mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a wireless communication device, WCD,, residing in a cell served by a base station, the method comprising: transmitting to the base station a request message comprising information identifying a requested Non Access Stratum, NAS, type; receiving, as a result of transmitting the request message, a response message transmitted by the base station, the response message indicating whether or not the requested NAS type is supported by the base station, determining whether the received response message includes information indicating that the requested NAS type identified in the request message is supported by the base station, characterized in that the WCD comprises at least one Dedicated Core network, DCN, Selection Assistance, DSA, indication, indicating a DCN and a DSA Origin indication indicating the origin of the DSA indication, and the method further comprises: transmitting to the base station, as a result of determining that the requested NAS type is supported, a complete message comprising the DSA indication indicating to the base station the DCN selected by the WCD and comprising the DSA origin indication indicating the origin of the DSA indication. transmitting to the base station a request message comprising information identifying a requested Non Access Stratum, NAS, type; receiving, as a result of transmitting the request message, a response message transmitted by the base station, the response message indicating whether or not the requested NAS type is supported by the base station, determining whether the received response message includes information indicating that the requested NAS type identified in the request message is supported by the base station, characterized in that the WCD comprises at least one Dedicated Core network, DCN, Selection Assistance, DSA, indication, indicating a DCN and a DSA Origin indication indicating the origin of the DSA indication, and the method further comprises: transmitting to the base station, as a result of determining that the requested NAS type is supported, a complete message comprising the DSA indication indicating to the base station the DCN selected by the WCD and comprising the DSA origin indication indicating the origin of the DSA indication.
Arrangement consisting of a receptacle installation for a tool and a tool, wherein the tool has a work bench and at least one pedestal, wherein the receptacle installation has a box which is open towards the top, wherein the tool by way of the at least one pedestal stands in the box, wherein the box forms a chip collection space for chips generated by the tool, and the height (c) of the chip collection space, from the base of the box up to the upper edge of the box, corresponds to at least 30% of the height (f) of the tool measured to the upper side of the work bench, characterized in that the box on the base thereof has at least one opening for emptying chips, wherein the opening extends across more than 25% of the area of the base, in that the receptacle installation is mobile and has rollers for guiding the receptacle installation across the floor, and in that the receptacle installation has at least one guide handle for pushing the receptacle installation, wherein the at least one guide handle is configured as a bracket which is closed towards the top and to which a hook of a crane can be hooked.
A liquid electrolyte for a lithium-sulfur battery comprising: a lithium salt; and a non-aqueous solvent consisting of: i) 10 to 40% by volume, based on the non-aqueous solvent, of a cyclic ether which is tetrahydrofuran optionally substituted with a Cl to C4 alkyl group or alkoxy group; ii) a glycol ether represented by the following formula R 1 O-(CH 2 CH 2 O) x -R 2 [Chemical Formula 1]; and iii) a linear ether represented by the following formula R 3 -O-(CH 2 CH 2 O) y -R 4 [Chemical Formula 2]; wherein: R 1 to R 4 are the same as or different from each other, and each is independently a Cl to C6 alkyl group, a C6 to C12 aryl group or a C7 to C13 arylalkyl group; x is an integer of 1 to 4; y is an integer of 0 to 4; and the glycol ether of Chemical Formula 1 is different from the linear ether of Chemical Formula 2. a lithium salt; and a non-aqueous solvent consisting of: i) 10 to 40% by volume, based on the non-aqueous solvent, of a cyclic ether which is tetrahydrofuran optionally substituted with a Cl to C4 alkyl group or alkoxy group; ii) a glycol ether represented by the following formula R 1 O-(CH 2 CH 2 O) x -R 2 [Chemical Formula 1]; and iii) a linear ether represented by the following formula R 3 -O-(CH 2 CH 2 O) y -R 4 [Chemical Formula 2]; i) 10 to 40% by volume, based on the non-aqueous solvent, of a cyclic ether which is tetrahydrofuran optionally substituted with a Cl to C4 alkyl group or alkoxy group; ii) a glycol ether represented by the following formula R 1 O-(CH 2 CH 2 O) x -R 2 [Chemical Formula 1]; and iii) a linear ether represented by the following formula R 3 -O-(CH 2 CH 2 O) y -R 4 [Chemical Formula 2]; wherein: R 1 to R 4 are the same as or different from each other, and each is independently a Cl to C6 alkyl group, a C6 to C12 aryl group or a C7 to C13 arylalkyl group; x is an integer of 1 to 4; y is an integer of 0 to 4; and the glycol ether of Chemical Formula 1 is different from the linear ether of Chemical Formula 2. R 1 to R 4 are the same as or different from each other, and each is independently a Cl to C6 alkyl group, a C6 to C12 aryl group or a C7 to C13 arylalkyl group; x is an integer of 1 to 4; y is an integer of 0 to 4; and the glycol ether of Chemical Formula 1 is different from the linear ether of Chemical Formula 2.
