mhurhangee/ep-ind-claims huggingface dataset:
A floor-space saving NBC filtration system for collective protection shelters comprising: an NBC filter unit; an electric blower; a manual air exchange backup for operation during electric power failure; and connectible flexible pipes (62, 64) configured for changing the NBC filtration system state between a ventilation mode, effective during normal times or conventional hazard, and an NBC protection mode, effective during NBC hazard, characterized by said NBC filtration system being fixedly contained in a space located higher than an average person height thereby saving usable floor-space, wherein said manual air exchange backup is remotely operated from a location within the comfortable reach of said shelter occupants, at the arm height of an average person, by usage of a human power interface (24, 94) and mechanical or electric linkage (96, 95, 70) for operation of said manual air exchange backup. an NBC filter unit; an electric blower; a manual air exchange backup for operation during electric power failure; and connectible flexible pipes (62, 64) configured for changing the NBC filtration system state between a ventilation mode, effective during normal times or conventional hazard, and an NBC protection mode, effective during NBC hazard, characterized by said NBC filtration system being fixedly contained in a space located higher than an average person height thereby saving usable floor-space, wherein said manual air exchange backup is remotely operated from a location within the comfortable reach of said shelter occupants, at the arm height of an average person, by usage of a human power interface (24, 94) and mechanical or electric linkage (96, 95, 70) for operation of said manual air exchange backup.
A method of manufacturing a detection sensor, comprising: forming a biometric information sensing layer comprising a transistor (420-T) on a base layer; forming an initial optical pattern layer (430-A) on the biometric information sensing layer; patterning the initial optical pattern layer (430-A) to form a plurality of transmissive portions spaced apart from each other and having a first zeta potential; coating a light blocking material to form an initial light blocking portion (432-A) that covers a side surface and an upper surface of the transmissive portions and has a second zeta potential different from the first zeta potential; spraying an abrasive having the first zeta potential on the initial light blocking portion (432-A); and polishing the initial light blocking portion (432-A) such that the upper surface of the transmissive portions is exposed to form a light blocking portion, wherein the initial light blocking portion (432-A) is polished by the abrasive using a pad. forming a biometric information sensing layer comprising a transistor (420-T) on a base layer; forming an initial optical pattern layer (430-A) on the biometric information sensing layer; patterning the initial optical pattern layer (430-A) to form a plurality of transmissive portions spaced apart from each other and having a first zeta potential; coating a light blocking material to form an initial light blocking portion (432-A) that covers a side surface and an upper surface of the transmissive portions and has a second zeta potential different from the first zeta potential; spraying an abrasive having the first zeta potential on the initial light blocking portion (432-A); and polishing the initial light blocking portion (432-A) such that the upper surface of the transmissive portions is exposed to form a light blocking portion, wherein the initial light blocking portion (432-A) is polished by the abrasive using a pad.
An exercise device having a first elastic loop portion (20a, 120a, 220a) and a second elastic loop portion (20b, 120b, 220b), the first elastic loop portion (20a, 120a, 220a) defines a first preformed continuous loop, the first elastic loop portion (20a, 120a, 220a) having an inner surface and an outer surface, opposite the inner surface; the second elastic loop portion (20b, 120b, 220b) defines a second preformed continuous loop, the second elastic loop portion (20b, 120b, 220b) having an inner surface and an outer surface, opposite the inner surface; and a first joining region (26a, 126, 226) where the outer surface of the first elastic loop portion is attached to the outer surface of the second elastic loop portion, wherein the first joining region (26a, 126, 226) is capable of simultaneous multidirectional stretching when subjected to or released from an applied load, characterized in that a width of the first elastic loop portion (20a, 120a, 200a) is between 2.54 cm to 10.16 cm (1 to 4 inches), and a width of the second elastic loop portion (20b, 120b, 220b) is between 2.54 cm to 10.16 cm (1 to 4 inches); and wherein the width of the first elastic loop portion (20a, 120a, 220a) is selected from a first predetermined width, and the width of the second elastic loop portion (20b, 120b, 220b) is selected from a second predetermined width, and wherein the first predetermined width is not equal to the second predetermined width.
