mhurhangee/ep-ind-claims huggingface dataset:
A welding system comprising: welding equipment for generating a welding current and voltage a welding control system for controlling the welding current and voltage a monitoring system for monitoring a welding parameter, and a welding helmet including: a main body a visual display connected to the main body, and an information generating mechanism in communication with the monitoring system capable of generating an image representative of information from the monitoring system based upon the monitored welding parameter upon the visual display characterized in that the focus of the image is outside of the main body, and in that the welding helmet includes a camera mounted at or proximate to the point of view of a welder when wearing the helmet, the camera for calibrating the depth of the image relative to the welding work area. welding equipment for generating a welding current and voltage a welding control system for controlling the welding current and voltage a monitoring system for monitoring a welding parameter, and a welding helmet including: a main body a visual display connected to the main body, and an information generating mechanism in communication with the monitoring system capable of generating an image representative of information from the monitoring system based upon the monitored welding parameter upon the visual display characterized in that the focus of the image is outside of the main body, and in that the welding helmet includes a camera mounted at or proximate to the point of view of a welder when wearing the helmet, the camera for calibrating the depth of the image relative to the welding work area. a main body a visual display connected to the main body, and an information generating mechanism in communication with the monitoring system capable of generating an image representative of information from the monitoring system based upon the monitored welding parameter upon the visual display characterized in that the focus of the image is outside of the main body, and in that the welding helmet includes a camera mounted at or proximate to the point of view of a welder when wearing the helmet, the camera for calibrating the depth of the image relative to the welding work area.
A system for controlling the power consumption of an electronic display, the system comprising: a backlight power source in electrical communication with a display backlight; a fan power source (23, 33) in electrical communication with a fan (24, 36) which is positioned so as to draw cooling air through an area of the display which requires cooling; a temperature sensor (21, 30) placed in the area which requires cooling; a software driver in electrical communication with the backlight power source, fan power source (23, 33), temperature sensor (21, 30), and current draw measurement device to control the backlight power source and the fan power source; characterized by: a current draw measurement device which is adapted to measure the total current draw of at least the backlight power source and the fan power source. a backlight power source in electrical communication with a display backlight; a fan power source (23, 33) in electrical communication with a fan (24, 36) which is positioned so as to draw cooling air through an area of the display which requires cooling; a temperature sensor (21, 30) placed in the area which requires cooling; a software driver in electrical communication with the backlight power source, fan power source (23, 33), temperature sensor (21, 30), and current draw measurement device to control the backlight power source and the fan power source; characterized by: a current draw measurement device which is adapted to measure the total current draw of at least the backlight power source and the fan power source.
A femoral trialling kit (600, 800) for assessing acetabular cup orientation during a left hip joint surgical procedure and a right hip joint surgical procedure, comprising: a trial femoral head (614, 814) having an inner wall defining a cavity extending along a head axis and a visual alignment guide on an outer surface of the trial femoral head; and a trial femoral neck (612, 812) having a taper at a free end, the taper being receivable within the cavity, characterised in that one of the taper and the inner wall has a first anti-rotation feature and a second anti-rotation feature, the first anti-rotation feature and the second anti-rotation feature being inclined, and the other of the taper and the inner wall has a third anti-rotation feature, and wherein the trial femoral head is attachable to the trial femoral neck in a first angular configuration corresponding to a right hip joint, in which the third anti-rotation feature and the first anti-rotation feature engage, and a second angular configuration corresponding to a left hip joint, wherein the third anti-rotation feature and the second anti-rotation feature engage. a trial femoral head (614, 814) having an inner wall defining a cavity extending along a head axis and a visual alignment guide on an outer surface of the trial femoral head; and a trial femoral neck (612, 812) having a taper at a free end, the taper being receivable within the cavity, characterised in that one of the taper and the inner wall has a first anti-rotation feature and a second anti-rotation feature, the first anti-rotation feature and the second anti-rotation feature being inclined, and the other of the taper and the inner wall has a third anti-rotation feature, and wherein the trial femoral head is attachable to the trial femoral neck in a first angular configuration corresponding to a right hip joint, in which the third anti-rotation feature and the first anti-rotation feature engage, and a second angular configuration corresponding to a left hip joint, wherein the third anti-rotation feature and the second anti-rotation feature engage.