A coupling method for coupling a first and a second stiffening profile element for an outer skin of an aircraft or spacecraft, with the steps: Arranging of the stiffening profile elements (104, 106) on the outer skin so that the stiffening profile elements (104, 106) oppose each other with a respective front side, and enclose within themselves a cavity; Forming of a fixing hole by a wall of at least one of the stiffening profile elements into the cavity, within a coupling zone of the stiffening profile element; Forming of an access opening into the cavity through the wall, along the coupling zone such that an opening of the fixing hole into the cavity can be seen from outside the cavity through the access opening; and Fastening a coupling strap, which couples together the stiffening profile elements (104, 106), to the coupling zone by means of a fastening element guided through the fixing hole. Arranging of the stiffening profile elements (104, 106) on the outer skin so that the stiffening profile elements (104, 106) oppose each other with a respective front side, and enclose within themselves a cavity; Forming of a fixing hole by a wall of at least one of the stiffening profile elements into the cavity, within a coupling zone of the stiffening profile element; Forming of an access opening into the cavity through the wall, along the coupling zone such that an opening of the fixing hole into the cavity can be seen from outside the cavity through the access opening; and Fastening a coupling strap, which couples together the stiffening profile elements (104, 106), to the coupling zone by means of a fastening element guided through the fixing hole.
A propulsion arrangement for a self-powered dolly vehicle unit, the propulsion arrangement comprising a first electric machine, a second electric machine, a gearbox, and an open differential for driving first and second wheels (310l, 310r) of a driven axle, wherein the first and second electric machines are arranged in parallel and connected to the open differential via the gearbox at respective gear ratios (g1, g2, g3), wherein the first electric machine is associated with a fixed gear ratio, and the second electric machine is associated with a configurable gear ratio (g2, g3), characterised in that the propulsion arrangement further comprises a control unit arranged to determine if the dolly vehicle unit is in a low speed range of operation or in a high speed range of operation, configured to set the configurable gear ratio (g2, g3) of the second electric machine in dependence of the low or high speed range of operation and configured to drive the wheels of the self-powered dolly vehicle unit by the motors, wherein a low speed range of operation entails a wheel rotational speed of less than 1000 rpm and a high speed range of operation entails a wheel rotational speed in the range from 1000 rpm to 3500 rpm.
