mhurhangee/ep-ind-claims huggingface dataset:
A damascene template for an electrophoretic assembly and transfer of patterned nanoelements, the template comprising: a substantially planar substrate; a first insulating layer disposed on a surface of the substrate; an optional adhesion layer disposed on a surface of the first insulating layer opposite the substrate; a conductive metal layer disposed on a surface of the adhesion layer opposite the first insulating layer, or disposed on the surface of the first insulating layer opposite the substrate if the adhesion layer is absent; a second insulating layer disposed on a surface of the conductive metal layer opposite the adhesion layer, or opposite the first insulating layer if the adhesion layer is absent; and a hydrophobic coating selectively disposed on exposed surfaces of the second insulating layer opposite the conductive metal layer; wherein the conductive metal layer is continuous across at least one region of the substrate, and within said region the conductive metal layer has a two-dimensional microscale or nanoscale pattern of raised features that interrupt the second insulating layer; wherein the second insulating layer substantially fills the spaces between said raised features; and wherein exposed surfaces of the raised features and the exposed surfaces of the second insulating layer are essentially coplanar. a substantially planar substrate; a first insulating layer disposed on a surface of the substrate; an optional adhesion layer disposed on a surface of the first insulating layer opposite the substrate; a conductive metal layer disposed on a surface of the adhesion layer opposite the first insulating layer, or disposed on the surface of the first insulating layer opposite the substrate if the adhesion layer is absent; a second insulating layer disposed on a surface of the conductive metal layer opposite the adhesion layer, or opposite the first insulating layer if the adhesion layer is absent; and a hydrophobic coating selectively disposed on exposed surfaces of the second insulating layer opposite the conductive metal layer; wherein the conductive metal layer is continuous across at least one region of the substrate, and within said region the conductive metal layer has a two-dimensional microscale or nanoscale pattern of raised features that interrupt the second insulating layer; wherein the second insulating layer substantially fills the spaces between said raised features; and wherein exposed surfaces of the raised features and the exposed surfaces of the second insulating layer are essentially coplanar.
A method for determining an absolute value of at least one optical parameter of at least one spectacle lens, the method comprising the following steps: a) capturing at least one image picturing the at least one spectacle lens by using at least one camera, wherein the at least one camera generates at least one signal related to a position of a focus, wherein the at least one focus of the camera is adjusted to at least one object in space in at least one first distance to the at least one spectacle lens and in at least one second distance to the at least one camera; and b) determining at least one optical parameter of the at least one spectacle lens by processing the at least one image and by using the at least one signal related to the position of the focus, wherein the at least one optical parameter of at least one spectacle lens is determined by processing the at least one image by capturing the at least one object in space in the at least one first distance to the at least one spectacle lens and in the at least one second distance to the at least one camera, characterized in that an absolute value of the at least one optical parameter of the at least one spectacle lens is determined by using at least one known geometric distortion in the at least one image by using the at least one camera and by using the at least one signal related to the position of the focus, wherein at least one observed geometric distortion in the at least one image is related to the absolute value of the at least one optical parameter of the at least one spectacle lens by applying a known relationship. a) capturing at least one image picturing the at least one spectacle lens by using at least one camera, wherein the at least one camera generates at least one signal related to a position of a focus, wherein the at least one focus of the camera is adjusted to at least one object in space in at least one first distance to the at least one spectacle lens and in at least one second distance to the at least one camera; and b) determining at least one optical parameter of the at least one spectacle lens by processing the at least one image and by using the at least one signal related to the position of the focus, wherein the at least one optical parameter of at least one spectacle lens is determined by processing the at least one image by capturing the at least one object in space in the at least one first distance to the at least one spectacle lens and in the at least one second distance to the at least one camera,
System composed of a first hand-held power tool and a second hand-held power tool, each having a percussion mechanism (36, 36'), each having a motor, each having a transmission (28, 28') that comprises the percussion mechanism (36, 36') and that is designed to transmit a driving motion of the motor to an insert tool (30, 30') accommodated in a tool receiver (12, 12'), wherein the respective transmissions (28, 28') have a guide tube (40, 40') that is identical in regions along a working axis and in which a striker is carried in an axially movable manner, wherein the guide tube (40, 40') is rotatably coupled to the motor via a first transmission unit, and wherein the striker can be driven in a linearly oscillating manner via a piston of a second transmission unit, wherein a ratio between a diameter (14, 14') of the tool receiver (12, 12') and a diameter of the guide tube (40, 40') in the case of the first hand-held power tool is 1.8 times greater than in the case of the second hand-held power tool, characterized in that a single-strike energy of the second hand-held power tool is mechanically reduced in comparison with a single-strike energy of the first hand-held power tool. wherein a ratio between a diameter (14, 14') of the tool receiver (12, 12') and a diameter of the guide tube (40, 40') in the case of the first hand-held power tool is 1.8 times greater than in the case of the second hand-held power tool, characterized in that a single-strike energy of the second hand-held power tool is mechanically reduced in comparison with a single-strike energy of the first hand-held power tool.
