mhurhangee/ep-ind-claims huggingface dataset:
An injection molding machine comprising: a stationary platen on which a stationary mold is mounted; a movable platen on which a movable mold is mounted; a rear platen which is disposed on the side opposite to that of the stationary platen with respect to the movable platen; a toggle mechanism for performing mold closing, mold clamping, and mold opening, which is supported by the rear platen and which comprises a first link and a second link; a mold clamping motor which operates the toggle mechanism and moves the movable platen through the toggle mechanism; wherein the toggle mechanism is disposed on the side opposite to that of the movable platen with respect to the rear platen, and the first link is connected to the rear platen through a first pin and made so as to be able to oscillate with the center line of said first pin as the center. a stationary platen on which a stationary mold is mounted; a movable platen on which a movable mold is mounted; a rear platen which is disposed on the side opposite to that of the stationary platen with respect to the movable platen; a toggle mechanism for performing mold closing, mold clamping, and mold opening, which is supported by the rear platen and which comprises a first link and a second link; a mold clamping motor which operates the toggle mechanism and moves the movable platen through the toggle mechanism; wherein the toggle mechanism is disposed on the side opposite to that of the movable platen with respect to the rear platen, and the first link is connected to the rear platen through a first pin and made so as to be able to oscillate with the center line of said first pin as the center.
Multilayer endless and vulcanized printing blanket, containing at least one rigidity support, wherein the printing blanket contains a first layer, which comprises a polymer blend on the basis of at least one elastomer and serves as a covering layer, at least one further layer and at least one rigidity support, wherein the rigidity support is in the form of a thread construction and the individual threads of the thread construction are in the form of a yarn or twisted yarn, wherein a yarn or a twisted yarn with S twist and a yarn or a twisted yarn with Z twist respectively lie alternately next to one another in parallel in the running direction.
A fastening element configured to be tied into one or more knots, the fastening element comprising: a non-load bearing core comprising a first biocompatible polymer; and a load bearing sheath comprised of a second biocompatible polymer, wherein the load bearing sheath surrounds the non-load bearing core, and wherein the non-load bearing core is configured to collapse when the fastening element is tied into one or more knots, wherein the fastening element has a tensile strength value ranging from 100 N to 400 N and wherein the non-load bearing core has a Durometer Hardness Type A value ranging from 15 to 30. a non-load bearing core comprising a first biocompatible polymer; and a load bearing sheath comprised of a second biocompatible polymer, wherein the load bearing sheath surrounds the non-load bearing core, and wherein the non-load bearing core is configured to collapse when the fastening element is tied into one or more knots, wherein the fastening element has a tensile strength value ranging from 100 N to 400 N and wherein the non-load bearing core has a Durometer Hardness Type A value ranging from 15 to 30.
A method (300, 320, 340) for three input channel voting comprising the steps of: sorting three input values by magnitude into a high input value, a middle input value, and a low input value (302, 322, 342); testing the three input values, wherein the testing further comprises the steps of: subtracting the middle input value from the high input value to calculate a first difference (303, 323); comparing an absolute value of the first difference to a failure threshold, wherein a first intermediate value is determined based on the comparing an absolute value of the first difference to the failure threshold (304, 324); subtracting the middle input value from the low input value to calculate a second difference (306, 326); and comparing an absolute value of the second difference to the failure threshold, wherein a second intermediate value is determined based on the comparing an absolute value of the second difference to the failure threshold (307, 327); and averaging the first intermediate value and the second intermediate value to produce an output indicative of the three input values (309, 329, 348). sorting three input values by magnitude into a high input value, a middle input value, and a low input value (302, 322, 342); testing the three input values, wherein the testing further comprises the steps of: subtracting the middle input value from the high input value to calculate a first difference (303, 323); comparing an absolute value of the first difference to a failure threshold, wherein a first intermediate value is determined based on the comparing an absolute value of the first difference to the failure threshold (304, 324); subtracting the middle input value from the low input value to calculate a second difference (306, 326); and comparing an absolute value of the second difference to the failure threshold, wherein a second intermediate value is determined based on the comparing an absolute value of the second difference to the failure threshold (307, 327); and subtracting the middle input value from the high input value to calculate a first difference (303, 323); comparing an absolute value of the first difference to a failure threshold, wherein a first intermediate value is determined based on the comparing an absolute value of the first difference to the failure threshold (304, 324); subtracting the middle input value from the low input value to calculate a second difference (306, 326); and comparing an absolute value of the second difference to the failure threshold, wherein a second intermediate value is determined based on the comparing an absolute value of the second difference to the failure threshold (307, 327); and averaging the first intermediate value and the second intermediate value to produce an output indicative of the three input values (309, 329, 348).