Electronic sensor unit for detecting the contact-free operation of a door or hatch on a motor vehicle, wherein the sensor unit has a housing in which a control and evaluation unit is arranged and wherein a sensor electrode is coupled with the control and evaluation unit, in order to detect a change in capacitance in the sensor electrode on contact-free actuation by a user, wherein the sensor electrode is arranged on a flexible carrier, wherein the sensor electrode is designed in the form of an electrically conductive conductor structure on the carrier, wherein the sensor electrode is deformable along with the flexible carrier, wherein the carrier, together with the sensor electrode, extends at least partially outside of the housing, characterised in that the flexible carrier is a flat material in the form of a film.
A die-cast aluminum alloy, comprising the following components in mass percentages: magnesium: 0.1%-7%, zinc: 12%-35%, manganese: 0.2%-0.8%, iron: 0.1%-0.7%, titanium and/or zirconium: 0.07%-0.2%, optionally silicon: 0%-2.3% and/or copper: 0%-2.6%, inevitable impurities ≤ 0.3%, and aluminum. magnesium: 0.1%-7%, zinc: 12%-35%, manganese: 0.2%-0.8%, iron: 0.1%-0.7%, titanium and/or zirconium: 0.07%-0.2%, optionally silicon: 0%-2.3% and/or copper: 0%-2.6%, inevitable impurities ≤ 0.3%, and aluminum.
An apparatus for controlling the flow of downhole fluids, the apparatus comprising: a body having a throughbore and at least one port extending through a sidewall of the body to enable fluid communication between the throughbore and an exterior of the body; a flow control device for controlling the flow of fluids through the port and arranged to change configuration between a closed configuration in which fluid flow through the port is restricted and an open configuration in which fluid flow through the port is permitted; an actuator mechanism associated with the flow control device for selective actuation of the flow control device to change the configuration of the flow control device between the closed and open configurations; a locking device to lock the configuration of the flow control device; and an unlocking mechanism to unlock the locking device and to permit the actuator mechanism to change the configuration of the flow control device, wherein the unlocking mechanism is pressure operated and comprises a piston configured to move under pressure to remove, destroy or change the configuration of the locking device, and wherein the piston has a valved port to allow pressure equalisation between opposite axial sides of the piston. a body having a throughbore and at least one port extending through a sidewall of the body to enable fluid communication between the throughbore and an exterior of the body; a flow control device for controlling the flow of fluids through the port and arranged to change configuration between a closed configuration in which fluid flow through the port is restricted and an open configuration in which fluid flow through the port is permitted; an actuator mechanism associated with the flow control device for selective actuation of the flow control device to change the configuration of the flow control device between the closed and open configurations; a locking device to lock the configuration of the flow control device; and an unlocking mechanism to unlock the locking device and to permit the actuator mechanism to change the configuration of the flow control device, wherein the unlocking mechanism is pressure operated and comprises a piston configured to move under pressure to remove, destroy or change the configuration of the locking device, and wherein the piston has a valved port to allow pressure equalisation between opposite axial sides of the piston.
A method for handling packets in a network by means of forwarding tables, said method comprising: providing a software switching layer for implementing at least one software forwarding table, providing a hardware switching layer for implementing at least one of exact matching forwarding tables and wildcard matching forwarding tables, using a switch management component for controlling said software switching layer and said hardware switching layer, wherein said switch management component redistributes installed forwarding table entries, FTEs, matching a particular flow between said software switching layer and said hardware switching layer based on traffic characteristics of said flow. the method being characterized in that: when a packet of the flow matched a wildcard FTE of said software forwarding table, the redistributing step, executed by said switch management component, comprises analyzing the matched packet's header fields, deriving an exact matching FTE based on the analysis, moving said exact matching FTE to said hardware switching layer, and installing said exact matching FTE in one of said exact matching forwarding tables. providing a software switching layer for implementing at least one software forwarding table, providing a hardware switching layer for implementing at least one of exact matching forwarding tables and wildcard matching forwarding tables, using a switch management component for controlling said software switching layer and said hardware switching layer, wherein said switch management component redistributes installed forwarding table entries, FTEs, matching a particular flow between said software switching layer and said hardware switching layer based on traffic characteristics of said flow. the method being characterized in that: when a packet of the flow matched a wildcard FTE of said software forwarding table, the redistributing step, executed by said switch management component, comprises analyzing the matched packet's header fields, deriving an exact matching FTE based on the analysis, moving said exact matching FTE to said hardware switching layer, and installing said exact matching FTE in one of said exact matching forwarding tables.
