mhurhangee/ep-ind-claims huggingface dataset:
A shrink tunnel (2, 3) for shrinking packaging means around a set of articles wherein the shrink tunnel comprises a transport level with at least one transport lane for the articles wrapped in packaging means and at least two shaft walls (50, 60) disposed on both sides along the transport lane, wherein a distribution duct is arranged above each shaft wall (50, 60), via which distribution duct a shrink wrap medium can be fed into the respective shaft wall (50, 60) in a first direction of flow and in a downward direction, and wherein the shaft walls (50, 60) each comprise at least one outlet surface facing an interior of the shrink tunnel and having nozzle openings, via which a shrink wrap medium can be applied to the articles wrapped in packaging means, characterised in that the shaft walls (50, 60) each comprise at least one redirecting device for the shrink wrap medium, wherein the downwardly directed first direction of flow of the shrink wrap medium within the shaft wall (50, 60) can be reversed by the at least one redirecting device to an at least largely upwardly directed second direction of flow of the shrink wrap medium flowing through the nozzle openings into the interior of the shrink tunnel.
Method for active hybridization to at least one probe of a microarray, comprising the following steps: a. providing a sample liquid containing reactive constituents, b. introducing the sample liquid into a pump route comprising at least one pump unit, at least one temperature-controlled denaturation unit and at least one temperature-controlled reaction area which is spatially separated from the denaturation unit and has at least one microarray, c. pumping the sample liquid, d. denaturing the reactive constituents of the sample liquid in the denaturation unit and e. hybridizing the denatured constituents to at least one probe of the microarray in the reaction area, characterized in that the pump route is arranged as a circuit. a. providing a sample liquid containing reactive constituents, b. introducing the sample liquid into a pump route comprising at least one pump unit, at least one temperature-controlled denaturation unit and at least one temperature-controlled reaction area which is spatially separated from the denaturation unit and has at least one microarray, c. pumping the sample liquid, d. denaturing the reactive constituents of the sample liquid in the denaturation unit and e. hybridizing the denatured constituents to at least one probe of the microarray in the reaction area,
A method for reducing SO x emissions produced during non-steady state operating conditions, in a combustion system having a gas flowpath that travels from a combustion chamber through a spray dryer absorber to a baghouse downstream of the spray dryer absorber, wherein the temperature in the spray dryer absorber is below 104°C (220°F), the method comprising: during the non-steady state operating conditions: mixing a dry calcium hydroxide powder into a flue gas in the gas flowpath at an injection location downstream of the combustion chamber and upstream of the baghouse; spraying water into the flue gas in the spray dryer absorber to humidify and reduce the temperature of the flue gas; and depositing the calcium hydroxide powder in the baghouse to form a filter cake that reduces SO x emissions; wherein the non-steady state operating conditions are startup, shutdown and malfunctions. during the non-steady state operating conditions: mixing a dry calcium hydroxide powder into a flue gas in the gas flowpath at an injection location downstream of the combustion chamber and upstream of the baghouse; spraying water into the flue gas in the spray dryer absorber to humidify and reduce the temperature of the flue gas; and depositing the calcium hydroxide powder in the baghouse to form a filter cake that reduces SO x emissions; mixing a dry calcium hydroxide powder into a flue gas in the gas flowpath at an injection location downstream of the combustion chamber and upstream of the baghouse; spraying water into the flue gas in the spray dryer absorber to humidify and reduce the temperature of the flue gas; and depositing the calcium hydroxide powder in the baghouse to form a filter cake that reduces SO x emissions; wherein the non-steady state operating conditions are startup, shutdown and malfunctions.
A manufacturing method for a high molecular weight aromatic polycarbonate resin, the method comprising: a step of mixing 2-butyl-2-ethyl-1,3-propane glycol and a catalyst to produce a catalyst composition in a liquid form, a step of mixing the catalyst composition in a liquid form and an aromatic polycarbonate prepolymer within a period of 10 hours from the time of production of the catalyst composition, to obtain a prepolymer mixture, and a high molecular weight achievement step of heat-treating the obtained prepolymer mixture under reduced pressure conditions to obtain a high molecular weight aromatic polycarbonate resin, wherein the weight average molecular weight (Mw) of the high molecular weight aromatic polycarbonate resin obtained in the manufacturing method is 35,000 to 100,000 and the weight average molecular weight (Mw) is measured as indicated in the specification. a step of mixing 2-butyl-2-ethyl-1,3-propane glycol and a catalyst to produce a catalyst composition in a liquid form, a step of mixing the catalyst composition in a liquid form and an aromatic polycarbonate prepolymer within a period of 10 hours from the time of production of the catalyst composition, to obtain a prepolymer mixture, and a high molecular weight achievement step of heat-treating the obtained prepolymer mixture under reduced pressure conditions to obtain a high molecular weight aromatic polycarbonate resin, wherein the weight average molecular weight (Mw) of the high molecular weight aromatic polycarbonate resin obtained in the manufacturing method is 35,000 to 100,000 and the weight average molecular weight (Mw) is measured as indicated in the specification.