A steady rest for holding a workpiece on a machine tool, comprising an essentially perpendicularly disengageable actuating piston which is flanked by an angle lever on both sides, and which within a housing cooperates with the angle levers via a pressure element, a sealing air supply for avoiding penetration of liquid being associated with the housing, wherein a disengaged position of the pressure element is detectable by means of a distance sensor that is associated with the housing, below a lowest position of the pressure element, characterized in that a run-up cavity of the distance sensor for draining the distance sensor via a drain hole that is closeable via a sealing air-actuated discharge valve.
A device for treatment of skin comprising a substrate, wherein the substrate comprises a plurality of discrete galvanic couples, each galvanic couple comprising a first conductive electrode that is an anode in electronic communication with a second conductive electrode that is a cathode, wherein the electrodes are deposited on the substrate.
A roller for moveable objects, in particular a bed castor, at least comprising a wheel, a fork receiving the same one, a guiding tube which can be pivoted with respect to the fork via at least one bearing, locking means provided on the side of the fork as well as a rotation-proof brake system that can be operatively connected to the wheel, wherein the brake system comprises an essentially cylindrical fixing element which is profiled on one side and can be operatively connected to a polygonal safety element on the side of the fork for forming the rotation lock, wherein a profile provided on the fixing element essentially corresponds to the outer contour of the safety element, characterized in that in the installed condition the profile at least partially overlaps the safety element, wherein the safety element is designed like a hexagonal nut.
A coextrusion head for a food processing machine, in particular a coextrusion machine, for coextruding a food mass and a casing surrounding the food mass, comprising - at least one feed line section having an inner pipe for conducting in a production direction the food mass to be formed into a strand, wherein an inlet end of the inner pipe is connectable to an outlet of a stuffing machine, - a housing extending in the production direction from the feed line section and surrounding the inner pipe, and - a receiving chamber, formed between the inner pipe and the housing, for a casing material to be applied to the strand, said receiving chamber having a housing inlet for the casing material, characterized in that the feed line section and the housing are integrally embodied and the coextrusion head further comprises a die attachment that has a die opening shaped correspondingly to the inner pipe and that is connected to the housing, in particular to a distal end of the housing. - at least one feed line section having an inner pipe for conducting in a production direction the food mass to be formed into a strand, wherein an inlet end of the inner pipe is connectable to an outlet of a stuffing machine, - a housing extending in the production direction from the feed line section and surrounding the inner pipe, and - a receiving chamber, formed between the inner pipe and the housing, for a casing material to be applied to the strand, said receiving chamber having a housing inlet for the casing material,
An apparatus for counting and sizing undissolved particles in a vessel that is at least partially filled with a fluid, the apparatus comprising at least one processor configured to: (a) receive at least one image of the particles in the vessel obtained under specified imaging conditions; (b) based on the at least one image, detect the particles and determine information indicative of the apparent size of the detected particles in the at least one image; (c) determine apparent particle size population information indicative of an apparent particle size distribution of the detected particles; and (d) determine actual particle size population information indicative of the actual particle size distribution of the detected particles based on a comparison between: (i) the apparent particle size population information; and (ii) calibration population information indicative of an apparent size distribution for each of a plurality of sets of standard sized particles having different sizes imaged under conditions corresponding to the specified imaging conditions; characterised in that the processor is configured to fit a superposition of apparent size distributions for a plurality of sets of standard sized particles to the apparent particle size population of the detected particles by: minimizing a difference between the superposition and the apparent particle size population of the detected particles by adjusting the weighting of the apparent size distributions for the plurality of sets of standard sized particles. (a) receive at least one image of the particles in the vessel obtained under specified imaging conditions; (b) based on the at least one