mhurhangee/ep-ind-claims huggingface dataset:
A vibrating inclined plate box settlement separator consisting of: an upper box and a lower tapered hopper; wherein the upper box and the lowered tapered hopper are connected securely to each other and sealed; the upper box is comprising a rectangular or square steel-structured box with supporting platforms on its left and right sides; a plurality of spring assemblies are located on the supporting platforms; a feed box is located on a side of the top or inside the upper box; an overflow collect chute is welded on a side of the box opposite to the feed box; and a plurality of inclined box modules mounted on the spring assemblies, wherein the inclined plate box modules and the overflow collect chute are connected with a rubber tube; the lower tapered hopper being either square, rectangular square, or square round-and being placed securely on the steel-structured bracket reinforced concrete framework and comprising at its bottom a tapered hopper lined with wear-resistant rubber or coated with polyurethane characterized in that the inclined plate box modules have a plurality of inclined plate boxes inserted into a parallelogram frame with angles ranged from 30° to 70° between the sloped side of the parallelogram frame and ground level; wherein each inclined plate box is a long rectangular box and its length is the same as that of the sloped side of the parallelogram frame, wherein the inclined plate box comprises a top panel and a bottom panel, both top and bottom panels consisting of tilted settlement plates, wherein at least two inner ribs support the top panel and the bottom panel of the inclined plate box, so that each inclined plate box has a plurality of long and narrow independent settlement channels; wherein a guide edge is located on each side wall of each inclined plate box and configured to prevent displacement when assembling multiple inclined plate boxes.
An optical particle sensor, comprising: an optical arrangement comprising at least first and second light sources of different wavelengths for sequential operation; an optical detector for detecting light emitted from particles to be sensed or light from the light sources scattered by particles to be sensed and generating a detection current; an amplifier circuit (44, 46) for amplifying the detection current output from the optical detector; a compensation circuit for providing a current injection compensation signal to the amplifier circuit which combines, at the amplifier's input, with the detection current; and a controller, wherein the controller is adapted to provide said current injection compensation signal having a level which is dependent on which light source of the optical arrangement is in use, and to control the timing of operation of the light sources of the optical arrangement and the level of the compensation signal over time. an optical arrangement comprising at least first and second light sources of different wavelengths for sequential operation; an optical detector for detecting light emitted from particles to be sensed or light from the light sources scattered by particles to be sensed and generating a detection current; an amplifier circuit (44, 46) for amplifying the detection current output from the optical detector; a compensation circuit for providing a current injection compensation signal to the amplifier circuit which combines, at the amplifier's input, with the detection current; and a controller, wherein the controller is adapted to provide said current injection compensation signal having a level which is dependent on which light source of the optical arrangement is in use, and to control the timing of operation of the light sources of the optical arrangement and the level of the compensation signal over time. to provide said current injection compensation signal having a level which is dependent on which light source of the optical arrangement is in use, and to control the timing of operation of the light sources of the optical arrangement and the level of the compensation signal over time.
Short-circuit switching device, in particular bypass switch, wherein - the short-circuit switching device comprises a semiconductor element with at least one p-n junction and at least one pyrotechnic ignition device, - wherein the semiconductor element is or at least can be in a blocking state prior to the ignition of the pyrotechnic ignition device on the basis of the involvement of the p-n junction, and - wherein, after the ignition of the pyrotechnic ignition device, the semiconductor element is at least partially destroyed, namely at least with respect to the at least one p-n junction, and is made at least partially conductive regardless of the current flow direction by the explosion gas released by the ignition device after an explosion. - the short-circuit switching device comprises a semiconductor element with at least one p-n junction and at least one pyrotechnic ignition device, - wherein the semiconductor element is or at least can be in a blocking state prior to the ignition of the pyrotechnic ignition device on the basis of the involvement of the p-n junction, and - wherein, after the ignition of the pyrotechnic ignition device, the semiconductor element is at least partially destroyed, namely at least with respect to the at least one p-n junction, and is made at least partially conductive regardless of the current flow direction by the explosion gas released by the ignition device after an explosion.