A combination cutting and burnishing orbital drilling tool, comprising: an elongate tool body including a cutting end and extending along a longitudinal axis; wherein the tool body includes a burnishing portion spaced from the cutting end and being configured to induce residual stress in a side wall of a hole without removing material; and a cutting portion interposed between the cutting end and the burnishing portion, the cutting portion configured to remove material from a workpiece, for creating the hole, during an orbital drilling process, characterized in that the burnishing portion includes a plurality of fins extending radially from the tool body and having a length extending along the longitudinal axis, the plurality of fins being distributed circumferentially around the tool body, and each fin has an arched radial outer surface when viewed normal to a side face of the fin. an elongate tool body including a cutting end and extending along a longitudinal axis; wherein the tool body includes a burnishing portion spaced from the cutting end and being configured to induce residual stress in a side wall of a hole without removing material; and a cutting portion interposed between the cutting end and the burnishing portion, the cutting portion configured to remove material from a workpiece, for creating the hole, during an orbital drilling process, characterized in that the burnishing portion includes a plurality of fins extending radially from the tool body and having a length extending along the longitudinal axis, the plurality of fins being distributed circumferentially around the tool body, and each fin has an arched radial outer surface when viewed normal to a side face of the fin. a burnishing portion spaced from the cutting end and being configured to induce residual stress in a side wall of a hole without removing material; and a cutting portion interposed between the cutting end and the burnishing portion, the cutting portion configured to remove material from a workpiece, for creating the hole, during an orbital drilling process, characterized in that the burnishing portion includes a plurality of fins extending radially from the tool body and having a length extending along the longitudinal axis, the plurality of fins being distributed circumferentially around the tool body, and each fin has an arched radial outer surface when viewed normal to a side face of the fin.
An austenitic stainless steel consisting of, in weight percentages, up to 0.20 C, 2.0 - 9.0 Mn, up to 1.0 Si, 15.0 - 23.0 Cr, 3.0-6.0 Ni, 0.1-1.0 Mo, 0.4-0.8 Cu, 0.05 - 0.35 N, 0.001 to 0.003 B, (7.5(%C)) ≤ (%Nb + %Ti + %V + %Ta + %Zr) ≤ 1.5, up to 0.01 Ti, up to 0.050 P, up to 0.030 S, up to 1.5 Nb, balance Fe and incidental impurities, wherein the stainless steel has a PRE N value from 18 to 22, where the PRE N value is calculated from the formula PRE N = %Cr + 3.3 (%Mo) + 16 (%N). up to 0.20 C, 2.0 - 9.0 Mn, up to 1.0 Si, 15.0 - 23.0 Cr, 3.0-6.0 Ni, 0.1-1.0 Mo, 0.4-0.8 Cu, 0.05 - 0.35 N, 0.001 to 0.003 B, (7.5(%C)) ≤ (%Nb + %Ti + %V + %Ta + %Zr) ≤ 1.5, up to 0.01 Ti, up to 0.050 P, up to 0.030 S, up to 1.5 Nb, balance Fe and incidental impurities, wherein the stainless steel has a PRE N value from 18 to 22, where the PRE N value is calculated from the formula PRE N = %Cr + 3.3 (%Mo) + 16 (%N).