An oil deterioration prevention device comprising: a filtering unit including a filter element that filters oil; and a deterioration prevention unit including a powdery deterioration prevention agent that prevents deterioration of oil, wherein the filtering unit and the deterioration prevention unit are housed in a housing in line in the axial direction, the deterioration prevention unit and the filtering unit are arranged such that the oil in the oil deterioration prevention device sequentially passes through the deterioration prevention unit and the filtering unit in this order, and the housing is provided with an oil inflow port that is open near one end of the deterioration prevention unit in the axial direction on the side apart from the filtering unit characterized in that the deterioration prevention unit includes a passage wall that retains the deterioration prevention agent and forms an oil passage, the passage wall (16, 31, 33, 38) is spirally or concentrically formed, and a horizontal sectional area of a space between an inner wall of the housing and an outer periphery of the deterioration prevention unit is smaller than a horizontal sectional area of a space between the inner wall of the housing and an outer periphery of the filtering unit. a filtering unit including a filter element that filters oil; and a deterioration prevention unit including a powdery deterioration prevention agent that prevents deterioration of oil, wherein the filtering unit and the deterioration prevention unit are housed in a housing in line in the axial direction, the deterioration prevention unit and the filtering unit are arranged such that the oil in the oil deterioration prevention device sequentially passes through the deterioration prevention unit and the filtering unit in this order, and the housing is provided with an oil inflow port that is open near one end of the deterioration prevention unit in the axial direction on the side apart from the filtering unit characterized in that the deterioration prevention unit includes a passage wall that retains the deterioration prevention agent and forms an oil passage, the passage wall (16, 31, 33, 38) is spirally or concentrically formed, and a horizontal sectional area of a space between an inner wall of the housing and an outer periphery of the deterioration prevention unit is smaller than a horizontal sectional area of a space between the inner wall of the housing and an outer periphery of the filtering unit.
An antiperspirant active composition comprising an aluminum salt having an aluminum to chloride molar ratio of 0.3:1 to 3:1, exhibiting a SEC chromatogram having a SEC Peak 4 to Peak 3 intensity ratio of at least 7, a SEC Peak 3 area of less than 5% of a total area of Peaks 1, 2, 3, 4, 5 and 6 in the SEC chromatogram, and a Peak 4 intensity greater than a Peak 5 intensity in aqueous solution obtainable by a method comprising: heating an aqueous solution containing an aluminum salt having an aluminum to chloride molar ratio of 0.3:1 to 3:1, with a buffer agent, at a temperature of 50°C to 95°C to reflux for a period of time of 1 hour to 5 hours to obtain an aluminum salt solution; adding an aqueous solution of an inorganic base to obtain an aluminum salt solution having an OH:Al molar ratio of 2:1 to 2.6:1 to obtain a pH adjusted aluminum salt solution having a pH of 2 to 5; and optionally adding an aqueous solution containing a zirconium compound to the pH adjusted aluminum salt solution to thereby obtain an aluminum-zirconium salt solution having a molar ratio of aluminum to zirconium of 5:1 to 10:1; wherein the buffer agent is selected from at least one of glycine and betaine; and wherein the buffer agent to aluminium molar ratio is 0.5:1 to 2:1. heating an aqueous solution containing an aluminum salt having an aluminum to chloride molar ratio of 0.3:1 to 3:1, with a buffer agent, at a temperature of 50°C to 95°C to reflux for a period of time of 1 hour to 5 hours to obtain an aluminum salt solution; adding an aqueous solution of an inorganic base to obtain an aluminum salt solution having an OH:Al molar ratio of 2:1 to 2.6:1 to obtain a pH adjusted aluminum salt solution having a pH of 2 to 5; and optionally adding an aqueous solution containing a zirconium compound to the pH adjusted aluminum salt solution to thereby obtain an aluminum-zirconium salt solution having a molar ratio of aluminum to zirconium of 5:1 to 10:1;
A method for configuring resolution of beam direction reports, the method being performed by a radio equipment controller, REC, of an access node, the REC having an REC-RE interface to a radio equipment, RE, (300a, 300b) of the access node, the method comprising: providing instructions to the RE (300a, 300b) regarding with which resolution beam direction reports are to be transmitted to the REC on said REC-RE interface, wherein the resolution pertains to how many beam direction reports in frequency domain are transmitted from the RE (300a, 300b) to the REC for each received OFDM symbol, the beam direction reports comprise information related to spatial processed uplink reference signals, and receiving said beam direction reports on said REC-RE interface according to said instructions. providing instructions to the RE (300a, 300b) regarding with which resolution beam direction reports are to be transmitted to the REC on said REC-RE interface, wherein the resolution pertains to how many beam direction reports in frequency domain are transmitted from the RE (300a, 300b) to the REC for each received OFDM symbol, the beam direction reports comprise information related to spatial processed uplink reference signals, and receiving said beam direction reports on said REC-RE interface according to said instructions.