A process for making a flexo plate having indicia disposed on a floor of the flexo plate, the process comprising: a) imaging a cluster of microdots in a laser ablation mask layer of the flexo plate, each microdot comprising a mask opening not wide enough to grow a printable screen dot in isolation; b) curing photopolymer of the flexo plate through the mask layer via UV exposure; and c) removing non-cured photopolymer of the flexo plate, wherein the indicia is defined by the photopolymer cured through the cluster of microdots and have a level above the floor of the flexo plate but below a printing level of the flexo plate so as not to print in a printing step. a) imaging a cluster of microdots in a laser ablation mask layer of the flexo plate, each microdot comprising a mask opening not wide enough to grow a printable screen dot in isolation; b) curing photopolymer of the flexo plate through the mask layer via UV exposure; and c) removing non-cured photopolymer of the flexo plate, wherein the indicia is defined by the photopolymer cured through the cluster of microdots and have a level above the floor of the flexo plate but below a printing level of the flexo plate so as not to print in a printing step.
Rehabilitation and/or training device for equines, particularly for horses, comprising at least one compression element and connection elements to couple the compression element with the equine, said compression element comprising an elastic cushion suitable for being applied onto a compression region of the equine including at least one part of the croup to exert a compression action on such a region during a pace of the equine, said connection elements comprising a plurality of elastic connection elements each having an end portion connected to the elastic cushion and an opposite end portion connected or connectable to support elements suitable for being coupled with the equine at a certain distance from said cushion, said device being characterised in that the elastic cushion is an inflatable cushion which is shaped as a closed loop extending around a through opening which is suitable for being arranged to face a joining portion of the tail of the equine and which is adapted to have said tail passed through it, the elastic cushion and the elastic connection elements being such as to overall form an elastic system suitable for taking up a configuration in which said connection elements and said cushion are elastically deformed to exert onto said compression region an elastic reaction force suitable for causing a flexing of at least the lumbosacral joint of the equine.
A communication method applied in a communications system, wherein the method comprises: determining, based on a correspondence between a modulation and encoding scheme MCS index and a code rate, the code rate corresponding to the MCS index, wherein for a scenario of limited cache in the communications system, the code rate corresponding to the MCS index is a larger value from a first code rate and a minimum code rate that can be supported in actual sending, and the first code rate is based on the MCS index; determining an encoding matrix type based on the code rate corresponding to the MCS index and a code rate threshold; and encoding a first sequence based on an encoding matrix corresponding to the encoding matrix type, wherein a length of the first sequence is less than or equal to a first threshold. determining, based on a correspondence between a modulation and encoding scheme MCS index and a code rate, the code rate corresponding to the MCS index, wherein for a scenario of limited cache in the communications system, the code rate corresponding to the MCS index is a larger value from a first code rate and a minimum code rate that can be supported in actual sending, and the first code rate is based on the MCS index; determining an encoding matrix type based on the code rate corresponding to the MCS index and a code rate threshold; and encoding a first sequence based on an encoding matrix corresponding to the encoding matrix type, wherein a length of the first sequence is less than or equal to a first threshold.
A pressure-sensitive adhesive sheet comprising a fabric sheet and a pressure-sensitive adhesive layer laminated on the fabric sheet, wherein the pressure-sensitive adhesive layer comprises a base polymer and a tackifier resin, the base polymer is a block copolymer of a monovinyl-substituted aromatic compound and a conjugated diene compound, the tackifier resin comprises a tackifier resin having a softening point below 120 °C and a tackifier resin having a softening point of 120 °C or higher, wherein the softening point is measured as described in the description, and the pressure-sensitive adhesive layer has a thickness greater than 100 μm and less than 190 μm, wherein the fabric sheet has a thickness of 15 μm or greater and 50 μm or less as well as a bulk density of 0.25 g/cm 3 or higher and 0.50 g/cm 3 or lower. the pressure-sensitive adhesive layer comprises a base polymer and a tackifier resin, the base polymer is a block copolymer of a monovinyl-substituted aromatic compound and a conjugated diene compound, the tackifier resin comprises a tackifier resin having a softening point below 120 °C and a tackifier resin having a softening point of 120 °C or higher, wherein the softening point is measured as described in the description, and the pressure-sensitive adhesive layer has a thickness greater than 100 μm and less than 190 μm, wherein the fabric sheet has a thickness of 15 μm or greater and 50 μm or less as well as a bulk density of 0.25 g/cm 3 or higher and 0.50 g/cm 3 or lower.