Lid for a container for fluid coloring products, comprising a support element, substantially annular in shape and provided with an internal shoulder on which the peripheral part of an impermeable and elastic membrane rests, and a clamping element disposed inside said support element in order to keep said membrane clamped against said internal shoulder, characterized in that said support element is provided in its upper part with an annular groove and in its lower part comprises a corresponding annular protuberance aligned with said annular groove.
Process for preparing aminomethylated bead polymers, characterized in that a) monomer droplets composed of a mixture comprising at least one monoethylenically unsaturated aromatic compound, at least one multiethylenically unsaturated compound and at least one initiator are converted to a bead polymer and b) the bead polymer from step a) is reacted with compounds of the formula or salts thereof where R 1 = C 1 -C 3 -alkyl or H and compounds of the formula where n = 1 to 100, in the presence of 1,3-dichloropropane and in the presence of protic acids to give a phthalimidomethylated bead polymer and c) the phthalimidomethylated bead polymer is hydrolyzed to give an aminomethylated bead polymer. a) monomer droplets composed of a mixture comprising at least one monoethylenically unsaturated aromatic compound, at least one multiethylenically unsaturated compound and at least one initiator are converted to a bead polymer and b) the bead polymer from step a) is reacted with compounds of the formula or salts thereof where R 1 = C 1 -C 3 -alkyl or H and compounds of the formula where n = 1 to 100, in the presence of 1,3-dichloropropane and in the presence of protic acids to give a phthalimidomethylated bead polymer and c) the phthalimidomethylated bead polymer is hydrolyzed to give an aminomethylated bead polymer.
A guide for an elevator, the guide comprising: a base; a frame; and a monitoring system comprising arrays of sensors (30; 341; 342) affixed to each of the base and the frame to respectively sense guide conditions and to generate readings accordingly; wherein the arrays of sensors (30; 341; 342) comprise: a base sensor array affixed to the base; and additional sensor arrays respectively affixed to the frame; and characterized in that the base sensor array comprises at least acceleration, tilt and rotation sensors. a base; a frame; and a monitoring system comprising arrays of sensors (30; 341; 342) affixed to each of the base and the frame to respectively sense guide conditions and to generate readings accordingly; wherein the arrays of sensors (30; 341; 342) comprise: a base sensor array affixed to the base; and additional sensor arrays respectively affixed to the frame; and characterized in that the base sensor array comprises at least acceleration, tilt and rotation sensors. a base sensor array affixed to the base; and additional sensor arrays respectively affixed to the frame; and characterized in that the base sensor array comprises at least acceleration, tilt and rotation sensors.
An apparatus for tracking medical products, each of the medical products having a radio frequency identification (RFID) tag uniquely associated therewith, the apparatus comprising: a dispensing unit that includes a casing comprising a compartment for receiving one or more medical products therein; a management computer; the dispensing unit including a dispensing terminal adapted to read the RFID tags associated with the medical products in the compartment, to produce readings of the RFID tags and to transmit the readings of the RFID tags to the management computer; the management computer being adapted to receive and process the readings of the RFID tags in the compartment to identify the medical products in the compartment; wherein the management computer is adapted to identify a medical product removed from the compartment by determining a difference between readings of the RFID tags in the compartment taken before and after the medical product is removed from the compartment; the apparatus characterised in that the management computer is adapted to monitor the time period between the time that a medical product is removed from the dispensing unit and the time that the medical product is administered to a patient. a dispensing unit that includes a casing comprising a compartment for receiving one or more medical products therein; a management computer; the dispensing unit including a dispensing terminal adapted to read the RFID tags associated with the medical products in the compartment, to produce readings of the RFID tags and to transmit the readings of the RFID tags to the management computer; the management computer being adapted to receive and process the readings of the RFID tags in the compartment to identify the medical products in the compartment; wherein the management computer is adapted to identify a medical product removed from the compartment by determining a difference between readings of the RFID tags in the compartment taken before and after the medical product is removed from the compartment; the apparatus characterised in that the management computer is adapted to monitor the time period between the time that a medical product is removed from the dispensing unit and the time that the medical product is administered to a patient.