A computer implemented method for executing a procedure to select a water-soluble variant of a G Protein-Coupled Receptor (GPCR), the method comprising: entering a sequence of the GPCR for analysis; obtaining a variant of the GPCR, wherein a plurality of hydrophobic amino acids in the transmembrane domain alpha-helical segments ("TM regions") of the GPCR are substituted, wherein: (a) said hydrophobic amino acids are selected from the group consisting of Leucine, Isoleucine, Valine, and Phenylalanine; (b) each said Leucine is independently substituted by Glutamine, Asparagine, or Serine; (c) each said Isoleucine and said Valine are independently substituted by Threonine, Asparagine, or Serine; and, (d) each said Phenylalanine is substituted by Tyrosine; and, subsequently, obtaining an α-helical secondary structure result for the variant to verify maintenance of α-helical secondary structures in the variant; obtaining a trans-membrane region result for the variant to verify water solubility of the variant, thereby selecting the water-soluble variant of the GPCR, wherein the method is optionally performed with a data processor that is optionally connected to a memory, wherein step is optionally performed prior to, concurrently with, or after step, and wherein the method further comprises: optionally ranking the variant using a ranking function, said ranking function optionally including a secondary structure component and a water solubility component, and said ranking function optionally including a weighting value for the secondary structure component and/or the water solubility component. entering a sequence of the GPCR for analysis; obtaining a variant of the GPCR, wherein a plurality of hydrophobic amino acids in the transmembrane domain alpha-helical segments ("TM regions") of the GPCR are substituted, wherein: (a) said hydrophobic amino acids are selected from the group consisting of Leucine, Isoleucine, Valine, and Phenylalanine; (b) each said Leucine is independently substituted by Glutamine, Asparagine, or Serine; (c) each said Isoleucine and said Valine are independently substituted by Threonine, Asparagine, or Serine; and, (d) each said Phenylalanine is substituted by Tyrosine; and, subsequently, (a) said hydrophobic amino acids are selected from the group consisting of Leucine, Isoleucine, Valine, and Phenylalanine; (b) each said Leucine is independently substituted by Glutamine, Asparagine, or Serine; (c) each said Isoleucine and said Valine are independently substituted by Threonine, Asparagine, or Serine; and, (d) each said Phenylalanine is substituted by Tyrosine; and, subsequently, obtaining an α-helical secondary structure result for the variant to verify maintenance of α-helical secondary structures in the variant; obtaining a trans-membrane region result for the variant to verify water solubility of the variant,
An enhanced mobility shirt comprising: a front panel and an opposite back panel; a sleeve panel (162, 167) connected to at least a portion of the front panel and at least a portion of the back panel and forms at least a first portion of a sleeve (120, 122); and a gusset (140, 142) connected between at least a portion of the front panel, at least a portion of the back panel, and at least a portion of the sleeve panel (162, 167) and forms at least a second portion of the sleeve (120, 122), wherein the enhanced mobility shirt further comprises a first edge, the first edge being located between at least a first portion of the front panel and at least a portion of the gusset (140, 142); and a second edge, the second edge being located between at least a portion of the back panel and at least a first portion of the gusset (140, 142), wherein a first intersection between a first portion of the first edge and a first portion of the second edge forms a first point that is located posterior to the sleeve opening, and wherein the gusset (140, 142) is formed from a textile which permits enhanced stretch capabilities in two opposing directions.
Cylindrical emitter for irrigation welded into a pipe with screen type water filter and meandering path, characterised in that said filter bearing a collection channel developed at an arc of a large length peripherally on the concave internal surface of the emitter and a plurality of consecutive orthogonal openings, wherein the orthogonal openings are formed between consecutive side walls of a plurality of shallow channels and the side walls of the collection channel, said shallow channels crossing the collection channel perpendicularly and extending to a considerable length from both sides of it, where the length of the shallow channels is considerably larger than the width of the collection channel, where every opening corresponds to a shallow channel, where all the shallow channels are parallel to each other having the direction of flow of the water.
Tyre comprising an inner surface and/or outer surface with an accommodating region, an adhesive layer arranged on said accommodating region and a protective film arranged on said adhesive layer, characterized in that the composition of said adhesive layer is based on a block thermoplastic elastomer comprising a diene elastomer block with a molar content of diene units relative to all of the units of the elastomer block of greater than 10%.