Method for indicating the lighting of a signal light in a traffic signal to a monitoring device, comprising the following method stops: a) actuating the signal light by means of an electrical power signal provided by pulse width modulation via a two-wire connection; b) detecting a light flux of the signal light by means of a light sensor; c) processing a monitoring signal dependent on the detected light flux; d) returning the monitoring signal via the two-wire connection in a gap (T r) in the pulse width modulation; and e) evaluating the monitoring signal in the monitoring device. a) actuating the signal light by means of an electrical power signal provided by pulse width modulation via a two-wire connection; b) detecting a light flux of the signal light by means of a light sensor; c) processing a monitoring signal dependent on the detected light flux; d) returning the monitoring signal via the two-wire connection in a gap (T r) in the pulse width modulation; and e) evaluating the monitoring signal in the monitoring device.
A gas turbine engine comprising: a fan; a high pressure turbine configured to rotate with a high pressure compressor as a high pressure spool in a first direction about a central axis; a low pressure turbine configured to rotate with a low pressure compressor as a low pressure spool, said high pressure spool operating with gases at a higher pressure than said low pressure spool, and said high pressure spool rotating at a higher speed than said low pressure spool; a mid-turbine frame for supporting said high pressure turbine, said mid-turbine frame including a first bearing supporting said high pressure turbine, and a strut supporting said first bearing at a location between said high pressure turbine and said low pressure turbine; and a plurality of vanes associated with a first stage of said low pressure turbine, wherein said plurality of vanes are incorporated into said mid-turbine frame, characterised in that: said low pressure spool is configured to rotate in a second direction about said central axis, wherein said first direction is opposite to the second direction; and said fan is connected to the low pressure spool via a speed changing mechanism and said fan rotates in said second direction. a fan; a high pressure turbine configured to rotate with a high pressure compressor as a high pressure spool in a first direction about a central axis; a low pressure turbine configured to rotate with a low pressure compressor as a low pressure spool, said high pressure spool operating with gases at a higher pressure than said low pressure spool, and said high pressure spool rotating at a higher speed than said low pressure spool; a mid-turbine frame for supporting said high pressure turbine, said mid-turbine frame including a first bearing supporting said high pressure turbine, and a strut supporting said first bearing at a location between said high pressure turbine and said low pressure turbine; and a plurality of vanes associated with a first stage of said low pressure turbine, wherein said plurality of vanes are incorporated into said mid-turbine frame, characterised in that: said low pressure spool is configured to rotate in a second direction about said central axis, wherein said first direction is opposite to the second direction; and said fan is connected to the low pressure spool via a speed changing mechanism and said fan rotates in said second direction. said low pressure spool is configured to rotate in a second direction about said central axis, wherein said first direction is opposite to the second direction; and said fan is connected to the low pressure spool via a speed changing mechanism and said fan rotates in said second direction.
A method for performing a cleaning operation with a cleaning device, the method comprising: determining whether the cleaning device and a terminal are located in a same general area; acquiring a first geographical location at which the terminal is currently located; and performing the cleaning operation according to the first geographical location and a specified cleaning mode, characterized in that the performing the cleaning operation according to the first geographical location and the specified cleaning mode comprises: determining a first geographical area in which the terminal is currently located according to the first geographical location; determining a duration of stay of the user in the first geographical area; acquiring a specified cleaning strength grade based on the duration of stay according to preset corresponding relationships between durations of stay and cleaning strength grades; and performing the cleaning operation according to the specified cleaning strength grade and the specified cleaning mode. determining whether the cleaning device and a terminal are located in a same general area; acquiring a first geographical location at which the terminal is currently located; and performing the cleaning operation according to the first geographical location and a specified cleaning mode, characterized in that the performing the cleaning operation according to the first geographical location and the specified cleaning mode comprises: determining a first geographical area in which the terminal is currently located according to the first geographical location; determining a duration of stay of the user in the first geographical area; acquiring a specified cleaning strength grade based on the duration of stay according to preset corresponding relationships between durations of stay and cleaning strength grades; and performing the cleaning operation according to the specified cleaning strength grade and the specified cleaning mode. determining a first geographical area in which the terminal is currently located according to the first geographical location; determining a duration of stay of the user in the first geographical area; acquiring a specified cleaning strength grade based on the duration of stay according to preset corresponding relationships between durations of stay and cleaning strength grades; and performing the cleaning operation according to the specified cleaning strength grade and the specified cleaning mode.
A pattern formation method comprising the steps of: coating a substrate with a photoresist composition to form a photoresist film; coating said photoresist film with a top anti-reflection coating composition, which comprises a solvent and a copolymer derived from methacrylic acid and an anthracene skeleton-containing monomer; drying said composition; conducting exposure by use of light having a wavelength of 160 to 260 nm; and then carrying out development with an alkali developer, wherein the anti-reflection coating is removed with the developer, wherein the molar ratio of methacrylic acid is not less than 75 mole-%.
