mhurhangee/ep-ind-claims huggingface dataset:
A positioning structure of a motor of an air compressor comprising: a base including multiple locating orifices which are a first locating orifice and a second locating orifice, wherein the second locating orifice is provided for accommodating a bearing; a cylinder connected on the base and including an air storage seat; the motor being fixed on the base, a small-diameter gear being inserted through the first locating orifice of the base to fit on a central shaft of the motor, and a bearing housing of the motor being accommodated in the first locating orifice; and a transmission mechanism actuating a piston to move in the cylinder reciprocately so as to compress air; characterized in that: the base includes two symmetrical elongated plates extending from a rear end of the base, and the two symmetrical elongated plates have two hooks extending therefrom respectively, the base further includes two symmetrical arcuate retainers extending from two inner walls of the two symmetrical elongated plates individually; an outer wall of the motor is retained by the two symmetrical arcuate retainers of the base, and the two hooks of the two symmetrical elongated plates of the base are engaged with the magnetic coil so that the motor is fixed on the base. a base including multiple locating orifices which are a first locating orifice and a second locating orifice, wherein the second locating orifice is provided for accommodating a bearing; a cylinder connected on the base and including an air storage seat; the motor being fixed on the base, a small-diameter gear being inserted through the first locating orifice of the base to fit on a central shaft of the motor, and a bearing housing of the motor being accommodated in the first locating orifice; and a transmission mechanism actuating a piston to move in the cylinder reciprocately so as to compress air; characterized in that: the base includes two symmetrical elongated plates extending from a rear end of the base, and the two symmetrical elongated plates have two hooks extending therefrom respectively, the base further includes two symmetrical arcuate retainers extending from two inner walls of the two symmetrical elongated plates individually; an outer wall of the motor is retained by the two symmetrical arcuate retainers of the base, and the two hooks of the two symmetrical elongated plates of the base are engaged with the magnetic coil so that the motor is fixed on the base. the base includes two symmetrical elongated plates extending from a rear end of the base, and the two symmetrical elongated plates have two hooks extending therefrom respectively, the base further includes two symmetrical arcuate retainers extending from two inner walls of the two symmetrical elongated plates individually; an outer wall of the motor is retained by the two symmetrical arcuate retainers of the base, and the two hooks of the two symmetrical elongated plates of the base are engaged with the magnetic coil so that the motor is fixed on the base.
A method for controlling a flow of refrigerant to an evaporator arranged in a refrigeration system, the refrigeration system further comprising an expansion valve and a compressor, the expansion valve, the evaporator and the compressor being arranged in a refrigerant flow path having refrigerant flowing therein, the method comprising the steps of: - increasing an opening degree of the expansion valve, thereby increasing a flow of refrigerant to the evaporator sufficiently to substantially eliminate a dry zone of the evaporator, - decreasing the opening degree of the expansion valve after a period of time has lapsed, - wherein the period of time lapsing before the opening degree of the expansion valve is decreased has a variable length, - said variable length being determined on the basis of a measurement of the superheat value of the refrigerant, - repeating the steps of increasing and decreasing the opening degree of the expansion valve. - increasing an opening degree of the expansion valve, thereby increasing a flow of refrigerant to the evaporator sufficiently to substantially eliminate a dry zone of the evaporator, - decreasing the opening degree of the expansion valve after a period of time has lapsed, - wherein the period of time lapsing before the opening degree of the expansion valve is decreased has a variable length, - said variable length being determined on the basis of a measurement of the superheat value of the refrigerant, - repeating the steps of increasing and decreasing the opening degree of the expansion valve.
A process for producing a granular material comprising prohexadione-calcium and an inorganic sulfate, comprising the fluidized bed granulation of an aqueous dispersion comprising prohexadione-calcium and an aqueous solution comprising at least one inorganic sulfate.
A tower for a wind turbine, comprising one or more tubular tower sections (4, 5), having a jacket wall and an inward directed flange (9, 10) in its lower and upper ends, and at least one platform (16, 16', 16") arranged inside the tower, wherein the tower also comprises a support structure including at least three elongated tensile load carrying members (14, 14'), which each is attached in its lower end to the lower flange of the tower section (4, 5) and which supports one or more platforms (16, 16', 16"), the at least one platform (16, 16', 16") being attached to the load carrying members (14, 14') at their respective upper ends, at least one ladder being attached to the platform(s) (16, 16', 16"), wherein the at least one ladder is stabilized in the horizontal direction by transversal tensile load carrying members (22, 22') extending from the ladder to the tensile load carrying members (14, 14') that are vertically arranged between the upper and lower flanges.
