mhurhangee/ep-ind-claims huggingface dataset:
An input device comprising: a first input key configured to output a first analog signal as a function of force applied to the first input key; a second input key configured to output a second analog signal as a function of force applied to the second input key; a third input key configured to output a third analog signal as a function of force applied to the third input key; a fourth input key configured to output a fourth analog signal as a function of force applied to the fourth input key; and a controller configured to calculate a first vector having a first magnitude based on a value of the first analog signal, calculate a second vector having a second magnitude based on a value of the second analog signal, calculate a third vector having a third magnitude based on a value of the third analog signal, calculate a fourth vector having a fourth magnitude based on a value of the fourth analog signal, and output movement data including both direction and magnitude that represent a vector addition of the first, second, third, and fourth vectors. a first input key configured to output a first analog signal as a function of force applied to the first input key; a second input key configured to output a second analog signal as a function of force applied to the second input key; a third input key configured to output a third analog signal as a function of force applied to the third input key; a fourth input key configured to output a fourth analog signal as a function of force applied to the fourth input key; and a controller configured to calculate a first vector having a first magnitude based on a value of the first analog signal, calculate a second vector having a second magnitude based on a value of the second analog signal, calculate a third vector having a third magnitude based on a value of the third analog signal, calculate a fourth vector having a fourth magnitude based on a value of the fourth analog signal, and output movement data including both direction and magnitude that represent a vector addition of the first, second, third, and fourth vectors.
A cosmetic product for the treatment of scalp, characterized in that in addition to one or several cosmetically acceptable carrier and/or auxiliary agent(s) it contains juniper sprout extract prepared by supercritical carbon dioxide extraction.
A fastening device, configured to be arranged on a plug assembly comprising a connector plug and a basic housing, having a fastening element for fastening the connector plug to the basic housing, wherein the connector plug comprises a plug housing with a screw shank, wherein the fastening element comprises a first fastening region and a second fastening region, the first fastening region comprises a hook element for fastening to the screw shank of the plug housing and the second fastening region of the fastening element can be fastened to an outer surface of the basic housing, characterised in that the hook element is configured, in the unfastened state, as a wall surface of the fastening element and the hook element, in the fastened state, releases an opening on the fastening element, in which the screw shank can be fixed.
A sliding component formed into an annular shape and configured to be disposed at a relatively rotating position of a rotating machine, wherein a sliding surface of the sliding component has a first radial edge and a second radial edge opposed to the first radial edge in a radial direction and is provided with a plurality of dynamic pressure generating groove groups arranged in a circumferential direction, each of the dynamic pressure generating groove groups including a plurality of dynamic pressure generating grooves having a start point opening at the first radial edge of the sliding surface and an end point closing within the sliding surface while extending circumferentially, wherein the dynamic pressure generating groove provided between the dynamic pressure generating grooves located at both ends of each of the dynamic pressure generating groove groups is formed to be longer than the dynamic pressure generating grooves located at the both ends of each of the dynamic pressure generating groove groups in the circumferential direction, characterized in that the end points of the dynamic pressure generating grooves of each of the dynamic pressure generating groove groups are unevenly distributed to one side of the dynamic pressure generating groove group in the circumferential direction. wherein a sliding surface of the sliding component has a first radial edge and a second radial edge opposed to the first radial edge in a radial direction and is provided with a plurality of dynamic pressure generating groove groups arranged in a circumferential direction, each of the dynamic pressure generating groove groups including a plurality of dynamic pressure generating grooves having a start point opening at the first radial edge of the sliding surface and an end point closing within the sliding surface while extending circumferentially, wherein the dynamic pressure generating groove provided between the dynamic pressure generating grooves located at both ends of each of the dynamic pressure generating groove groups is formed to be longer than the dynamic pressure generating grooves located at the both ends of each of the dynamic pressure generating groove groups in the circumferential direction, characterized in that the end points of the dynamic pressure generating grooves of each of the dynamic pressure generating groove groups are unevenly distributed to one side of the dynamic pressure generating groove group in the circumferential direction.