A system for providing an electrical signal conduction pathway in a waterproof manner, the system including: • a first housing portion including an array of openings; • an electronics connection substrate, coupled to the first housing portion and including a set of electrical contact pads, wherein the set of electrical contact pads of the electronics connection substrate is paired with the array of openings of the first housing portion in a one-to-one manner; characterised in that it further includes: • a set of contacts, composed of an electrically conductive polymer, each contact in the set of contacts having a first region that seals, in a watertight manner, an opening of the array of openings of the first housing portion at an exterior surface of the first housing portion, an intermediate region that passes into the opening of the array of openings, and a second region coupled to an electrical contact pad of the set of electrical contact pads, o wherein each contact in the set of contacts is configured to conduct an electrical signal to at least one electrical contact pad of the electronics connection substrate for signal transmission to an electronics subsystem. • a first housing portion including an array of openings; • an electronics connection substrate, coupled to the first housing portion and including a set of electrical contact pads, wherein the set of electrical contact pads of the electronics connection substrate is paired with the array of openings of the first housing portion in a one-to-one manner; characterised in that it further includes: • a set of contacts, composed of an electrically conductive polymer, each contact in the set of contacts having a first region that seals, in a watertight manner, an opening of the array of openings of the first housing portion at an exterior surface of the first housing portion, an intermediate region that passes into the opening of the array of openings, and a second region coupled to an electrical contact pad of the set of electrical contact pads, o wherein each contact in the set of contacts is configured to conduct an electrical signal to at least one electrical contact pad of the electronics connection substrate for signal transmission to an electronics subsystem. • a set of contacts, composed of an electrically conductive polymer, each contact in the set of contacts having a first region that seals, in a watertight manner, an opening of the array of openings of the first housing portion at an exterior surface of the first housing portion, an intermediate region that passes into the opening of the array of openings, and a second region coupled to an electrical contact pad of the set of electrical contact pads, o wherein each contact in the set of contacts is configured to conduct an electrical signal to at least one electrical contact pad of the electronics connection substrate for signal transmission to an electronics subsystem.
An optical polycarbonate resin composition, comprising: a polycarbonate resin comprising a structural unit represented by formula below and having an intrinsic viscosity of 0.320 to 0.630 dL/g; and polycarbonate resin comprising a structural unit represented by formula below and having an intrinsic viscosity of 0.423 to 0.600 dL/g, wherein the resin composition comprises the polycarbonate resin in an amount of 45 to 75% by mass, and wherein the optical polycarbonate resin composition has a refractive index (nd) of 1.596 to 1.604.
A digital signal generator for audio artefact reduction in an audio amplifier, the digital signal generator comprising: a counter having a counter output and configured to count up or down in an initial count direction from an initial counter value dependent on a counter control input; a comparator having a first comparator input coupled to the counter output, a second comparator input, and a comparator output coupled to the counter control input; wherein the digital signal generator is configured to determine the count direction after the initial count direction dependent on the comparison between a threshold value applied to the second comparator input and the counter output value; and an integrator having an integrator input coupled to the counter output and an integrator output coupled to the digital signal generator output. a counter having a counter output and configured to count up or down in an initial count direction from an initial counter value dependent on a counter control input; a comparator having a first comparator input coupled to the counter output, a second comparator input, and a comparator output coupled to the counter control input; wherein the digital signal generator is configured to determine the count direction after the initial count direction dependent on the comparison between a threshold value applied to the second comparator input and the counter output value; and an integrator having an integrator input coupled to the counter output and an integrator output coupled to the digital signal generator output.
