mhurhangee/ep-ind-claims huggingface dataset:
A urine sampling container, comprising: a storage tube formed as an elongated tube and storing urine, where one end of the storage tube is a closed end and the other end of the storage tube is an opening end; a urine collection tube formed as an elongated tube and including a side surface having a urine collection port, where one end of the urine collection tube is a closed end and the other end of the urine collection tube is an opening end freely attachable to and detachable from the opening end of the storage tube; a cover tube formed as an elongated tube, formed so that the urine collection tube can be inserted to and removed from the cover tube, and covering the urine collection port, where one end of the cover tube is a closed end and the other end of the cover tube is an opening end; wherein the urine collection tube is screwed in the cover tube in a state in which the urine collection tube is inserted in the cover tube; characterized in that a retaining mechanism provided near the opening ends of the urine collection tube and the cover tube to prevent the cover tube from being removed from the urine collection tube in a state in which the urine collection tube is inserted, screwed and fitted in the cover tube. a storage tube formed as an elongated tube and storing urine, where one end of the storage tube is a closed end and the other end of the storage tube is an opening end; a urine collection tube formed as an elongated tube and including a side surface having a urine collection port, where one end of the urine collection tube is a closed end and the other end of the urine collection tube is an opening end freely attachable to and detachable from the opening end of the storage tube; a cover tube formed as an elongated tube, formed so that the urine collection tube can be inserted to and removed from the cover tube, and covering the urine collection port, where one end of the cover tube is a closed end and the other end of the cover tube is an opening end; wherein the urine collection tube is screwed in the cover tube in a state in which the urine collection tube is inserted in the cover tube; characterized in that a retaining mechanism provided near the opening ends of the urine collection tube and the cover tube to prevent the cover tube from being removed from the urine collection tube in a state in which the urine collection tube is inserted, screwed and fitted in the cover tube.
Process of preparing a suspoemulsion, containing at least a suspended sulfonylurea in oil and at least one active ingredient soluble in such oil, consisting on the steps of: a. Preparing a Premix 1 consisting in at least in one active ingredient that is dissolved in at least one oil b. Preparing a Premix 2 consisting in at least two non-ionic surfactants, respectively a fatty alcohol ethoxylated and/or propoxylated and a castor oil ethoxylated and/or propoxylated, that are dispersed or solubilized in an oil c. Preparing a Premix 3 consisting in at least one secondary active ingredient being this a sulfonylurea herbicide that is dispersed in an oil with the aid of an oil-soluble dispersant of the type non-ionic block copolymer ethoxylated and/or propoxylated and/or a condensed fatty acid ethoxylated and/or propoxylated d. Preparing a Premix 4 consisting in at least a suspending agent dispersed in an oil and at least one ionic surfactant of the type alkylbenzenesulfonate salt e. According to the desired final concentration on the active ingredients, an aliquot of each Premix is taken. f. The mix of Premixes is subjected to a milling process in order to reduce the particle size of the crystals (as an average) of 1 to 15 μm. g. The product is finally cooled down to room temperature naturally and ready for packing. a. Preparing a Premix 1 consisting in at least in one active ingredient that is dissolved in at least one oil b. Preparing a Premix 2 consisting in at least two non-ionic surfactants, respectively a fatty alcohol ethoxylated and/or propoxylated and a castor oil ethoxylated and/or propoxylated, that are dispersed or solubilized in an oil c. Preparing a Premix 3 consisting in at least one secondary active ingredient being this a sulfonylurea herbicide that is dispersed in an oil with the aid of an oil-soluble dispersant of the type non-ionic block copolymer ethoxylated and/or propoxylated and/or a condensed fatty acid ethoxylated and/or propoxylated d. Preparing a Premix 4 consisting in at least a suspending agent dispersed in an oil and at least one ionic surfactant of the type alkylbenzenesulfonate salt e. According to the desired final concentration on the active ingredients, an aliquot of each Premix is taken. f. The mix of Premixes is subjected to a milling process in order to reduce the particle size of the crystals (as an average) of 1 to 15 μm. g. The product is finally cooled down to room temperature naturally and ready for packing.