A method for mixing gas and liquid for gravitational, physical and chemical collection of compounds or particles in a vessel, the method comprising the steps of: - spraying said liquid in-flow and in counter-flow with respect to the gas flow in a number of saturation chambers connected to conduits for gas loading, and in a mixing volume inside the vessel, said spraying being inside the saturation chambers and outside the conduits, said saturation chambers and conduits being curved downside; - gravitational depletion, by abating compounds and liquid chemical solution drops with greater diameter and greater volume than the diameter and volume of said compounds or particles; - physical deposition, by condensation of abated compounds or particles on a wet surface of the vessel; - chemical adsorption, by chemical reaction between the abated compounds or particles and the species in the liquid chemical solution, and flowing the gas flow along a diverter so as to decrease the free mean path of said compounds or particles in said vessel. - spraying said liquid in-flow and in counter-flow with respect to the gas flow in a number of saturation chambers connected to conduits for gas loading, and in a mixing volume inside the vessel, said spraying being inside the saturation chambers and outside the conduits, said saturation chambers and conduits being curved downside; - gravitational depletion, by abating compounds and liquid chemical solution drops with greater diameter and greater volume than the diameter and volume of said compounds or particles; - physical deposition, by condensation of abated compounds or particles on a wet surface of the vessel; - chemical adsorption, by chemical reaction between the abated compounds or particles and the species in the liquid chemical solution, and flowing the gas flow along a diverter so as to decrease the free mean path of said compounds or particles in said vessel.
A control arrangement (20; 20a-20d) for controlling movements of an access member relative to a frame, the control arrangement (20; 20a-20d) comprising: - a base structure; - a drive member rotatable relative to the base structure about a rotation axis; - an input member (38; 38a, 38b) arranged to be driven relative to the base structure along an actuation axis by rotation of the drive member about the rotation axis, and arranged to move in a lateral direction (74, 76) with respect to the actuation axis relative to the base structure; - an output member arranged to be driven by the input member (38; 38a, 38b) relative to the base structure along the actuation axis; and - an electromagnetic generator arranged to be driven by movement of the output member along the actuation axis to generate electric energy; characterized in that the control arrangement (20; 20a-20d) further comprises: - a force transmitting arrangement (42, 52; 42a, 42b, 52a, 52b; 116) arranged to transmit a relative movement between the input member (38; 38a, 38b) and the output member along the actuation axis to a movement of the input member (38; 38a, 38b) in the lateral direction (74, 76) towards the base structure for frictional braking between the input member (38; 38a, 38b) and the base structure. - a base structure; - a drive member rotatable relative to the base structure about a rotation axis; - an input member (38; 38a, 38b) arranged to be driven relative to the base structure along an actuation axis by rotation of the drive member about the rotation axis, and arranged to move in a lateral direction (74, 76) with respect to the actuation axis relative to the base structure; - an output member arranged to be driven by the input member (38; 38a, 38b) relative to the base structure along the actuation axis; and - an electromagnetic generator arranged to be driven by movement of the output member along the actuation axis to generate electric energy; - a force transmitting arrangement (42, 52; 42a, 42b, 52a, 52b; 116) arranged to transmit a relative movement between the input member (38; 38a, 38b) and the output member along the actuation axis to a movement of the input member (38; 38a, 38b) in the lateral direction (74, 76) towards the base structure for frictional braking between the input member (38; 38a, 38b) and the base structure.
An oil transfer unit comprising: a stationary part comprising an oil mouth; a rotating part having an inner chamber and an outer cylindrical surface extending along an axis; a floating part having a cylindrical surface fitted onto said outer cylindrical surface with a radial gap so as to define a non-contact configuration, an annular groove defined by said rotating part and said floating part and permanently communicating with said oil mouth and with said inner chamber; said radial gap defining, in use, an oil film sealing each side of said groove; at least one oil transfer tube ending with two opposite heads (46,47) which are respectively coupled to said stationary part and floating part in a fluid-tight manner and with freedom of movement; a connecting rod having opposite ends which are respectively coupled to said stationary part and floating part to prevent rotation of said floating part about said axis; characterized by comprising two spherical joints connecting said ends respectively to said stationary part and floating part, so that the floating part is axially movable with respect to the axis. a stationary part comprising an oil mouth; a rotating part having an inner chamber and an outer cylindrical surface extending along an axis; a floating part having a cylindrical surface fitted onto said outer cylindrical surface with a radial gap so as to define a non-contact configuration, an annular groove defined by said rotating part and said floating part and permanently communicating with said oil mouth and with said inner chamber; said radial gap defining, in use, an oil film sealing each side of said groove; at least one oil transfer tube ending with two opposite heads (46,47) which are respectively coupled to said stationary part and floating part in a fluid-tight manner and with freedom of movement; a connecting rod having opposite ends which are respectively coupled to said stationary part and floating part to prevent rotation of said floating part about said axis; characterized by comprising two spherical joints connecting said ends respectively to said stationary part and floating part, so that the floating part is axially movable with respect to the axis.