A method for improving performance of mobile broadband wireless access system, comprising: Step 1, a paging controller to which a mobile station in idle mode belongs constructing a paging notice message indicating starting a paging and sending the paging notice message to all base stations in the paging group associated with the mobile station; the base stations sending MOB-PAG-ADV message to the mobile station; the mobile station sending a RNG-REQ messaging responding to the MOB-PAG-ADV message from a first base station, the first base station performing a validity check on the RNG-REQ messaging and notifying the paging controller that an access response from the mobile station has been received successfully when the validity check is passed; Step 2, the paging controller re-constructing and sending the paging notice message indicating stopping sending the MOB-PAG-ADV message to all base stations in paging group; Step 3, after receiving the paging notice message sent by the paging controller, the base stations in the paging group instantly stopping sending the MOB-PAG-ADV message to the mobile station and deleting corresponding data. Step 1, a paging controller to which a mobile station in idle mode belongs constructing a paging notice message indicating starting a paging and sending the paging notice message to all base stations in the paging group associated with the mobile station; the base stations sending MOB-PAG-ADV message to the mobile station; the mobile station sending a RNG-REQ messaging responding to the MOB-PAG-ADV message from a first base station, the first base station performing a validity check on the RNG-REQ messaging and notifying the paging controller that an access response from the mobile station has been received successfully when the validity check is passed; Step 2, the paging controller re-constructing and sending the paging notice message indicating stopping sending the MOB-PAG-ADV message to all base stations in paging group; Step 3, after receiving the paging notice message sent by the paging controller, the base stations in the paging group instantly stopping sending the MOB-PAG-ADV message to the mobile station and deleting corresponding data.
A blood infusion management system, comprising: means for deriving scan data from individual blood units and a patient identifier particular to an individual patient; means for visually displaying on a display at least one individual blood unit status within a blood infusion protocol; means for running the blood infusion protocol; means for providing data to the display for visual display of the blood infusion protocol, including the at least one individual blood unit status; means for receiving and processing the scan data from the scanner; and means for aborting the blood infusion protocol if the processed scan data indicates that any of the individual blood units do not match the patient identifier, wherein the blood infusion protocol is configured to require at least two verification scans of an individual blood unit where the individual blood unit must match the patient identifier to acquire a transfusing status on the display for the individual blood unit. means for deriving scan data from individual blood units and a patient identifier particular to an individual patient; means for visually displaying on a display at least one individual blood unit status within a blood infusion protocol; means for running the blood infusion protocol; means for providing data to the display for visual display of the blood infusion protocol, including the at least one individual blood unit status; means for receiving and processing the scan data from the scanner; and means for aborting the blood infusion protocol if the processed scan data indicates that any of the individual blood units do not match the patient identifier, wherein the blood infusion protocol is configured to require at least two verification scans of an individual blood unit where the individual blood unit must match the patient identifier to acquire a transfusing status on the display for the individual blood unit.
A method of assembling a rotatable permanent magnet array a magnetic bearing arrangement, said rotating array comprising at least four permanent ring magnets (12a, 12b, 12c, 12d), the method comprising the steps of: making a reference point on each of the at least four ring magnets (12a, 12b, 12c, 12d); measuring a magnetic field for each of the at least four ring magnets (12a, 12b, 12c, 12d); recording at least the first and second order transverse stray magnetic field vectors for each of the at least four ring magnets (12a, 12b, 12c, 12d); calculating a relative angular orientation relative to the reference point and relative magnetic polarity direction for each of the at least four ring magnets (12a, 12b, 12c, 12d) within the array such that, when the at least four magnets (12a, 12b, 12c, 12d) are assembled and rotated, the time-varying magnetic field is minimised; and assembling the array of magnets according to the calculation. making a reference point on each of the at least four ring magnets (12a, 12b, 12c, 12d); measuring a magnetic field for each of the at least four ring magnets (12a, 12b, 12c, 12d); recording at least the first and second order transverse stray magnetic field vectors for each of the at least four ring magnets (12a, 12b, 12c, 12d); calculating a relative angular orientation relative to the reference point and relative magnetic polarity direction for each of the at least four ring magnets (12a, 12b, 12c, 12d) within the array such that, when the at least four magnets (12a, 12b, 12c, 12d) are assembled and rotated, the time-varying magnetic field is minimised; and assembling the array of magnets according to the calculation.
Dispensing head for a product dispensing system, said head comprising a body having a mounting well of said head on a pressurised feed tube of the product and a housing connected to said well, said housing being provided with an anvil around which a nozzle is mounted so as to form at the interface thereof, a path for dispensing the product between said housing and an outlet passage of said product, said head comprising a sheath which is added around the periphery of the anvil to delimit at least one portion (8a-8c) of the dispensing path, at the interface between the sheath and at least one wall of the nozzle and/or of the housing, said dispensing head being characterised in that the nozzle has a distal wall, wherein an orifice is formed, with the outlet passage being formed at the interface between said orifice and a cap of the sheath, said sheath being capable of providing a microbiocidal action on the product contained in said dispensing path.