Method for configuring a wind energy installation, comprising the following steps - predetermined parameters associated with the wind energy installation are selected from a control database for the purpose of configuring the wind energy installation, - the selected parameters are stored on a mobile data storage medium, - the selected parameters are transmitted from the mobile data storage medium to the wind energy installation, - the selected parameters are implemented in the wind energy installation, wherein the method is characterized by the following steps: - the parameters implemented in the wind energy installation are read out by a monitoring device networked to the wind energy installation and to the control database, and - the parameters which have been read out are compared with the predetermined parameters associated with the wind energy installation and stored in the control database, wherein each parameter is identified by an individual parameter key and the parameter key comprises at least one of the following items of information - identification of the parameter, - identification of the wind energy installation in which it is used, and - identification of the person who last changed the implemented parameter. - predetermined parameters associated with the wind energy installation are selected from a control database for the purpose of configuring the wind energy installation, - the selected parameters are stored on a mobile data storage medium, - the selected parameters are transmitted from the mobile data storage medium to the wind energy installation, - the selected parameters are implemented in the wind energy installation, wherein the method is characterized by the following steps: - the parameters implemented in the wind energy installation are read out by a monitoring device networked to the wind energy installation and to the control database, and - the parameters which have been read out are compared with the predetermined parameters associated with the wind energy installation and stored in the control database, wherein each parameter is identified by an individual parameter key and the parameter key comprises at least one of the following items of information - identification of the parameter, - identification of the wind energy installation in which it is used, and - identification of the person who last changed the implemented parameter.
Material of olivine crystallographic structure and of formula Z Z' M m ( SiO 4) 1-x ( PO 4) x in which: - Z is chosen from beryllium Be, magnesium Mg, calcium Ca, strontium Sr, barium Ba and mixtures thereof, - M is chosen from iron Fe, nickel Ni, cobalt Co, manganese Mn, chromium Cr and mixtures thereof, the degree of oxidation of the element M being greater than or equal to 2 and less than 4, - z', m and x are the stoichiometric coefficients of the chemical elements Z and M and of the group PO 4 3 −, respectively, and comply with the following conditions: ∘ 0 < x < 0.8, ∘ 0 < m, ∘ 0 < z ′ ≤ 1 − x 2. - Z is chosen from beryllium Be, magnesium Mg, calcium Ca, strontium Sr, barium Ba and mixtures thereof, - M is chosen from iron Fe, nickel Ni, cobalt Co, manganese Mn, chromium Cr and mixtures thereof, the degree of oxidation of the element M being greater than or equal to 2 and less than 4, - z', m and x are the stoichiometric coefficients of the chemical elements Z and M and of the group PO 4 3 −, respectively, and comply with the following conditions: ∘ 0 < x < 0.8, ∘ 0 < m, ∘ 0 < z ′ ≤ 1 − x 2. ∘ 0 < x < 0.8, ∘ 0 < m, ∘ 0 < z ′ ≤ 1 − x 2.
A solar cell module comprising: a plurality of solar cells each having a collecting electrode (11, 12, 21, 22) formed on a surface thereof; and an electric conductor (41, 42) connecting the collecting electrode (11, 12, 21, 22) of a solar cell and the collecting electrode (11, 12, 21, 22) of an adjacent solar cell, wherein the collecting electrode (11, 12, 21, 22) of the solar cell is partially embedded in the electric conductor (41, 42), and the solar cell and the electric conductor (41, 42) are bonded together with a resin (31, 32), wherein the electric conductor (41, 42) has a core material and a surface layer formed on a surface of the core material, and the collecting electrode (11, 12, 21, 22) is partially embedded in the surface layer. a plurality of solar cells each having a collecting electrode (11, 12, 21, 22) formed on a surface thereof; and an electric conductor (41, 42) connecting the collecting electrode (11, 12, 21, 22) of a solar cell and the collecting electrode (11, 12, 21, 22) of an adjacent solar cell, wherein the collecting electrode (11, 12, 21, 22) of the solar cell is partially embedded in the electric conductor (41, 42), and the solar cell and the electric conductor (41, 42) are bonded together with a resin (31, 32), wherein the electric conductor (41, 42) has a core material and a surface layer formed on a surface of the core material, and the collecting electrode (11, 12, 21, 22) is partially embedded in the surface layer.
A composition comprising the reaction product of (a) a first polymer (rubber phase); (b) a second polymer (thermoplastic phase); (c) a carboxylic acid anhydride; (d) either a vinyl-silane in combination with a peroxide or a sulphur-silane; and whereby component (d) is allowed to react with the polymers first. (a) a first polymer (rubber phase); (b) a second polymer (thermoplastic phase); (c) a carboxylic acid anhydride; (d) either a vinyl-silane in combination with a peroxide or a sulphur-silane;
A pharmaceutical composition comprising 40 mg doxycycline or a pharmaceutically acceptable salt thereof for use in treating acne in a subject in need of the treatment, wherein the pharmaceutical composition comprises 30 mg doxycycline in an immediate release portion and 10 mg doxycycline in a delayed-release portion and wherein the pharmaceutical composition is to be orally administered to the subject once daily for a treatment period of 16 weeks.