A system for facilitating processing of cardiac information based on sensed electrical signals, the system comprising: a processing unit configured to: receive a set of electrical signals; receive an indication of a measurement location corresponding to each electrical signal of the set of electrical signals; generate an annotation waveform corresponding to the set of electrical signals, the annotation waveform based on deflections of the set of electrical signals from a baseline signal, the annotation waveform comprising a plurality of annotation waveform values based on each electrical signal of the set of electrical signals, each annotation waveform value representing a probability that the deflection of the electrical signal from the baseline signal represents an activation of cardiac tissue, the baseline signal including a range of values that represent, and/or are determined based on a noise floor; generate, based on the annotation waveform and a set of annotation mapping values, an annotation histogram; and reject or attenuate far-field signal components from the received electrical signals before generating the annotation waveform. receive a set of electrical signals; receive an indication of a measurement location corresponding to each electrical signal of the set of electrical signals; generate an annotation waveform corresponding to the set of electrical signals, the annotation waveform based on deflections of the set of electrical signals from a baseline signal, the annotation waveform comprising a plurality of annotation waveform values based on each electrical signal of the set of electrical signals, each annotation waveform value representing a probability that the deflection of the electrical signal from the baseline signal represents an activation of cardiac tissue, the baseline signal including a range of values that represent, and/or are determined based on a noise floor; generate, based on the annotation waveform and a set of annotation mapping values, an annotation histogram; and reject or attenuate far-field signal components from the received electrical signals before generating the annotation waveform.
A base for a process fieldbus, the base comprising: a hollow body having two opposed members (18, 20) forming an interior space, the body having opposed interior side walls, a first groove extending along each interior side wall, said grooves opposed to each other across the interior of the body and extending parallel to each other; characterized by a first alignment member at one of said grooves; a unitary circuit board assembly in the hollow body, the circuit board assembly including an upper circuit board, a lower circuit board extending parallel to the upper circuit board, and a spacer/fastener member (34, 36) for securing said circuit boards (30, 32) together, and first contact elements for electrical connections with a fieldbus, second contact elements for electrical connections with a power source for the fieldbus, one circuit board having opposed parallel circuit board edges, and a second alignment member at one of said circuit board edges, said circuit board edges fitted in said grooves to prevent the circuit board assembly from moving in a direction perpendicular to the grooves, and said alignment members (76, 78) engaging each other to prevent the circuit board assembly from moving in a direction along the grooves, wherein both circuit boards (30, 32) are positioned in the hollow body. a hollow body having two opposed members (18, 20) forming an interior space, the body having opposed interior side walls, a first groove extending along each interior side wall, said grooves opposed to each other across the interior of the body and extending parallel to each other; characterized by a first alignment member at one of said grooves; a unitary circuit board assembly in the hollow body, the circuit board assembly including an upper circuit board, a lower circuit board extending parallel to the upper circuit board, and a spacer/fastener member (34, 36) for securing said circuit boards (30, 32) together, and first contact elements for electrical connections with a fieldbus, second contact elements for electrical connections with a power source for the fieldbus, one circuit board having opposed parallel circuit board edges, and a second alignment member at one of said circuit board edges, said circuit board edges fitted in said grooves to prevent the circuit board assembly from moving in a direction perpendicular to the grooves, and said alignment members (76, 78) engaging each other to prevent the circuit board assembly from moving in a direction along the grooves, wherein both circuit boards (30, 32) are positioned in the hollow body.
Method for welding a tubular plastic container, comprising at least the following operations: a. a winding operation in which a laminate is wound, b. a positioning operation in which the ends (8, 9) of the laminate are positioned next to one another, c. an extrusion operation in which a softened resin bead is extruded and deposited on the said ends (8, 9), d. a fusion operation in which the said ends (8, 9) are fused by means of the said bead, e. a compression operation in which the weld zone is compressed, f. a cooling operation in which the weld is cooled such that during the said extrusion operation, the bead is moved in a direction parallel to the elements of the device which support the laminate, so that the first contact of the bead, once extruded, occurs directly with the laminate and that the bead is moved vertically in the direction of the force of gravity and in that the welding operation is carried out by the thermal energy of the said bead, the duration of the fusion operation and the thermal energy of the bead being sufficient to melt the said ends (8, 9) of the laminate. a. a winding operation in which a laminate is wound, b. a positioning operation in which the ends (8, 9) of the laminate are positioned next to one another, c. an extrusion operation in which a softened resin bead is extruded and deposited on the said ends (8, 9), d. a fusion operation in which the said ends (8, 9) are fused by means of the said bead, e. a compression operation in which the weld zone is compressed, f. a cooling operation in which the weld is cooled
An absorbent article comprising: a plastic applicator comprising a bio-based content of 10 percent to 100 percent by weight using ASTM D6866-10, method B, the plastic applicator having an insertion portion and a plunger portion, the plunger portion being movable within the insertion portion; and an absorbent tampon disposed within the insertion portion, the absorbent tampon comprising a primary absorbent member which is compressed to a density ranging from 0.25 to 0.45 grams per cubic centimeter as measured by the Tampon Density test method described herein, the primary absorbent member comprising from 50 percent to 100 percent by weight cotton fibers, wherein the plunger portion is capable of expelling the absorbent tampon from the insertion portion. a plastic applicator comprising a bio-based content of 10 percent to 100 percent by weight using ASTM D6866-10, method B, the plastic applicator having an insertion portion and a plunger portion, the plunger portion being movable within the insertion portion; and an absorbent tampon disposed within the insertion portion, the absorbent tampon comprising a primary absorbent member which is compressed to a density ranging from 0.25 to 0.45 grams per cubic centimeter as measured by the Tampon Density test method described herein, the primary absorbent member comprising from 50 percent to 100 percent by weight cotton fibers, wherein the plunger portion is capable of expelling the absorbent tampon from the insertion portion.