Jointing neck comprising at least two wings (2,3) suitable for being bonded to the elbows forming the lower corners of a tubular back structure (19,20) of the vehicle seat, at least two wings (2,3) of the base comprising a series of openings, one of the selectable openings to receive a pivot axis, in order to create a flat floor (52a, 52b), when the seat back (53a, 53b) is folded into a horizontal position, characterized by the apertures of the wings (2,3) being oblong, and by the base having an axis of median symmetry passing through the intersection of the outer edges (5,6) of the wings (2,3) forming a right angle.
Heat exchanger with at least three fluids, comprising an enclosure, first means for supplying and releasing a first fluid, second means for supplying and releasing a second fluid and third means for supplying and releasing a third fluid, separate from one another, at least one fluid channel of longitudinal axis comprising a first longitudinal end and a second longitudinal end, and at least one heat exchange element disposed in the fluid channel in the enclosure, the heat exchange element comprising: - an absorption/desorption zone intended to put into contact at least the first fluid and the second fluid, - a zone for circulating the third fluid, the absorption/desorption zone and the circulation zone being isolated, sealing one from the other, - the first supply and release means and the second supply and release means being connected to the absorption/desorption zone, - the third supply and release means being connected to the circulation zone, characterised in that it also comprises: - at least one first helicoidal wall comprising a first surface delimiting at least partially the absorption/desorption zone and on a second surface, opposite the first surface, opposite the first surface, delimiting at least partially the circulation zone, - at least one second helicoidal wall, the first helicoidal wall and the second helicoidal wall being connected by an outer edge and delimiting the second circulation zone of the third fluid between them. - an absorption/desorption zone intended to put into contact at least the first fluid and the second fluid, - a zone for circulating the third fluid, the absorption/desorption zone and the circulation zone being isolated, sealing one from the other, - the first supply and release means and the second supply and release means being connected to the absorption/desorption zone, - the third supply and release means being connected to the circulation zone, characterised in that it also comprises: - at least one first helicoidal wall comprising a first surface delimiting at least partially the absorption/desorption zone and on a second surface, opposite the first surface, opposite the first surface, delimiting at least partially the circulation zone, - at least one second helicoidal wall, the first helicoidal wall and the second helicoidal wall being connected by an outer edge and delimiting the second circulation zone of the third fluid between them.
A refrigeration apparatus (1, 100), comprising: a refrigerant circuit, which is configured by connecting a compressor, a heat source side heat exchanger, an expansion mechanism, and a utilization side heat exchanger, and is capable of reversible operation, that is, capable of operation in a cooling cycle and in a heating cycle; a ventilation fan, which delivers outdoor air to the heat source side heat exchanger; an outdoor air temperature detecting means, which detects a temperature of the outdoor air whose heat is exchanged with a refrigerant that flows through the heat source side heat exchanger; a heat exchanging temperature detecting means, which detects the temperature of the heat source side heat exchanger; and a controlling means configured to calculate a load using the temperature of the outdoor air and the temperature of the heat source side heat exchanger characterized in that the controlling means is configured to derive an optimal COP output of the ventilation fan at which the COP of the refrigeration apparatus is substantially optimized from a relational expression describing the relationship between the optimal COP output of the ventilation fan and the load, and to control the amount of ventilation of the ventilation fan such that the output of the ventilation fan reaches the optimal COP output. a refrigerant circuit, which is configured by connecting a compressor, a heat source side heat exchanger, an expansion mechanism, and a utilization side heat exchanger, and is capable of reversible operation, that is, capable of operation in a cooling cycle and in a heating cycle; a ventilation fan, which delivers outdoor air to the heat source side heat exchanger; an outdoor air temperature detecting means, which detects a temperature of the outdoor air whose heat is exchanged with a refrigerant that flows through the heat source side heat exchanger; a heat exchanging temperature detecting means, which detects the temperature of the heat source side heat exchanger; and a controlling means configured to calculate a load using the temperature of the outdoor air and the temperature of the heat source side heat exchanger characterized in that the controlling means is configured to derive an optimal COP output of the ventilation fan at which the COP of the refrigeration apparatus is substantially optimized from a relational expression describing the relationship between the optimal COP output of the ventilation fan and the load, and to control the amount of ventilation of the ventilation fan such that the output of the ventilation fan reaches the optimal COP output.