mhurhangee/ep-ind-claims huggingface dataset:
A non-medical process for delivering a semi-firm gel containing a deliverable substance, the process comprising: (a) spraying a group of chicks with a solution containing an alginic acid crosslinking agent; (b) spraying the chicks with a gel containing alginic acid; and (c) incorporating the deliverable substance in the alginic acid crosslinking agent and/or the alginic acid. (a) spraying a group of chicks with a solution containing an alginic acid crosslinking agent; (b) spraying the chicks with a gel containing alginic acid; and (c) incorporating the deliverable substance in the alginic acid crosslinking agent and/or the alginic acid.
A device comprising: • a separating container (10; 10') having a receiving end configured to receive a fluid, • a receiving container (20; 20') arranged in fluid communication with the separating container (10; 10') through a connecting channel (30; 30'), and • a passive valve system (X; 31) provided in the connecting channel (30; 30'), wherein the device is configured to be mounted in a centrifuge platform with the separating container (10: 10') and the receiving container (20: 20') arranged side by side and with a longitudinal axis of each container (10, 20; 10', 20') substantially perpendicular to a centrifuge rotating axis such that in use at a first predefined centrifugal force range a fluid provided within the separating container (10; 10') is separated into phases and at a second predefined centrifugal force range the passive valve system (X; 31) opens thereby transferring a phase of the fluid from the separating container (10; 10') to the receiving container (20; 20'), and characterized in that the connecting channel (30; 30') is coupled to the separating container (10; 10') at a point such that 30-50% of a total volume of the separating container is left more distant from the centrifuge rotating axis than the connecting channel (30; 30') itself such that in use, when the second predefined range of centrifugal force is reached and the passive valve system (X; 31) is opened, a phase of the fluid being left closer from the centrifuge rotating axis than the connecting channel (30; 30') is transferred from the separating container (10; 10') to the receiving container (20; 20') through the connecting channel (30; 30'), wherein the receiving container (20; 20') comprises a plunger (21; 21'; 500) to isolate an inside of the receiving container (20; 20') from the outside, the plunger (21; 21'; 500) being reciprocally lengthwise movable in the receiving container (20; 20'), in a direction of the centrifugal force generated in use by rotation of the centrifuge platform and the plunger (21; 21'; 500) comprising a filling and extracting valve (23; 23'). • a separating container (10; 10') having a receiving end configured to receive a fluid, • a receiving container (20; 20') arranged in fluid communication with the separating container (10; 10') through a connecting channel (30; 30'), and • a passive valve system (X; 31) provided in the connecting channel (30; 30'),
A device for holding and centering a candle wick in a container, characterized in that a fixing device for the candle wick is provided and can be separably connected to the container is such a way that it is pivotable relative to the container.
A system, comprising: a peripheral device; a host device that includes: storage having a stored ID and a corresponding passcode for the peripheral device that is authorized for pairing with the host device; wireless circuitry configured to sense for signals from an individual peripheral device that is in proximity to the host device; a facilitation component configured to compare an ID obtained from the individual peripheral device by the wireless circuitry to the stored ID on the storage and in an instance where the ID obtained from the individual peripheral device by the wireless circuitry matches the stored ID on the storage, the facilitation component is configured to use the corresponding passcode to pair with the individual peripheral device; and a protective packaging intended for a single end user consumer, wherein the protective packaging includes both the host device and the peripheral device and where the peripheral device is configured to sense removal from the protective packaging and to responsively begin broadcasting the signals. a peripheral device; a host device that includes: storage having a stored ID and a corresponding passcode for the peripheral device that is authorized for pairing with the host device; wireless circuitry configured to sense for signals from an individual peripheral device that is in proximity to the host device; a facilitation component configured to compare an ID obtained from the individual peripheral device by the wireless circuitry to the stored ID on the storage and in an instance where the ID obtained from the individual peripheral device by the wireless circuitry matches the stored ID on the storage, the facilitation component is configured to use the corresponding passcode to pair with the individual peripheral device; and storage having a stored ID and a corresponding passcode for the peripheral device that is authorized for pairing with the host device; wireless circuitry configured to sense for signals from an individual peripheral device that is in proximity to the host device; a facilitation component configured to compare an ID obtained from the individual peripheral device by the wireless circuitry to the stored ID on the storage and in an instance where the ID obtained from the individual peripheral device by the wireless circuitry matches the stored ID on the storage, the facilitation component is configured to use the corresponding passcode to pair with the individual peripheral device; and a protective packaging intended for a single end user consumer, wherein the protective packaging includes both the host device and the peripheral device and where the peripheral device is configured to sense removal from the protective packaging and to responsively begin broadcasting the signals.