A Janus microparticle having, a center-of-mass, a center-of-volume, and a non-uniform density, wherein the center-of-mass and the center-of-volume are distinct, and wherein when the Janus microparticle is suspended in a fluid the Janus microparticle substantially aligns with the gravitational field such that the Janus microparticle is in substantial rotational equilibrium and after perturbation from substantial rotational equilibrium, the Janus microparticle reversibly rotates to return to substantial rotational equilibrium, wherein the Janus particle rotates with a maximum rotational velocity between 5 deg/s and 400 deg/s when exposed to gravitational acceleration of 9.8 m/s 2, and the fluid has a viscosity between 1 mPa*s and 20 mPa*s.
A curing module for a printer, the curing module comprising: a first chamber comprising an air inlet and an air cleaning element comprising a catalytic oxidizer to reduce the amount of a volatile compound comprised in air in the first chamber; a second chamber in fluid communication with the first chamber, the second chamber comprising an air outlet, the second chamber being to contain a medium printed with a printing fluid comprising the volatile compound during a curing process of the printing fluid in which the volatile compound in the printing fluid is evaporated into the air in the second chamber; an air passage to enable air to flow from the air outlet of the second chamber to the air inlet of the first chamber; and an air flow generator to cause air to flow through the first chamber, subsequently through the second chamber, and along the air passage, such that air flowing through the first chamber at least partly comprises air exhausted from the air outlet of the second chamber. a first chamber comprising an air inlet and an air cleaning element comprising a catalytic oxidizer to reduce the amount of a volatile compound comprised in air in the first chamber; a second chamber in fluid communication with the first chamber, the second chamber comprising an air outlet, the second chamber being to contain a medium printed with a printing fluid comprising the volatile compound during a curing process of the printing fluid in which the volatile compound in the printing fluid is evaporated into the air in the second chamber; an air passage to enable air to flow from the air outlet of the second chamber to the air inlet of the first chamber; and an air flow generator to cause air to flow through the first chamber, subsequently through the second chamber, and along the air passage, such that air flowing through the first chamber at least partly comprises air exhausted from the air outlet of the second chamber.
A flooring article (10, 110), comprising at least one face (14, 114) having an anti-slip surface (20, 120), the anti-slip surface comprising; a plurality of spaced apart circular projections (22, 122) raised with respect to the respective face, said projections having a top surface (24, 124) and a side (28, 128) extending between said top surface and said respective face, wherein each projection has a height of between 0.5 mm and 1.5 mm and a top surface with an area of between 9 mm 2 and 36 mm 2, wherein each projection is shaped to have an angular edge (26, 126) between said top surface and said side, and wherein said projections are non-deformable, and wherein the side is shaped to flare outwardly at the base of the projection, and wherein the projections are moulded projections, characterised in that adjacent projections are spaced apart by between 10 mm and 16 mm, measured from centre to centre of said projections. a plurality of spaced apart circular projections (22, 122) raised with respect to the respective face, said projections having a top surface (24, 124) and a side (28, 128) extending between said top surface and said respective face, wherein each projection has a height of between 0.5 mm and 1.5 mm and a top surface with an area of between 9 mm 2 and 36 mm 2, wherein each projection is shaped to have an angular edge (26, 126) between said top surface and said side, and wherein said projections are non-deformable, and wherein the side is shaped to flare outwardly at the base of the projection, and wherein the projections are moulded projections, characterised in that adjacent projections are spaced apart by between 10 mm and 16 mm, measured from centre to centre of said projections.