Device for taking a sample from a solid body by cutting it out, comprising a frame and a cutting tool held on the frame so as to be movable relative to the frame, wherein the cutting tool, at least in parts, at least substantially has the shape of a hollow spherical segment or of a hollow spherical layer, and wherein the cutting tool is mounted so as to be rotatable about a tool axis of rotation and is mounted pivotably on the frame in order to carry out a stroke movement about a stroke axis, characterized in that, in order to carry out a feed movement about a feed axis that is preferably stationary in relation to the frame, the cutting tool is mounted pivotably on the frame, wherein the stroke axis is orthogonal to the feed axis, and in that, for the rotational movement of the cutting tool about the feed axis, a feed drive unit is provided. wherein the cutting tool, at least in parts, at least substantially has the shape of a hollow spherical segment or of a hollow spherical layer, and wherein the cutting tool is mounted so as to be rotatable about a tool axis of rotation and is mounted pivotably on the frame in order to carry out a stroke movement about a stroke axis, characterized in that, in order to carry out a feed movement about a feed axis that is preferably stationary in relation to the frame, the cutting tool is mounted pivotably on the frame, wherein the stroke axis is orthogonal to the feed axis, and in that, for the rotational movement of the cutting tool about the feed axis, a feed drive unit is provided.
An inhibitor of GAS6, wherein the inhibitor is a soluble AXL variant polypeptide, wherein said soluble AXL variant polypeptide: is a fusion protein; lacks the AXL transmembrane domain; lacks a functional fibronectin domain, has one or more than one Ig1 domain and, optionally, one or more than one Ig2 domain; comprises a set of amino acid substitutions at positions relative to SEQ ID NO:1: G32, A72, D87, V92 and G127; or at positions G32, D87, V92 and G127; comprises an Fc domain linked to the soluble AXL variant polypeptide by a linker comprising one or more 4 SER (SEQ ID NO:10) units; and exhibits increased affinity of binding to GAS6 compared to wild-type AXL (SEQ ID NO:1). is a fusion protein; lacks the AXL transmembrane domain; lacks a functional fibronectin domain, has one or more than one Ig1 domain and, optionally, one or more than one Ig2 domain; comprises a set of amino acid substitutions at positions relative to SEQ ID NO:1: G32, A72, D87, V92 and G127; or at positions G32, D87, V92 and G127; comprises an Fc domain linked to the soluble AXL variant polypeptide by a linker comprising one or more 4 SER (SEQ ID NO:10) units; and exhibits increased affinity of binding to GAS6 compared to wild-type AXL (SEQ ID NO:1). G32, A72, D87, V92 and G127; or at positions G32, D87, V92 and G127; comprises an Fc domain linked to the soluble AXL variant polypeptide by a linker comprising one or more 4 SER (SEQ ID NO:10) units; and exhibits increased affinity of binding to GAS6 compared to wild-type AXL (SEQ ID NO:1).
An induction heating cooker comprising: a cooking plate on which a cooking vessel is placed; a plurality of heating coils disposed while being adjacent to one other below the cooking plate; and a Printed Circuit Board on which circuits configured to drive the heating coils are placed, characterized in that the PCB is divided into a high frequency circuit part on which high frequency circuits are placed and a low frequency circuit part on which low frequency circuits are placed, and the high frequency circuit part is spaced apart from the low frequency circuit part by a predetermined distance, wherein a heat radiation plate is placed on the PCB to absorb heat generated from the high frequency circuit placed on the high frequency circuit part, and to dissipate the absorbed heat to outside; and the high frequency circuit part is separated from the low frequency circuit part by the heat radiation plate. a cooking plate on which a cooking vessel is placed; a plurality of heating coils disposed while being adjacent to one other below the cooking plate; and a Printed Circuit Board on which circuits configured to drive the heating coils are placed, characterized in that the PCB is divided into a high frequency circuit part on which high frequency circuits are placed and a low frequency circuit part on which low frequency circuits are placed, and the high frequency circuit part is spaced apart from the low frequency circuit part by a predetermined distance, wherein a heat radiation plate is placed on the PCB to absorb heat generated from the high frequency circuit placed on the high frequency circuit part, and to dissipate the absorbed heat to outside; and the high frequency circuit part is separated from the low frequency circuit part by the heat radiation plate.
An implant, for implantation in a femur, comprising: an implant stem (1, 2, 31) comprising: a base portion disposed at the proximal end of the stem and a stem portion extending to the distal end of the stem, the implant stem further comprising a section from which the stem portion extends, said section having an external surface which is of conical or substantially conical form, wherein said section tapers towards said stem portion, and said section terminates at the base portion, characterised in that the base portion has an engagement means for engaging, in use, with the resected end of the femur; and wherein the external surface of said section is discontinuous with the surface of the engagement means.