A wireless ultrasound probe suitable for use with a cable comprising: a probe case; an array transducer (70,80) located in the case; an acquisition circuit located in the case and coupled to the array transducer; a transceiver located in the case and being adapted to wirelessly transmit image information signals to a host system (40,50,60); a power circuit located in the case and being adapted to provide energizing voltage to the array transducer, the acquisition circuit, and the transceiver; a battery located in the case and coupled to the power circuit; characterised in that said wireless ultrasound probe further comprises a magnetic cable connector accessible from outside the case; wherein the magnetic cable connector comprises a mating area, which is flush with the surrounding probe surface; and a cable which is connectible to the cable connector by magnetic attraction adapted for conveying image information signals. a probe case; an array transducer (70,80) located in the case; an acquisition circuit located in the case and coupled to the array transducer; a transceiver located in the case and being adapted to wirelessly transmit image information signals to a host system (40,50,60); a power circuit located in the case and being adapted to provide energizing voltage to the array transducer, the acquisition circuit, and the transceiver; a battery located in the case and coupled to the power circuit; characterised in that said wireless ultrasound probe further comprises a magnetic cable connector accessible from outside the case; wherein the magnetic cable connector comprises a mating area, which is flush with the surrounding probe surface; and a cable which is connectible to the cable connector by magnetic attraction adapted for conveying image information signals.
A method for a femto node to configure one or more of its radio frequency, RF, parameters, comprising: determining parameters of one or more neighboring femto or pico nodes (102, 106) based in part on a broadcast message received from the one or more neighboring femto or pico nodes (102, 106), whereby the parameters are capabilities that comprise a number of channel elements, a backhaul capacity or cost, a preferred user type, or an access mode; comparing the determined capabilities of the one or more neighboring femto or pico nodes (102, 106) to one or more capabilities of the femto node; and adjusting one or more RF parameters for controlling transmission of the femto node based on the comparison improving a chance for an associated user equipment to handover to or reselect one of the one or more neighboring femto or pico nodes (102, 106) when the one of the one or more neighboring femto or pico nodes (102, 106) has capabilities above a threshold. determining parameters of one or more neighboring femto or pico nodes (102, 106) based in part on a broadcast message received from the one or more neighboring femto or pico nodes (102, 106), whereby the parameters are capabilities that comprise a number of channel elements, a backhaul capacity or cost, a preferred user type, or an access mode; comparing the determined capabilities of the one or more neighboring femto or pico nodes (102, 106) to one or more capabilities of the femto node; and adjusting one or more RF parameters for controlling transmission of the femto node based on the comparison improving a chance for an associated user equipment to handover to or reselect one of the one or more neighboring femto or pico nodes (102, 106) when the one of the one or more neighboring femto or pico nodes (102, 106) has capabilities above a threshold.
An unmanned aerial vehicle, UAV, comprising: a processing unit configured to transition the UAV from a first mode trajectory to a second mode trajectory, wherein the first mode trajectory is a terminal homing mode trajectory and wherein the second mode trajectory is a target search mode trajectory; and wherein the UAV is further configured to deliver a payload into a target volume while in the terminal homing mode trajectory; wherein the UAV is further configured to receive uplink signals; wherein the processing unit is further configured to determine if an uplink signal indicates a mode transition, from the terminal homing mode trajectory comprising homing toward a target volume, to the target search mode trajectory, and if the indicative uplink signal is received at the UAV at least two seconds before the UAV achieves a closest approach to the target volume; and wherein the UAV is configured for powered flight to maneuver to the target search mode trajectory, if the processing unit determines an uplink signal indicates a mode transition, from the terminal homing mode trajectory comprising homing toward a target volume, to the target search mode trajectory, and if and only if the indicative uplink signal is received at the UAV at least two seconds before the UAV achieves a closest approach to the target volume. a processing unit configured to transition the UAV from a first mode trajectory to a second mode trajectory, wherein the first mode trajectory is a terminal homing mode trajectory and wherein the second mode trajectory is a target search mode trajectory; and wherein the UAV is further configured to deliver a payload into a target volume while in the terminal homing mode trajectory; wherein the UAV is further configured to receive uplink signals; wherein the processing unit is further configured to determine if an uplink signal indicates a mode transition, from the terminal homing mode trajectory comprising homing toward a target volume, to the target search mode trajectory, and if the indicative uplink signal is received at the UAV at least two seconds before the UAV achieves a closest approach to the target volume; and wherein the UAV is configured for powered flight to maneuver to the target search mode trajectory, if the processing unit determines an uplink signal indicates a mode transition, from the terminal homing mode trajectory comprising homing toward a target volume, to the target search mode trajectory, and if and only if the indicative uplink signal is received at the UAV at least two seconds before the UAV achieves a closest approach to the target volume.