A detection and warning device for an alarm system, the device including: - at least one intrusion detection device, - a radio component (2, 62) for detecting interference on the ISM and GSM bands, - processing means, calculation means and storage means, configured to perform a processing of the signal provided by the intrusion detection device and the interference detection radio component in order to detect an intrusion and/or a radio interference, - a radio module (4, 6) including an ISM receiving radio component (42, 62), - power supply means, characterised in that - the radio module (4, 6) further includes an ISM and LPWAN emitting radio component (41, 61) which is configured to transmit either an alert signal to a local alarm center in ISM band upon intrusion detection without radio interference, or an alert signal to a remote telemonitoring center through an LPWAN network in unidirectional mode in the case of radio interference detection with or without intrusion detection; - and in that the device is integrated into a deterrent device or is connected in a wired or infrared manner to a deterrent device, and includes means for activating the deterrent device in the case of intrusion detection with radio interference. - at least one intrusion detection device, - a radio component (2, 62) for detecting interference on the ISM and GSM bands, - processing means, calculation means and storage means, configured to perform a processing of the signal provided by the intrusion detection device and the interference detection radio component in order to detect an intrusion and/or a radio interference, - a radio module (4, 6) including an ISM receiving radio component (42, 62), - power supply means, - the radio module (4, 6) further includes an ISM and LPWAN emitting radio component (41, 61) which is configured to transmit either an alert signal to a local alarm center in ISM band upon intrusion detection without radio interference, or an alert signal to a remote telemonitoring center through an LPWAN network in unidirectional mode in the case of radio interference detection with or without intrusion detection; - and in that the device is integrated into a deterrent device or is connected in a wired or infrared manner to a deterrent device, and includes means for activating the deterrent device in the case of intrusion detection with radio interference.
Computer-implemented method for designing a three-dimensional modeled object comprising: • providing a boundary representation of the modeled object, the boundary representation comprising a set of faces each defined as a bounded portion of a respective supporting surface; wherein the method further comprises: • determining a subset of the set of faces of the boundary representation for which the faces are a copy one of another; • forming a first group of faces within the subset that form a geometrical pattern; and • associating to the first group of faces at least one second group of faces that are, for each face of the second group, adjacent to a respective face of the first group and that are, for each pair of faces of the second group, compliant with the rigid motion that transforms, one into the other, the respective faces of the first group to which the faces of the pair are adjacent; wherein, for the associating, a pair of faces is evaluated to be compliant with the rigid motion that transforms, one into the other, respective faces of the first group to which the faces of the pair are adjacent, when the rigid motion also transforms, one into the other, the supporting surfaces respective to the faces of the pair, at least in an area of adjacency of the faces of the pair to the respective faces of the first group; wherein forming the first group of faces within the subset comprises testing whether an occurrence of one of a predetermined set of geometrical patterns is present within the subset, wherein the predetermined set of geometrical patterns includes a set of recurrently defined patterns, wherein the set of recurrently defined patterns are determined by rigid motions such as translations and rotations mapping at least one face of each of said patterns to at least one other face of the same pattern. • providing a boundary representation of the modeled object, the boundary representation comprising a set of faces each defined as a bounded portion of a respective supporting surface; • determining a subset of the set of faces of the boundary representation for which the faces are a copy one of another; • forming a first group of faces within the subset that form a geometrical pattern; and • associating to the first group of faces at least one second group of faces that are, for each face of the second group, adjacent to a respective face of the first group and that are, for each pair of faces of the second group, compliant with the rigid motion that transforms, one into the other, the respective faces of the first group to which the faces of the pair are adjacent;
A washing machine inner drum, comprising a hollow cylinder-shaped inner drum body, wherein at least one counterweight body is disposed fixedly to the inner drum body, the counterweight body is disposed symmetrically with respect to an axis of the inner drum body; when the inner drum body rotates, the counterweight body is capable of rotating with the inner drum body; and a center of mass of the counterweight body is positioned in the axis of the inner drum body; wherein a front-end flange and a rear-end flange are disposed at front and rear openings of the inner drum body, respectively; a hollow annular guard shell is disposed at an outer peripheral face of the front-end flange, the guard shell comprises at least two cavities (51,52); wherein the counterweight body is provided inside at least one first cavity of the at least two cavities (51,52), and liquid or a mixture including steel balls and silicone oil is filled inside at least one second cavity of the at least two cavities (51,52); a balancing ring is disposed at an outer peripheral face of the rear-end flange and is filled with the mixture including steel balls and silicone oil.