A filter for a smoking article, the filter being formed of a single segment of filtration material having an overall length and extending from a downstream end to an upstream end; the filter comprising a ventilation zone at a location along the filter segment between the downstream end and the upstream end; an additive delivery element at a location along the filter segment between the ventilation zone and the upstream end, such that the additive delivery element is at least 5 millimetres apart from the ventilation zone; wherein: the overall length of the filter is from 20 millimetres to 36 millimetres; a first distance between the ventilation zone and the downstream end of the filter is from 11 mm to 28 millimetres; and a second distance between the additive delivery element and the downstream end of the filter is from 16 millimetres to 33 millimetres, wherein a third distance between the additive delivery element and the upstream end of the filter is less than 10 millimetres, wherein a ratio ((C-V)/L) between the difference between the second distance and the first distance and the overall length is at least 0.45. the filter comprising a ventilation zone at a location along the filter segment between the downstream end and the upstream end; an additive delivery element at a location along the filter segment between the ventilation zone and the upstream end, such that the additive delivery element is at least 5 millimetres apart from the ventilation zone; wherein: the overall length of the filter is from 20 millimetres to 36 millimetres; a first distance between the ventilation zone and the downstream end of the filter is from 11 mm to 28 millimetres; and a second distance between the additive delivery element and the downstream end of the filter is from 16 millimetres to 33 millimetres, wherein a third distance between the additive delivery element and the upstream end of the filter is less than 10 millimetres, wherein a ratio ((C-V)/L) between the difference between the second distance and the first distance and the overall length is at least 0.45. the overall length of the filter is from 20 millimetres to 36 millimetres; a first distance between the ventilation zone and the downstream end of the filter is from 11 mm to 28 millimetres; and a second distance between the additive delivery element and the downstream end of the filter is from 16 millimetres to 33 millimetres, wherein a third distance between the additive delivery element and the upstream end of the filter is less than 10 millimetres, wherein a ratio ((C-V)/L) between the difference between the second distance and the first distance and the overall length is at least 0.45.
A bone plate with at least one receiving opening for a bone screw with a screw head, wherein the receiving opening includes a compression region with a compression contour and a blocking region with a blocking contour, wherein the compression contour is realized and arranged in such a manner that rotation of the bone screw in a screwing-in direction brings about a lateral movement of the bone screw in the direction of the blocking region, characterized in that the compression contour is realized as an engagement contour such that the lateral movement is generatable at least in part, in particular completely, by engagement between the engagement contour and a counter contour on the screw head.
A contact lens for placing in an eye, comprising: a display comprising display elements; a driver unit configured to present data on the display; and one or more sensors for measuring a pupil size; wherein the driver unit is further configured to read outputs from the one or more sensors to determine the pupil size, the contact lens being characterized in that the driver unit is further configured to adjust a size of an active area of the display based on the pupil size so that only display elements which can be perceived by the eye are used to present the data. a display comprising display elements; a driver unit configured to present data on the display; and one or more sensors for measuring a pupil size; wherein the driver unit is further configured to read outputs from the one or more sensors to determine the pupil size, the contact lens being characterized in that the driver unit is further configured to adjust a size of an active area of the display based on the pupil size so that only display elements which can be perceived by the eye are used to present the data. wherein the driver unit is further configured to read outputs from the one or more sensors to determine the pupil size, the contact lens being characterized in that the driver unit is further configured to adjust a size of an active area of the display based on the pupil size so that only display elements which can be perceived by the eye are used to present the data.
A method of transmitting control information for performing a Hybrid Automatic Repeat Request, HARQ, process in a wireless communication system supporting a carrier aggregation with a plurality of component carriers comprising: generating the control information including HARQ Process Set, HPS, information and HARQ Process Number, HPN, information; and transmitting the generated control information to a user equipment, wherein a plurality of independent HARQ processes are performed for each of the plurality of component carriers, wherein the HPS information indicates a specific HPS among a plurality of HPSs during a retransmission of the control information, and the specific HPS includes a predetermined number of independent HARQ processes in a predetermined period, wherein the HPN information indicates a specific HARQ process among the predetermined number of independent HARQ processes, wherein the control information further includes a 1-bit adjustment flag, and a Redundancy Version, RV, value included in the control information indicates the HPS information when the 1-bit adjustment flag is set to '1', and wherein a RV is set in order of 0, 2, 3 and 1 when the 1-bit adjustment flag is set to '1'. generating the control information including HARQ Process Set, HPS, information and HARQ Process Number, HPN, information; and transmitting the generated control information to a user equipment, wherein a plurality of independent HARQ processes are performed for each of the plurality of component carriers, wherein the HPS information indicates a specific HPS among a plurality of HPSs during a retransmission of the control information, and the specific HPS includes a predetermined number of independent HARQ processes in a predetermined period, wherein the HPN information indicates a specific HARQ process among the predetermined number of independent HARQ processes, wherein the control information further includes a 1-bit adjustment flag, and a Redundancy Version, RV, value included in the control information indicates the HPS information when the 1-bit adjustment flag is set to '1', and wherein a RV is set in order of 0, 2, 3 and 1 when the 1-bit adjustment flag is set to '1'.