A toner T 1 to develop an electrostatic latent image, the toner T 1 comprising: a core particle comprising a binder resin, a colorant, and a releasing agent, and an external additive adhering to an external surface of the core particle, the external additive comprising a silica particle, an anatase titanium dioxide particle, a rutile titanium dioxide particle, and a strontium titanium oxide particle, wherein the toner T 1 satisfies Conditions 1, 2, and 3 below, where 2θ is an angle of an x-ray diffraction detector and CPS is a number of counts per second of X-rays measured by the detector at the angle of 2θ: Condition 1: an X-ray diffraction intensity of the toner T 1 at an angle 2θ of 25.3° is larger than 0.4 CPS to less than 4 CPS; Condition 2: an XRD intensity of the toner T 1 at an angle 2θ of 27.4° is larger than 34 CPS to less than 344 CPS; and Condition 3: an XRD intensity of the toner T 1 at an angle 2θ of 32.3° is larger than 92 CPS to less than 1834 CPS; wherein the XRD intensity is measured according to the description. a core particle comprising a binder resin, a colorant, and a releasing agent, and an external additive adhering to an external surface of the core particle, the external additive comprising a silica particle, an anatase titanium dioxide particle, a rutile titanium dioxide particle, and a strontium titanium oxide particle, wherein the toner T 1 satisfies Conditions 1, 2, and 3 below, where 2θ is an angle of an x-ray diffraction detector and CPS is a number of counts per second of X-rays measured by the detector at the angle of 2θ: Condition 1: an X-ray diffraction intensity of the toner T 1 at an angle 2θ of 25.3° is larger than 0.4 CPS to less than 4 CPS; Condition 2: an XRD intensity of the toner T 1 at an angle 2θ of 27.4° is larger than 34 CPS to less than 344 CPS; and Condition 3: an XRD intensity of the toner T 1 at an angle 2θ of 32.3° is larger than 92 CPS to less than 1834 CPS; wherein the XRD intensity is measured according to the description. Condition 1: an X-ray diffraction intensity of the toner T 1 at an angle 2θ of 25.3° is larger than 0.4 CPS to less than 4 CPS; Condition 2: an XRD intensity of the toner T 1 at an angle 2θ of 27.4° is larger than 34 CPS to less than 344 CPS; and Condition 3: an XRD intensity of the toner T 1 at an angle 2θ of 32.3° is larger than 92 CPS to less than 1834 CPS; wherein the XRD intensity is measured according to the description.
A method for measuring a reference beam and a corresponding returned beam from a target, the method comprising: selectively activating, based on a laser beam scanning control signal, a first set of sensor elements of a two-dimensional, 2-D, sensor array, the first set of sensor elements corresponding to a location of the reference beam on the 2-D sensor array, the reference beam comprising a portion of a light beam controlled by the laser beam scanning control signal; receiving a detection signal from the first set of sensor elements; determining an actual location of the reference beam on the 2-D sensor array based on the detection signal from the first set of sensor elements; determining an estimated location of the returned beam on the 2-D sensor array based on the actual location of the reference beam, the returned beam returned by the target illuminated by the light beam; and selectively activating a second set of sensor elements on the 2-D sensor array based on the estimated location of the returned beam. selectively activating, based on a laser beam scanning control signal, a first set of sensor elements of a two-dimensional, 2-D, sensor array, the first set of sensor elements corresponding to a location of the reference beam on the 2-D sensor array, the reference beam comprising a portion of a light beam controlled by the laser beam scanning control signal; receiving a detection signal from the first set of sensor elements; determining an actual location of the reference beam on the 2-D sensor array based on the detection signal from the first set of sensor elements; determining an estimated location of the returned beam on the 2-D sensor array based on the actual location of the reference beam, the returned beam returned by the target illuminated by the light beam; and selectively activating a second set of sensor elements on the 2-D sensor array based on the estimated location of the returned beam.