An oil-gas-water multi-phase flow adjusting apparatus, which is mounted to an oil pipe for changing the original flow pattern and flow state of the oil-gas-water multi-phase flow and which is integrated with functions of separating gas from the oil-gas-water multi-phase flow and continuously sampling the liquid, wherein an inlet pipe section is used for an oil-gas-water multi-phase flow, a vortex flow guide spiral pipe makes the oil-gas-water multi-phase flow move in vortex flow to separate gas, and a gas discharge pipe is a gas discharge channel at the center of the vortex flow, and the mounting position of a mixed liquid relief exit pipe section is used for controlling the level height of a liquid reservoir, characterized in that the inlet pipe section is an inlet accelerating pipe section with inside diameter reduction for accelerating the oil-gas-water multi-phase flow and a liquid receiving cone, whose broader opening is facing towards the vortex flow guide spiral pipe, makes the liquid move in natural vortex flow to realize a secondary gas-liquid separation, and a mixer, that receives the liquid from a smaller opening of the cone, mixes the oil and water in the separated liquid to be uniform.
A liquid composition comprising a) 2 to 30 wt%, based on the total weight of the liquid composition, of a non-ionic water-soluble polysaccharide ether; b) 55 to 90 wt%, based on the total weight of the liquid composition, of a polyol having 3 to 4 hydroxyl groups; c) 5 to 25 wt%, based on the total weight of the liquid composition, of water; and d) 0.1 to 5 wt%, based on the total weight of the liquid composition, of at least one multivalent inorganic anion salt. a) 2 to 30 wt%, based on the total weight of the liquid composition, of a non-ionic water-soluble polysaccharide ether; b) 55 to 90 wt%, based on the total weight of the liquid composition, of a polyol having 3 to 4 hydroxyl groups; c) 5 to 25 wt%, based on the total weight of the liquid composition, of water; and d) 0.1 to 5 wt%, based on the total weight of the liquid composition, of at least one multivalent inorganic anion salt.
Steel plate quality assurance equipment comprising, together with a steel plate manufacturing line including a finishing mill, and accelerated cooling equipment installed on the downstream side of the finishing mill as to the advancing direction of the steel plate manufacturing line: temperature measurement means (6, 7, 8) configured to measure steel plate temperature; and measured temperature analyzing means configured to analyze the measured steel plate temperature; characterized in that a scanning radiation thermometer and a spot type radiation thermometer each of which is made up of a plurality of high-temperature thermometers and low-temperature thermometers are disposed on the downstream side in the advancing direction of the steel plate manufacturing line of said accelerated cooling equipment. temperature measurement means (6, 7, 8) configured to measure steel plate temperature; and measured temperature analyzing means configured to analyze the measured steel plate temperature; characterized in that a scanning radiation thermometer and a spot type radiation thermometer each of which is made up of a plurality of high-temperature thermometers and low-temperature thermometers are disposed on the downstream side in the advancing direction of the steel plate manufacturing line of said accelerated cooling equipment.
A safe DC stimulator (SDCS) apparatus for inhibiting vestibular nerve activity, the apparatus comprising: an ionic current circuit filled with an artificial perilymph and comprising first and second electrode tubes configured to be connected to a vestibular tissue; first and second electrodes suspended in said ionic current circuit and adapted to receive an AC current having alternating stimulation polarity; and valves operatively arranged within said ionic current circuit and on either side of said first and second electrodes, wherein the valves are configured to change from open-to-closed and closed-to-open with each change in stimulation polarity, and wherein DC stimulation to the vestibular tissue is delivered through the first and second electrode tubes. an ionic current circuit filled with an artificial perilymph and comprising first and second electrode tubes configured to be connected to a vestibular tissue; first and second electrodes suspended in said ionic current circuit and adapted to receive an AC current having alternating stimulation polarity; and valves operatively arranged within said ionic current circuit and on either side of said first and second electrodes, wherein the valves are configured to change from open-to-closed and closed-to-open with each change in stimulation polarity, and wherein DC stimulation to the vestibular tissue is delivered through the first and second electrode tubes.