A therapeutic agent for use in treating an inflammatory disease, wherein said inflammatory disease is any one of sepsis, inflammatory bowel disease, pancreatitis, nephritis, gingivitis and periodontal disease which comprises an effective ingredient selected from adenosine-N1-oxide, 3'-α-glucosyl-adenosine N1-oxide, 5'-α-glucosyl-adenosine N1-oxide, adenosine N1-oxide 5'-monophosphate, adenosine N1-oxide 5'-diphosphate, and adenosine N1-oxide 5'-triphosphate.
A heat pipe (100, 200, 300, 400, 500, 600, 700), comprising: an envelope (102, 202, 302) with a working fluid, the envelope (102, 202, 302) having a condenser end, an evaporator end, and an adiabatic section in between the condenser end and the evaporator end, an inner layer of wick (108, 206, 504) arranged on an inner surface of the envelope (102, 202, 302) for transporting condensed working fluid from the condenser end to the evaporator end, the heat pipe being characterized in that the adiabatic section comprises a perforation of walls of the envelope (102, 202, 302) forming a passage for a vapor and a compressed area (106, 204, 502) where walls of the envelope (102, 202, 302) are offset towards a central axis of the envelope (102, 202, 302), and a flexible bellows covering the compressed area (106, 204, 502) and defining a channel for the vapor with ends of the flexible bellows sealed to walls of the envelope (102, 202, 302) outside of the perforation. an envelope (102, 202, 302) with a working fluid, the envelope (102, 202, 302) having a condenser end, an evaporator end, and an adiabatic section in between the condenser end and the evaporator end, an inner layer of wick (108, 206, 504) arranged on an inner surface of the envelope (102, 202, 302) for transporting condensed working fluid from the condenser end to the evaporator end, the heat pipe being characterized in that the adiabatic section comprises a perforation of walls of the envelope (102, 202, 302) forming a passage for a vapor and a compressed area (106, 204, 502) where walls of the envelope (102, 202, 302) are offset towards a central axis of the envelope (102, 202, 302), and a flexible bellows covering the compressed area (106, 204, 502) and defining a channel for the vapor with ends of the flexible bellows sealed to walls of the envelope (102, 202, 302) outside of the perforation.
A signal amplification processing apparatus, characterized in: a first obtaining module, configured to set multiple groups of parameter values for a signal decomposition parameter group, separately perform signal amplification processing based on each group of parameter values, and obtain a power amplification efficiency corresponding to each group of parameter values; a second obtaining module, configured to obtain a group of parameter values corresponding to a maximum power amplification efficiency in the power amplification efficiency corresponding to each group of parameter values; and a setting module, configured to set the group of parameter values corresponding to the maximum power amplification efficiency as parameter values of the signal decomposition parameter group. a first obtaining module, configured to set multiple groups of parameter values for a signal decomposition parameter group, separately perform signal amplification processing based on each group of parameter values, and obtain a power amplification efficiency corresponding to each group of parameter values; a second obtaining module, configured to obtain a group of parameter values corresponding to a maximum power amplification efficiency in the power amplification efficiency corresponding to each group of parameter values; and a setting module, configured to set the group of parameter values corresponding to the maximum power amplification efficiency as parameter values of the signal decomposition parameter group.