A holographic process of recording a hologram of a combined reflection and volume type, the process comprising the following steps: arranging a plano-convex positive lens between a hologram recording material and a subject, the plane surface of the lens facing the subject, wherein first object light coming from the subject through said lens and second object light comprising at least one of light reflected at the convex surface of said lens upon illumination of said lens with illumination light from the hologram side and light reflected at the plane surface of said lens upon illumination with illumination light from the hologram side refracted at the convex surface of said lens are entered in the hologram recording material while, at the same time reference light is entered in said hologram recording material, for interference and hologram recording, wherein for hologram recording, said lens is located in such a way as to satisfy at least one of the following conditions and: tan − 1 H − 2 R / 4 L ≦ θ 1 ≦ tan − 1 2 H − R / 2 L tan − 1 H + 2 R / 4 L ≦ θ 2 ≦ tan − 1 2 H + R / 2 L where θ 1 is an angle of incidence on said hologram recording material of light occurring from reflection of illumination light at an outer peripheral end of the convex surface of said plano-convex positive lens, θ 2 is an angle of incidence on said hologram recording material of light occurring from refraction of illumination light at the convex surface of said plano-convex positive lens and reflection of said refracted light at an outer peripheral end of the plane surface of the plano-convex positive lens, L is a distance from said hologram recording material to the lens, H is a size of said hologram recording material, and R is a diameter of said plano-convex positive lens, wherein said reference light is entered in the hologram recording material from the same side as said first object light and said second object light to record the hologram, being a transmission hologram, the process further comprising the step of recording a reflection hologram from the transmission hologram, wherein a reconstructing illumination lights is entered in said transmission hologram to generate diffracted light while, at the same time, another reference light is entered counterpropagating in another volume hologram recording material located at a position of incidence of said diffracted light for interference, thereby recording the reflection volume hologram therein.
An absorbent article, comprising an absorbent element obtainedby wrapping an absorbent body in a wrapping sheet, wherein the absorbent body is obtained by mixing and accumulating fibers and high absorbent polymer particles, the wrapping sheet includes an intermediate part located on a front face side of the absorbent body and both side parts folded back to a back face side of the absorbent body from the intermediate part, and distal ends of the both side parts of the wrapping sheet are overlapped on the back face side of the absorbent body to form a connecting portion, a total weight of the high absorbent polymer particles is larger than a total weight of the fibers in the absorbent body, a content rate of the high absorbent polymer particles of the absorbent body increases stepwise or continuously from the back face side toward the front face side, wherein a whole part of an internal surface of the wrapping sheet facing the absorbent body is bonded to an external surface of the absorbent body through a hot melt adhesive (H1, H2...), and a usage amount of the hot melt adhesive bonding the wrapping sheet and the absorbent body together is larger at least in a region of both end portions in a width direction on the back face side of the absorbent body than on the front face side of the absorbent body, and wherein a slit penetrating the absorbent body in a thickness direction extends in the front-back direction at an intermediate portion of the absorbent body in the width direction, and the region in which the usage amount of the hot melt adhesive (H1, H2...) bonding the wrapping sheet and the absorbent body together is larger than the usage amount on the front face side of the absorbent body corresponds to a region including both end portions of the slit in the width direction. an absorbent element obtainedby wrapping an absorbent body in a wrapping sheet, wherein the absorbent body is obtained by mixing and accumulating fibers and high absorbent polymer particles, the wrapping sheet includes an intermediate part located on a front face side of the absorbent body and both side parts folded back to a back face side of the absorbent body from the intermediate part, and distal ends of the both side parts of the wrapping sheet are overlapped on the back face side of the absorbent body to form a connecting portion, a total weight of the high absorbent polymer particles is larger than a total weight of the fibers in the absorbent body, a content rate of the high absorbent polymer particles of the absorbent body increases stepwise or continuously from the back face side toward the front face side, wherein a whole part of an internal surface of the wrapping sheet facing the absorbent body is bonded to an external surface of the absorbent body through a hot melt adhesive (H1, H2...), and a usage amount of the hot melt adhesive bonding the wrapping sheet and the absorbent body together is larger at least in a region of both end portions in a width direction on the back face side of the absorbent body than on the front face side of the absorbent body, and
Method for the core impregnation of a finished part made of plastic material with at least one additive, characterized in that the method includes the following steps: - dissolving the at least one additive in a liquid medium to form a solution; - placing the plastic part at ambient pressure in a pressure enclosure; - hermetically sealing the chamber; - impregnating the plastic part with the solution by means of carbon dioxide at near supercritical conditions in the enclosure at a pressure comprised between 3 MPa and 6 MPa, at a temperature comprised between 40°C and 65°C for a duration comprised between 1 minute and 10 minutes; - releasing the pressure inside the enclosure so that the liquid medium diffuses outside the plastic part and in order to trap the at least one additive inside the plastic part. - dissolving the at least one additive in a liquid medium to form a solution; - placing the plastic part at ambient pressure in a pressure enclosure; - hermetically sealing the chamber; - impregnating the plastic part with the solution by means of carbon dioxide at near supercritical conditions in the enclosure at a pressure comprised between 3 MPa and 6 MPa, at a temperature comprised between 40°C and 65°C for a duration comprised between 1 minute and 10 minutes; - releasing the pressure inside the enclosure so that the liquid medium diffuses outside the plastic part and in order to trap the at least one additive inside the plastic part.
