bores (22, 42); d. a first retaining member having a first end and a second end, wherein said first end is connected to said seat member, and said second end is releasably joined with the flapper of said upper valve assembly when said flapper is in an open position; and e. a second retaining member having a first end and a second end, wherein said first end is connected to said seat member, and said second end is releasably joined with the flapper of said lower valve assembly when said flapper is in an open position.
An implantable medical lead comprising: an elongated polymeric component disposed over at least one electrical conductor, wherein the elongated component comprises a polyisobutylene-based urethane copolymer comprising a polyisobutylene segment and a polyether segment selected from the group consisting of linear, branched and cyclic homopoly(alkylene oxide) and copoly(alkylene oxide) segments, wherein the elongated polymeric component comprises a main lead portion ranging from about 5 cm to about 125 cm in length and having a Shore hardness ranging from about 75A to about 100A and a distal tip portion positioned distal to the main lead portion, said distal tip portion ranging from about 1 cm to about 12 cm in length and having a lower Shore hardness than the main lead body ranging from about 30A to 80A. an elongated polymeric component disposed over at least one electrical conductor, wherein the elongated component comprises a polyisobutylene-based urethane copolymer comprising a polyisobutylene segment and a polyether segment selected from the group consisting of linear, branched and cyclic homopoly(alkylene oxide) and copoly(alkylene oxide) segments, wherein the elongated polymeric component comprises a main lead portion ranging from about 5 cm to about 125 cm in length and having a Shore hardness ranging from about 75A to about 100A and a distal tip portion positioned distal to the main lead portion, said distal tip portion ranging from about 1 cm to about 12 cm in length and having a lower Shore hardness than the main lead body ranging from about 30A to 80A.
Attachment unit for the at least auxiliary drive, preferably at least temporarily the only drive, of a vehicle, specifically of a commercial vehicle and/or of a commercial vehicle trailer, comprising - at least one wheel, preferably at least two wheels, - a drive arrangement, - an energy storage device for the drive arrangement, - a coupling arrangement (4a, 4b) via which is the attachment unit can be connected to the vehicle, and - a support structure (5a, 5b), characterized in that - the drive arrangement serves to drive the wheel and the support structure (5a, 5b) is configured to support vehicle weight, and/or - the drive arrangement is configured with an interface for driving a wheel axle of the vehicle, - wherein the attachment unit comprises a raising/lowering device which is configured selectively to raise or lower the wheel after the attachment unit has been installed on the vehicle and selectively to bring said wheel into contact with the ground or to position it at a distance from the ground. - at least one wheel, preferably at least two wheels, - a drive arrangement, - an energy storage device for the drive arrangement, - a coupling arrangement (4a, 4b) via which is the attachment unit can be connected to the vehicle, and - a support structure (5a, 5b), - the drive arrangement serves to drive the wheel and the support structure (5a, 5b) is configured to support vehicle weight, and/or - the drive arrangement is configured with an interface for driving a wheel axle of the vehicle, - wherein the attachment unit comprises a raising/lowering device which is configured selectively to raise or lower the wheel after the attachment unit has been installed on the vehicle and selectively to bring said wheel into contact with the ground or to position it at a distance from the ground.
A method of controlling a suspension system for a vehicle comprising: determining a ride height of a first axle assembly and a ride height of a second axle assembly; and increasing a load force upon the first axle assembly when the ride height of the first axle assembly differs from the ride height of the second axle assembly by more than a threshold amount and the ride height of the first axle assembly is not within a ride height tolerance, wherein the load force upon the first axle assembly is increased by providing pressurized gas to an air spring of the first axle assembly to increase pressure in the air spring of the first axle assembly and/or by venting or reducing pressurized gas from an air spring of the second axle assembly to decrease pressure in the air spring of the second axle assembly. determining a ride height of a first axle assembly and a ride height of a second axle assembly; and increasing a load force upon the first axle assembly when the ride height of the first axle assembly differs from the ride height of the second axle assembly by more than a threshold amount and the ride height of the first axle assembly is not within a ride height tolerance, wherein the load force upon the first axle assembly is increased by providing pressurized gas to an air spring of the first axle assembly to increase pressure in the air spring of the first axle assembly and/or by venting or reducing pressurized gas from an air spring of the second axle assembly to decrease pressure in the air spring of the second axle assembly.