A gas turbine engine comprising: - a fan mounted to rotate about a main longitudinal axis, - an engine core, comprising in axial flow series a compressor, a combustor, and a turbine coupled to the compressor through a shaft, wherein the compressor is a low pressure compressor (support at p. 18, first paragraph of the application as filed) and - a reduction gearbox with an input from the shaft and an output to the fan, the fan being adapted to rotate at a lower rotational rate than the shaft, wherein the compressor comprises a first stage with a first rotor and a first stator, a second stage with a second rotor and second stator, and third stage with a third rotor and a third stator, the first, second and third stage of the compressor being the first three stages of the compressor (support at p. 2,1. 35-36), each rotor and stator comprising a plurality of blades (B1, B2, B3) and vanes (VI, V2, V3), respectively, with a leading edge, a trailing edge and a tip, and adjacent rotors and stators being separated by axial gaps, characterised in that between the first rotor and the third rotor, the rotors and stators are arranged such that a sum of mid-span axial gaps (AGMS1, AGMS2, AGMS3, AGMS4) between the blade trailing edge of the first rotor and the vane leading edge of the first stator, the vane trailing edge of the first stator and the blade leading edge of the second rotor, the blade trailing edge of the second rotor and the vane leading edge of the second stator, and the vane trailing edge of the second stator and the blade leading edge of the third rotor is equal to a × inlet flow function 10, wherein a is equal or greater than 75 mm and the inlet flow function is defined as dimensionless value of m T P, wherein m is a mass airflow at an inlet to the compressor in kg/s, T is the total temperature at the inlet to the compressor in K, and P is the total pressure at the inlet to the compressor in kPa, at the compressor aerodynamic design point. - a fan mounted to rotate about a main longitudinal axis, - an engine core, comprising in axial flow series a compressor, a combustor, and a turbine coupled to the compressor through a shaft, wherein the compressor is a low pressure compressor (support at p. 18, first paragraph of the application as filed) and - a reduction gearbox with an input from the shaft and an output to the fan, the fan being adapted to rotate at a lower rotational rate than the shaft,
An optical processor for applying to a light field passing through a predetermined imaging lens unit, said optical processor comprising: a first pattern in the form of spaced apart regions of different optical properties being configured to define a phase coder providing an extended depth of focusing to be obtained by said imaging lens unit; wherein said first pattern of the phase coder providing the extended depth of focusing is configured for affecting profiles of Through Focus Modulation Transfer Function (TFMTF) for different wavelength components of said light field in accordance with a predetermined desired profile of said extended depth of focusing, the first pattern having a first radial profile of said spaced apart regions of different optical properties and being non-diffractive to visible light; characterized in that the optical processor comprises a dispersion profile coder comprising a second pattern, wherein said second pattern is configured in accordance with said imaging lens unit and said profiles of TFMTF for different wavelength components affected by said first pattern in accordance with said predetermined profile of the extended depth of focusing to thereby cause shifts of TFMTF profiles for different wavelength components to improve an overlap of said TFMTF profiles for different wavelength components within said predetermined desired profile of the extended depth of focusing, the second pattern having a second radial profile and being diffractive to visible light; the first pattern having a low spatial frequency in relation to the second pattern. a first pattern in the form of spaced apart regions of different optical properties being configured to define a phase coder providing an extended depth of focusing to be obtained by said imaging lens unit; wherein said first pattern of the phase coder providing the extended depth of focusing is configured for affecting profiles of Through Focus Modulation Transfer Function (TFMTF) for different wavelength components of said light field in accordance with a predetermined desired profile of said extended depth of focusing, the first pattern having a first radial profile of said spaced apart regions of different optical properties and being non-diffractive to visible light; characterized in that the optical processor comprises a dispersion profile coder comprising a second pattern, wherein said second pattern is configured in accordance with said imaging lens unit and said profiles of TFMTF for different wavelength components affected by said first pattern in accordance with said predetermined profile of the extended depth of focusing to thereby cause shifts of TFMTF profiles for different wavelength components to improve an overlap of said TFMTF profiles for different wavelength components within said predetermined desired profile of the extended depth of focusing, the second pattern having a second radial profile and being diffractive to visible light; the first pattern having a low spatial frequency in relation to the second pattern.
An adjusting apparatus of a feed opening of a crushing chamber of a pressing mineral material crusher, the adjusting apparatus comprising one or more adjusting parts (5, 6, 7, 8; 901, 902; 911, 912, 913, 914) to be arranged in connection with the feed opening, which one or more adjusting parts is/are movable during crushing for adjusting a flow area of material which is to be crushed and is flowing through the feed opening to the crushing chamber, characterized in that front edges (5.1, 6.1, 7.1, 8.1) of the adjusting parts (5, 6, 7, 8; 901, 902; 911, 912, 913, 914) are forming only one unitary flow opening (11; 907), the movable adjusting parts are arranged as a perimeter around the flow area of the flow opening, and the flow area is adjustable by moving one or more adjusting parts.