image, detect the particles and determine information indicative of the apparent size of the detected particles in the at least one image; (c) determine apparent particle size population information indicative of an apparent particle size distribution of the detected particles; and (d) determine actual particle size population information indicative of the actual particle size distribution of the detected particles based on a comparison between: (i) the apparent particle size population information; and (ii) calibration population information indicative of an apparent size distribution for each of a plurality of sets of standard sized particles having different sizes imaged under conditions corresponding to the specified imaging conditions; (i) the apparent particle size population information; and (ii) calibration population information indicative of an apparent size distribution for each of a plurality of sets of standard sized particles having different sizes imaged under conditions corresponding to the specified imaging conditions;
A lighting device, comprising: an active light source operable to emit light across a plurality of wavelengths; at least one double-notch reflective filter that substantially passes light of a first set of wavelengths in the plurality of wavelengths and that substantially reflects light of a second set of wavelengths in the plurality of wavelengths, the second set of wavelengths including a first rejection band and a second rejection band of about 570nm to 600 nm, the at least one double-notch reflective filter positioned in an optical path between the active light source and an exterior of the lighting device to filter the light before the light reaches the exterior of the lighting device; and a wavelength shifter positioned and oriented to receive at least some of the light of the second set of wavelengths returned from the at least one double-notch reflective filter and in response emit light at wavelengths shifted from respective first rejection band and the second rejection band toward an optical exit of the lighting device, characterized in that the first rejection band is a band of about 400nm to 480nm. an active light source operable to emit light across a plurality of wavelengths; at least one double-notch reflective filter that substantially passes light of a first set of wavelengths in the plurality of wavelengths and that substantially reflects light of a second set of wavelengths in the plurality of wavelengths, the second set of wavelengths including a first rejection band and a second rejection band of about 570nm to 600 nm, the at least one double-notch reflective filter positioned in an optical path between the active light source and an exterior of the lighting device to filter the light before the light reaches the exterior of the lighting device; and a wavelength shifter positioned and oriented to receive at least some of the light of the second set of wavelengths returned from the at least one double-notch reflective filter and in response emit light at wavelengths shifted from respective first rejection band and the second rejection band toward an optical exit of the lighting device, characterized in that the first rejection band is a band of about 400nm to 480nm.
Blind rivet having a rivet sleeve and a pin, the rivet sleeve having a sleeve head for contact with a visible-side workpiece surface and a sleeve shank and a through hole, through which the pin is guided, the pin having a blind-side pin head for contact in the region of a blind-side end of the sleeve shank, and the sleeve shank having a first forming section and a second forming section which is arranged axially spaced apart from the first forming section and closer to the sleeve head, a first intermediate section being formed between the first and the second forming section, which first intermediate section, during setting of the blind rivet, can form a first blind head which can be formed at axially different points in order to set up different clamping thicknesses, wherein the sleeve shank has a third forming section which is arranged axially spaced apart from the second forming section and closer to the sleeve head, a second intermediate section being formed between the second and the third forming section in such a way that, during setting of the blind rivet for setting up relatively great clamping thicknesses (K MAX), the second intermediate section is arranged axially between the first blind head, which is formed by the first intermediate section, and the sleeve head and, during setting of the blind rivet for setting up relatively small clamping thicknesses (K MIN), forms a second blind head, and wherein the sleeve shank has a fourth forming section which is arranged between the second and the third forming section, the second intermediate section being formed between the third forming section and the fourth forming section, characterized in that the third and the fourth forming section are formed by conical embossed portions, the diameter of which increases towards the second intermediate section.