An integrated circuit for amplifying an input from photodiode, the integrated circuit comprising: an input that receives a current from a photodiode in response to incident light on the photodiode; an amplifier having one or more stages that amplifies the current from the photodiode and generates a voltage output; a filtered voltage output that provides a filtered bias voltage to the photodiode; and a filter module connected between the filtered voltage output and a photodiode power supply, wherein the filter module filters noise on the photodiode power supply to generate the filtered bias voltage. an input that receives a current from a photodiode in response to incident light on the photodiode; an amplifier having one or more stages that amplifies the current from the photodiode and generates a voltage output; a filtered voltage output that provides a filtered bias voltage to the photodiode; and a filter module connected between the filtered voltage output and a photodiode power supply, wherein the filter module filters noise on the photodiode power supply to generate the filtered bias voltage.
A method for characterizing an object on the basis of mean-free-path of penetrating radiation, the method comprising: generating an incident beam of penetrating radiation having an energy distribution and at least two propagation paths (10,11) relative to the object at different times by varying a propagation direction of the incident beam so as to be incident sequentially on the inspected object at a plurality of points of incidence; disposing a plurality of detector elements in an opposing pair of arrays (L, U, 54, 56, 70, 72) about the propagation paths, each detector element having a field of view; collimating the field of view of each detector element; detecting radiation scattered from a plurality of voxels lying within the inspected object, each voxel being defined as the intersection of the fields of view of one opposing pair of the detector elements and a distinct propagation path (10,11) of the incident beam of penetrating radiation; characterized by calculating attenuation of scattered penetrating radiation between pairs (17, 18) of the plurality of voxels from scattered radiation from each voxel in a given pair of voxels (17, 18) detected by the same opposing pair of detector elements, wherein each voxel of the pair corresponds to a different one of the at least two propagation directions of the incident beam of penetrating radiation. generating an incident beam of penetrating radiation having an energy distribution and at least two propagation paths (10,11) relative to the object at different times by varying a propagation direction of the incident beam so as to be incident sequentially on the inspected object at a plurality of points of incidence; disposing a plurality of detector elements in an opposing pair of arrays (L, U, 54, 56, 70, 72) about the propagation paths, each detector element having a field of view; collimating the field of view of each detector element; detecting radiation scattered from a plurality of voxels lying within the inspected object, each voxel being defined as the intersection of the fields of view of one opposing pair of the detector elements and a distinct propagation path (10,11) of the incident beam of penetrating radiation;
A process for manufacturing a semiconductor device, comprising the steps of: providing a body of semiconductor material having a surface; forming a semiconductor layer on top of the body; forming a first mask (34; 34, 33a) on top of the semiconductor layer; introducing first dopant species into the body using the first mask to form a first conductive region in the body; forming a second mask (38; 61) laterally and complementarily to the first mask, at least in a projection in a plane parallel to the surface of the body; introducing second dopant species into the body using the second mask to form a second conductive region in the body, in an adjacent and complementary position to the first conductive region; the process characterized by forming spacers on the sides of the second mask region (38; 61), to form a third mask (47; 67) aligned to the second mask; and by using the third mask, removing portions of the semiconductor layer to obtain a gate region. providing a body of semiconductor material having a surface; forming a semiconductor layer on top of the body; forming a first mask (34; 34, 33a) on top of the semiconductor layer; introducing first dopant species into the body using the first mask to form a first conductive region in the body; forming a second mask (38; 61) laterally and complementarily to the first mask, at least in a projection in a plane parallel to the surface of the body; introducing second dopant species into the body using the second mask to form a second conductive region in the body, in an adjacent and complementary position to the first conductive region;
A pump assembly with an electric motor which is arranged in a stator housing wherein a terminal box in which electrical connection elements as well as electronic components are arranged is arranged on the stator housing on an axial face side, wherein the terminal box comprise a tubular housing part, the tubular housing part is applied with a first axial face side onto the axial face side of the stator housing, the opposite second axial face side of the tubular housing part is closed by way of at least one cover element into which operating and/or display elements are integrated, characterised in that an electrical connection element is arranged on the tubular housing part on the outer periphery, and that the tubular housing part comprises a round, in particular circular cross section, wherein the terminal box is designed in a manner such that the assembly and arrangement of the components in the inside of the terminal box is effected through an opening which is closed by the cover element.