An extruded PET parison comprising: a first extruded polymer comprising PET; and a second extruded polymer comprising PET; wherein the first and second polymers are co-extruded, the first and second extruded polymers are in a solid state, and the first extruded polymer has an intrinsic viscosity that is higher that the intrinsic viscosity of the second extruded polymer; characterized in that the first extruded polymer has an intrinsic viscosity of at least 0.96; the second extruded polymer has an intrinsic viscosity of less than 0.85; and the second extruded polymer comprises post-consumer recycled PET or regrind PET. a first extruded polymer comprising PET; and a second extruded polymer comprising PET;
A hygienic thin-leaf paper comprising: a first sheet including one or more first embossed regions in each of which one or more first embossed protrusions and one or more first non-embossed protrusions are included, the first sheet including one or more first non-embossed regions in each of which a first embossed protrusion and a first non-embossed protrusion are not included; a second sheet including one or more second embossed regions in each of which one or more second embossed protrusions and one or more second non-embossed protrusions are included, the second sheet including one or more second non-embossed regions in each of which a second embossed protrusion and a second non-embossed protrusion are not included, wherein the first sheet and the second sheet are integrally laminated, wherein the first embossed protrusions include multiple first dotted embossed protrusions and multiple first linear embossed protrusions, wherein the second embossed protrusions include multiple second dotted embossed protrusions and multiple second linear embossed protrusions, wherein each first non-embossed region faces a given second linear embossed protrusion, and wherein each second non-embossed region faces a given first linear embossed protrusion. a first sheet including one or more first embossed regions in each of which one or more first embossed protrusions and one or more first non-embossed protrusions are included, the first sheet including one or more first non-embossed regions in each of which a first embossed protrusion and a first non-embossed protrusion are not included; a second sheet including one or more second embossed regions in each of which one or more second embossed protrusions and one or more second non-embossed protrusions are included, the second sheet including one or more second non-embossed regions in each of which a second embossed protrusion and a second non-embossed protrusion are not included, wherein the first sheet and the second sheet are integrally laminated, wherein the first embossed protrusions include multiple first dotted embossed protrusions and multiple first linear embossed protrusions, wherein the second embossed protrusions include multiple second dotted embossed protrusions and multiple second linear embossed protrusions, wherein each first non-embossed region faces a given second linear embossed protrusion, and wherein each second non-embossed region faces a given first linear embossed protrusion.
A method of manufacturing a laminated glazing sheet, comprising the steps of: arranging wires on an interlayer formed in a first thermoplastic polymer; arranging the interlayer and the wires between sheets of glazing material (2a, 2b) to provide a glazing assembly wherein the wires extend to an edge of the assembly and subjecting the assembly to an elevated temperature sufficient to cause at least partial melting of the first thermoplastic polymer, characterised by applying a film of a second thermoplastic polymer on top of the wires in a region of the interlayer adjacent said edge, prior to arranging the interlayer between the sheets of glazing material (2a, 2b), wherein the second thermoplastic polymer may be the same or different from the first thermoplastic polymer, and further characterised in that the elevated temperature sufficient to cause at least partial melting of the second thermoplastic polymer and fusion thereof with the first thermoplastic polymer. arranging wires on an interlayer formed in a first thermoplastic polymer; arranging the interlayer and the wires between sheets of glazing material (2a, 2b) to provide a glazing assembly wherein the wires extend to an edge of the assembly and subjecting the assembly to an elevated temperature sufficient to cause at least partial melting of the first thermoplastic polymer, characterised by applying a film of a second thermoplastic polymer on top of the wires in a region of the interlayer adjacent said edge, prior to arranging the interlayer between the sheets of glazing material (2a, 2b), wherein the second thermoplastic polymer may be the same or different from the first thermoplastic polymer, and further characterised in that the elevated temperature sufficient to cause at least partial melting of the second thermoplastic polymer and fusion thereof with the first thermoplastic polymer.
Wiper blade for a windshield wiper, having a wiping strip on which there is arranged at least one supporting rail which has a spring element provided with a plastic sheath, wherein the plastic sheath comprises a thermoplastic material with a predefined melting point and at least in a predefined connecting region is welded to a base connecting device, wherein the base connecting device comprises at least one first and one second thermoplastic material, characterized in that a first melting point is allocated to the first thermoplastic material and a second melting point which is lower than the first melting point is allocated to the second thermoplastic material and wherein the thermoplastic material with the predefined melting point and the second thermoplastic material have a substantially corresponding composition.
Container-processing and/or container-manufacturing plant, comprising a clean room and a transport device for transporting containers and/or preforms along a processing line arranged inside the clean room, the clean room comprising a wall element (125, 225) which separates the clean room from an external space; the transport device comprising a drive system, which is arranged outside the clean room and is designed to move at least one inner transport element (140, 240, 340, 540, 640), which is movably arranged inside the clean room, for transporting containers and/or preforms along the processing line, by means of magnetic or electromagnetic interaction; the processing line comprising a blower for shaping the preforms as part of a unit for producing plastics containers; characterised in that the transport device further comprises an inner guide element (130, 230, 530), which is arranged inside the clean room along the wall element (125, 225); the at least one inner transport element (140, 240, 340, 540, 640) being arranged so as to be movable on the inner guide element (130, 230, 530); and the drive system being designed to move the inner transport element (140, 240, 340, 540, 640) through the wall element (125, 225) and along the inner guide element (130, 230, 530) by means of the magnetic or electromagnetic interaction; and the processing line further comprising an injection apparatus for producing the preforms as part of the unit for producing plastics containers.