A person lifting apparatus comprising a strap movement system, the person lifting apparatus comprising: a housing; a lifting strap feeding device (38, 40) located in the housing, the lifting strap feeding device (38, 40) comprising a motor (62, 64) connected to a drum (66, 68) and a lifting strap (18, 20) wound on the drum (66, 68); a sensor that provides a signal indicative of force on the lifting strap (18, 20); a controller that receives the signal from the sensor, the controller controlling operation of the motor (62, 64) based on the signal; and a user input device (412, 612, 620) that is able to place the strap movement system in a fast mode, wherein the controller includes logic that, based on the signal, speeds up operation of the motor (62, 64) from a normal operating speed if the force on the lifting strap (18, 20) is below a predetermined threshold value and the strap movement system is in the fast mode. a housing; a lifting strap feeding device (38, 40) located in the housing, the lifting strap feeding device (38, 40) comprising a motor (62, 64) connected to a drum (66, 68) and a lifting strap (18, 20) wound on the drum (66, 68); a sensor that provides a signal indicative of force on the lifting strap (18, 20); a controller that receives the signal from the sensor, the controller controlling operation of the motor (62, 64) based on the signal; and a user input device (412, 612, 620) that is able to place the strap movement system in a fast mode, wherein the controller includes logic that, based on the signal, speeds up operation of the motor (62, 64) from a normal operating speed if the force on the lifting strap (18, 20) is below a predetermined threshold value and the strap movement system is in the fast mode.
Method for managing the amounts of power drawn from power units (30.1, 32.1) of the propulsion units (30, 32) of an aircraft, each power unit (30.1, 32.1) being configured to assume an operational state or a non-operational state and having a power drawing capacity, the aircraft comprising at least first and second power units (30.1, 32.1), which for a flight require a minimum number (Mmin) of power units in the operational state and which have actual energy requirements, the method comprising a step of increasing the amounts of power drawn from at least the first and second power units (30.1, 32.1); characterized in that the method comprises a step of increasing the amount of power drawn from said second power unit (32.1) that is time shifted, with respect to a step of increasing the amount of power drawn from said first power unit (30.1), for a duration that at least allows the operational state or the non-operational state of the first power unit (30.1) to be determined.
Aerodynamic system for motor vehicle, comprising at least one vortex generator which is able to generate a vortex by creating a periodic air jet and is able to be positioned downstream of at least one boundary layer separation region of at least one bodywork element of a vehicle, said boundary layer separation region generating a turbulent zone comprising a shear layer and a main returning vortex, characterised in that said vortex generator comprises at least one orientable nozzle able to generate vortices moving in a defined direction toward the shear layer and the main returning vortex, in a plane different from the shear layer.
An ink-jet reverse printing method of overprinting a first ink and a second ink on a low-liquid absorbing transparent printing medium, in which: the first ink and the second ink are respectively in the form of a water-based ink comprising a colorant, a polymer, an organic solvent and water; said ink-jet reverse printing method comprising the steps of forming characters or images using at least one ink as the first ink, and then forming a background image using the second ink such that the background image is superimposed on at least a part of the characters or images formed by the first ink; and characterized in that: a static surface tension and a viscosity of the first ink and a static surface tension and a viscosity of the second ink satisfy a relationship represented by the following formulae and: T 2 − T 1 < 0 mN / m and V 2 − V 1 ≥ 1.0 mPa · s wherein T 2 is the static surface tension of the second ink; T 1 is the static surface tension of the first ink; V 2 is the viscosity of the second ink as measured at 32°C; and V 1 is the viscosity of the first ink as measured at 32°C. the first ink and the second ink are respectively in the form of a water-based ink comprising a colorant, a polymer, an organic solvent and water; said ink-jet reverse printing method comprising the steps of forming characters or images using at least one ink as the first ink, and then forming a background image using the second ink such that the background image is superimposed on at least a part of the characters or images formed by the first ink; and characterized in that: a static surface tension and a viscosity of the first ink and a static surface tension and a viscosity of the second ink satisfy a relationship represented by the following formulae and: T 2 − T 1 < 0 mN / m and V 2 − V 1 ≥ 1.0 mPa · s wherein T 2 is the static surface tension of the second ink; T 1 is the static surface tension of the first ink; V 2 is the viscosity of the second ink as measured at 32°C; and V 1 is the viscosity of the first ink as measured at 32°C. a static surface tension and a viscosity of the first ink and a static surface tension and a viscosity of the second ink satisfy a relationship represented by the following formulae and: T 2 − T 1 < 0 mN / m and V 2 − V 1 ≥ 1.0 mPa · s wherein T 2 is the static surface tension of the second ink; T 1 is the static surface tension of the first ink; V 2 is the viscosity of the second ink as measured at 32°C; and V 1 is the viscosity of the first ink as measured at 32°C.