A method of calibrating an inertial measurement unit comprising a plurality of accelerometers, a plurality of gyroscopes and a plurality of magnetometers, the method comprising: collecting data from the inertial measurement unit while stationary as a first step; collecting data from the inertial measurement unit while repositioning the inertial measurement unit around three orthogonal axes of the inertial measurement unit as a second step; calibrating the plurality of gyroscopes using the data collected during the first step and the second step; calibrating the plurality of magnetometers using the data collected during the first step and the second step; calibrating the plurality of accelerometers using the data collected during the first step and the second step; characterized in that calibrating the plurality of magnetometers includes extracting parameters for distortion detection and using the extracted parameters to determine if transient magnetic distortion is present within a local field of the inertial measurement unit. collecting data from the inertial measurement unit while stationary as a first step; collecting data from the inertial measurement unit while repositioning the inertial measurement unit around three orthogonal axes of the inertial measurement unit as a second step; calibrating the plurality of gyroscopes using the data collected during the first step and the second step; calibrating the plurality of magnetometers using the data collected during the first step and the second step; calibrating the plurality of accelerometers using the data collected during the first step and the second step; characterized in that calibrating the plurality of magnetometers includes extracting parameters for distortion detection and using the extracted parameters to determine if transient magnetic distortion is present within a local field of the inertial measurement unit.
A method for operating a distribution machine for the distribution, transfer, temporary storing or automated selling of objects, wherein the distribution machine comprises a compartment arrangement with a plurality of receiving compartments, wherein compartment doors and locking devices for locking the receiving compartments are assigned to the receiving compartments, wherein each of the locking devices comprises an actuator, which is activated by means of an energized signal and the locking devices are thus automatically unlockable, so that the compartment doors can each be opened independently of each other, and objects can be placed in the receiving compartments and/or be removed from the receiving compartments by authorized persons, wherein the distribution machine has an electronic operating controller, which operating controller controls the processes of the distribution machine, wherein the following method steps are carried out: - inputting a command into the operating controller by the user and selecting a receiving compartment to be opened by the user or the operating controller; - automated unlocking of the compartment door of the selected receiving compartment by applying an energized signal to the actuator of the locking device of the selected receiving compartment with, wherein the compartment door of the selected receiving compartment is at least partially opened by means of an opening aid; - acoustic indication of the position of the unlocked receiving compartment, characterized in that the acoustic indication of the position of the unlocked receiving compartment takes place by repeated or, for a limited amount of time, continuous application of the energized signal to the actuator of the locking device of the selected receiving compartment to, wherein the acoustic notification of the opened receiving compartment is stopped once a detection element detects that the compartment door of the selected receiving compartment is closed again. - inputting a command into the operating controller by the user and selecting a receiving compartment to be opened by the user or the operating controller; - automated unlocking of the compartment door of the selected receiving compartment by applying an energized signal to the actuator of the locking device of the selected receiving compartment with, wherein the compartment door of the selected receiving compartment is at least partially opened by means of an opening aid; - acoustic indication of the position of the unlocked receiving compartment, characterized in that
A method for transmitting and receiving a signal of a New Radio Access Technology, NR, terminal in a wireless communication system, the method comprising: receiving a Physical Downlink Control Channel, PDCCH, order on a downlink carrier; and transmitting a random access preamble in response to the PDCCH order; wherein the random access preamble is transmitted on a first uplink carrier determined based on information on an uplink carrier included in the PDCCH order when a predetermined condition is satisfied, wherein the predetermined condition comprises a plurality of uplink carrier including the first uplink carrier are configured for the downlink carrier, and wherein a cell identification, ID, of the downlink carrier and a cell ID of the plurality of uplink carrier are identical. receiving a Physical Downlink Control Channel, PDCCH, order on a downlink carrier; and transmitting a random access preamble in response to the PDCCH order; wherein the random access preamble is transmitted on a first uplink carrier determined based on information on an uplink carrier included in the PDCCH order when a predetermined condition is satisfied, wherein the predetermined condition comprises a plurality of uplink carrier including the first uplink carrier are configured for the downlink carrier, and wherein a cell identification, ID, of the downlink carrier and a cell ID of the plurality of uplink carrier are identical.