A method for manufacturing a foil with variable strip geometry for employment in a data carrier, having: - extruding at least a first face and at least a second face such that the faces form the foil in an alternating sequence orthogonal to the extrusion direction, - varying at least one of the faces in terms of its geometry, - characterized in that the varying of the geometry is effected by means of a transverse movement of at least one roller of an extruder. - extruding at least a first face and at least a second face such that the faces form the foil in an alternating sequence orthogonal to the extrusion direction, - varying at least one of the faces in terms of its geometry, - characterized in that the varying of the geometry is effected by means of a transverse movement of at least one roller of an extruder.
A multi-level inverter control method, wherein switching elements of an active clamp multi-level inverter are controlled when an output voltage of the inverter crosses zero, and switching elements in each of a plurality of inverter bridge arms of the active clamp multi-level inverter comprise internal tubes (T5, T6) external tubes (T1, T4), and clamping tubes (T2, T3), wherein the internal tubes and the external tubes are connected in series between a positive bus and a negative bus, the clamping tubes are connected between a common terminal of the internal tubes and the external tubes and a neutral point, the internal tubes are low-frequency switching elements, and the external tubes and the clamping tubes of are high-frequency switching elements; and the method comprises: detecting whether an output voltage of a bridge arm of the active clamp multi-level inverter has crossed zero, wherein if the output voltage crosses zero, the high-frequency switching elements and the low-frequency switching elements are turned off and enter corresponding first and second dead times; and if the output voltage of the bridge arm of the active clamp multi-level inverter has crossed zero, at an expiration of the first dead time, controlling a corresponding clamping tube to be always on with a duty cycle set to 1 in a predetermined time period after the output voltage crosses zero, and controlling an internal tube to be on after the second dead time expires, wherein the predetermined time period after the output voltage crosses zero is the first high-frequency switching cycle after the output voltage crosses zero; and wherein the first dead time corresponding to the high-frequency switching elements is shorter than the second dead time corresponding to the low-frequency switching elements. detecting whether an output voltage of a bridge arm of the active clamp multi-level inverter has crossed zero, wherein if the output voltage crosses zero, the high-frequency switching elements and the low-frequency switching elements are turned off and enter corresponding first and second dead times; and if the output voltage of the bridge arm of the active clamp multi-level inverter has crossed zero, at an expiration of the first dead time, controlling a corresponding clamping tube to be always on with a duty cycle set to 1 in a predetermined time period after the output voltage crosses zero, and controlling an internal tube to be on after the second dead time expires, wherein the predetermined time period after the output voltage crosses zero is the first high-frequency switching cycle after the output voltage crosses zero; and wherein the first dead time corresponding to the high-frequency switching elements is shorter than the second dead time corresponding to the low-frequency switching elements.
A method of forming an electrode assembly having an innermost region, comprising: providing a first separator (110, 310) having alternating first and second electrodes (150a, 140b, 150c, 140d, 330b, 330d, 330f) positioned thereon; providing a second separator (120, 320) having alternating first and second electrodes (150b, 140c, 150d, 140e, 330c, 330e, 330g) positioned thereon, with a first end of the first separator (110, 310) adjacent a first end of the second separator (120, 320); winding the first and second separators (110, 310, 120, 320) together so the first ends of the first and second separator (110, 310, 120, 320) are positioned within the innermost region of the electrode assembly. characterised in that the electrodes on the first separator (110, 310) are positioned on an opposite side of the separator to the electrodes positioned on the second separator (120, 320) and a centre electrode (140a, 330a) is positioned between the separators at the overlapping portion. providing a first separator (110, 310) having alternating first and second electrodes (150a, 140b, 150c, 140d, 330b, 330d, 330f) positioned thereon; providing a second separator (120, 320) having alternating first and second electrodes (150b, 140c, 150d, 140e, 330c, 330e, 330g) positioned thereon, with a first end of the first separator (110, 310) adjacent a first end of the second separator (120, 320); winding the first and second separators (110, 310, 120, 320) together so the first ends of the first and second separator (110, 310, 120, 320) are positioned within the innermost region of the electrode assembly.