Use of a viscosity increasing component in a diesel fuel composition, for the purpose of improving the fuel economy of an engine into which the fuel composition is introduced, or of a vehicle powered by such an engine; wherein the viscosity increasing component is a viscosity index improving additive consisting of a block copolymer, which contains one or more monomer blocks selected from ethylene, propylene, butylene, butadiene, isoprene and styrene monomers; and wherein the VI improving additive is used at a concentration of between: (i) 0.01% w/w and 1.0% w/w; (ii) 0.05% w/w and 0.5% w/w; or (iii) 0.1% w/w and 0.3% w/w; based on the total weight of the fuel composition. (i) 0.01% w/w and 1.0% w/w; (ii) 0.05% w/w and 0.5% w/w; or (iii) 0.1% w/w and 0.3% w/w;
A vehicle seat comprising: a headrest body provided at an upper portion of a seat back rotatably supported by a seat cushion on which an occupant is seated, wherein: the headrest body is covered with a skin material; and the headrest body includes a driving body that is configured to form a swelling portion that is a portion of the skin material in a seat-height direction swelling toward a front side of the seat at a surface of a seat front side of the skin material and change a formation position of the swelling portion in the seat-height direction by being operated inside the headrest body; wherein the driving body includes a plurality of airbags, the airbags being arranged in a seat up-down direction and configured to be inflated by air being supplied into the airbags; characterized in that a lower end portion of one airbag included in the plurality of airbags and disposed at a higher position in the seat up-down direction and an upper end portion of another airbag included in the plurality of airbags and disposed adjacent to the one airbag and below the one airbag in the seat up-down direction are overlapped with each other in a seat front-rear direction. the headrest body is covered with a skin material; and the headrest body includes a driving body that is configured to form a swelling portion that is a portion of the skin material in a seat-height direction swelling toward a front side of the seat at a surface of a seat front side of the skin material and change a formation position of the swelling portion in the seat-height direction by being operated inside the headrest body; wherein
A fluid ejection structure, comprising a multitude of thermal resistors at a pitch of at least approximately 300 per inch, a substrate, layers on the substrate, comprising a heat sink region proximate to the resistor, between each resistor and the substrate, and a neighboring region next to the heat sink region, the neighboring region comprising a field oxide layer on the substrate having a first thickness, wherein a reduced field oxide layer in the heat sink region, of a reduced thickness of between approximately 0% and 80% of said first thickness, at least one firing chamber near at least one of the resistors, a fluid feed slot to the firing chamber, wherein the neighboring region extends next to the heat sink region opposite from the fluid feed slot, and a slot region is provided between the heat sink region and the fluid feed slot, the slot region comprising the field oxide layer that covers the substrate and terminates at a fluid feed slot. a heat sink region proximate to the resistor, between each resistor and the substrate, and a neighboring region next to the heat sink region, the neighboring region comprising a field oxide layer on the substrate having a first thickness, wherein
A firearm for providing inductive power to an accessory; the firearm comprising:an inductively powering rail operatively connected to one or more batteries, said inductively powering rail comprising a plurality of inductively powering rail slots, each inductively powering rail slot having a primary U-core, said accessory having secondary U-cores designed to mate with each primary U-core to provide an inductive power connection to said accessory, wherein the inductively powering rail has pins located within said inductively powering rail, wherein said accessory includes magnets, the pins being configured to magnetically couple the magnets to trigger a magnetic switch to indicate engagement of said accessory with said inductively powering rail.
A method for locking a mobile device during vehicle operation, the method comprising: receiving, by a mobile device, data indicating a speed of the vehicle; determining, by a processor of the mobile device, whether the speed of the vehicle is greater than zero kilometers per hour; when the processor determines the speed of the vehicle is greater than zero kilometers per hour and the mobile device is not performing an emergency operation, wirelessly transmitting a command request to a microcontroller separate from the mobile device and wirelessly coupled to the mobile device, the command request being configured to request the microcontroller to generate a locking operation signal; in response to the command request, generating the locking operation signal by the microcontroller that is configured to mimic a wireless keyboard paired with the mobile device, such that the locking operation signal is configured to mimic a wireless keyboard power down signal that prevents operation of the mobile device and configured to circumvent an operation system of the mobile device that is designed to restrict locking operation signals generated by software applications installed on the mobile device; wirelessly transmitting, by the microcontroller, the generated locking operation signal to the mobile device; and locking the mobile device from operation upon receipt of the locking operation signal received from the microcontroller. receiving, by a mobile device, data indicating a speed of the vehicle; determining, by a processor of the mobile device, whether the speed of the vehicle is greater than zero kilometers per hour; when the processor determines the speed of the vehicle is greater than zero kilometers per hour and the mobile device is not performing an emergency operation, wirelessly transmitting a command request to a microcontroller separate from the mobile device and wirelessly coupled to the mobile device, the command request being configured to request the microcontroller to generate a locking operation signal; in response to the command request, generating the locking operation signal by the microcontroller that is configured to mimic a wireless keyboard paired with the mobile device, such that the locking operation signal is configured to mimic a wireless keyboard power down signal that prevents operation of the mobile device and configured to circumvent an operation system of the mobile device that is designed to restrict locking operation signals generated by software applications installed on the mobile device; wirelessly transmitting, by the microcontroller, the generated locking operation signal to the mobile device; and locking the mobile device from operation upon receipt of the locking operation signal received from the microcontroller.