Method for operating a power plant, comprising an air-breathing combustion engine having an air inlet and an inflow duct arranged upstream of the air inlet, and having an atomization device arranged in the inflow duct, in which method liquid is injected in the atomization device into the inflow duct, comprising the further steps of: measuring at least one of the following temperatures: temperature of the atomization liquid to be injected upstream of the atomization device and temperature in the inflow duct downstream of the atomization device; and using one of the abovementioned temperatures as control variable; characterized by the step of: controlling the temperature of the atomization liquid as a function of the control variable. measuring at least one of the following temperatures: temperature of the atomization liquid to be injected upstream of the atomization device and temperature in the inflow duct downstream of the atomization device; and using one of the abovementioned temperatures as control variable; characterized by the step of: controlling the temperature of the atomization liquid as a function of the control variable. controlling the temperature of the atomization liquid as a function of the control variable.
A piezoelectric device comprising: a first electrode layer; a second electrode layer; and a piezoelectric layer provided between the first electrode layer and the second electrode layer, wherein the first electrode layer, the piezoelectric layer, and the second electrode layer are stacked in this order on a substrate, wherein the piezoelectric layer is formed of a ZnO-based material having a wurtzite crystal structure to which a metal that does not cause the piezoelectric layer to exhibit conductivity is added and wherein the metal is Mg, characterised in that a Mg content with respect to a total amount of Zn and Mg is 4 atom% to 30 atom%, and a squared value of an electromechanical coupling coefficient in thickness vibration mode, k t 2, is 6.5% or more. a first electrode layer; a second electrode layer; and a piezoelectric layer provided between the first electrode layer and the second electrode layer, wherein the first electrode layer, the piezoelectric layer, and the second electrode layer are stacked in this order on a substrate, wherein the piezoelectric layer is formed of a ZnO-based material having a wurtzite crystal structure to which a metal that does not cause the piezoelectric layer to exhibit conductivity is added and wherein the metal is Mg, characterised in that a Mg content with respect to a total amount of Zn and Mg is 4 atom% to 30 atom%, and a squared value of an electromechanical coupling coefficient in thickness vibration mode, k t 2, is 6.5% or more.
An air-conditioning system, in particular for a motor vehicle, having an air guide housing in which at least one fan is arranged upstream of at least one heat exchanger, wherein the fan has one direct current motor for propulsion, provided with at least one brush and one commutator, and wherein a cooling air flow for cooling the direct current motor is branched off from a main air flow flowing through the fan, characterised in that at least one filter (8, 8') for filtering the abrasion of the at least one brush and of the commutator out of the cooling air flow flowing through the direct current motor is arranged in the at least one fan downstream of the at least one brush of the direct current motor.
A mutant Hin DNA ligase that has at least 70%, at least 80% or at least 90%, or at least 95% or at least 99% identity to Hin DNA ligase sequence provided in Table 1C which ligase comprises two amino acid mutations at positions 93 and 193 of Hin DNA ligase sequence provided in Table 1C which consist of changing the glycine at position 193 to aspartic acid or glutamic acid and changing the threonine at position 93 to serine.
A culture apparatus comprising an outer case, an inner case configured with metal plates (72, 73, 75, 76, 72A, 73A, 75A, 76A), the inner case being arranged inside the outer case, and a door configured to open and close an opening formed in front faces of the outer case and the inner case, the culture apparatus (100, 100B, 100C) being configured to cultivate a culture inside the inner case, the culture apparatus (100, 100B, 100C) being characterized in that each of left and right side plates (22, 23) has a rising portion (221, 231), on which shelf rests (51 to 59, 61 to 69, 501, 502) are disposed, one of the shelf rests (51 to 59) formed on the left side plate and corresponding one of the shelf rests (61 to 69) formed on the right side plate constitute a pair of shelf rests (51 to 59, 61 to 69), on which side ends of a bottom surface of the shelf are to be placed, the shelf rests (51 to 59, 61 to 69, 501, 502) are formed by press working, the rising portions (221, 231) are formed by press working so as to protrude inwardly with respect to vertical parts of a gasket disposed to the opening, the rising portions (221, 231) being opposed in a width direction to each of the side ends of the shelf.