A method of operating a non-volatile EEPROM storage system that includes a plurality of bit lines that are associated with a word line, a plurality of non-volatile storage elements are associated with the word line, comprising: applying one or more programming voltages to the word line; establishing first bias conditions on the plurality of bit lines when verifying each of a plurality of programmed states, a separate set of first bias conditions are established when verifying each programmed state, the biasing a bit line is based on the state to which a non-volatile storage element on the bit line is being programmed; sensing conditions of bit lines of the plurality of bit lines after establishing the first bias conditions; establishing, based on a rough read operation, second bias conditions on the plurality of bit lines during a read process, a separate set of second bias conditions are established for each programmed state being read, the second bias conditions for a given programmed state substantially match the first bias conditions for the given programmed state; and sensing bit lines of non-volatile storage elements during the read process. applying one or more programming voltages to the word line; establishing first bias conditions on the plurality of bit lines when verifying each of a plurality of programmed states, a separate set of first bias conditions are established when verifying each programmed state, the biasing a bit line is based on the state to which a non-volatile storage element on the bit line is being programmed; sensing conditions of bit lines of the plurality of bit lines after establishing the first bias conditions; establishing, based on a rough read operation, second bias conditions on the plurality of bit lines during a read process, a separate set of second bias conditions are established for each programmed state being read, the second bias conditions for a given programmed state substantially match the first bias conditions for the given programmed state; and sensing bit lines of non-volatile storage elements during the read process.
A pathology apparatus for impregnating biological tissue samples with wax by replacing the water content in the tissue sample with liquid wax, the apparatus including a wax tray, wherein the wax tray is configured to collect waste hot liquid wax from the pathology apparatus, the tray including a base portion for receipt of wax and a lid portion which fits on top of the base portion, the apparatus being characterised in that the wax tray is capable of holding 5 litres of wax or more; and the lid portion includes wax holding means which extend such that in use they contact wax received in the base portion and such that when wax in the base portion solidifies the solid wax will lock the lid portion to the base portion.
An article having at least one wall, the at least one wall comprising a polyester host polymer made by reacting at least one acid selected from the group consisting of terephthalic acid and isophthalic acid or their dimethyl esters with at least one glycol selected from the group consisting of ethylene glycol, diethylene glycol, 1,4 butane diol and 1,3 butane diol, and 1,4-cyclohexanedimethanol (CHDM); and an oxygen scavenging composition comprising one or more compounds having formula or wherein the article is selected from the group consisting of a bottle and a preform which is formed by injection molding in order to be subsequently blow molded into a bottle.
A photovoltaic material comprising: a cubic nanocrystalline material with the following phases: XYS 2 and XYS 2-z V z where 2>z>0, wherein X is selected from Ag or Cu; Y is selected from Bi or Sb, and V is selected from a halogen; in the cubic lattice the cations, X and Y alternate in space and the anionic sites are occupied by sulfur atoms, or V.
A method for evaluating thermal plasticity of coals and caking additives, comprising: packing a coal or a caking additive into a vessel to prepare a sample, wherein the preparation of the sample includes crushing a coal or a caking additive such that particles with a particle diameter of not more than 3 mm account for not less than 70 mass%, and packing the crushed coal or caking additive into a vessel with a packing density of 0.7 to 0.9 g/cm 3 and a layer thickness of 5 to 20 mm, arranging a through-hole material composed of a spherical particle-packed layer which includes glass beads and having through-holes from top to bottom surfaces, onto the sample, heating the sample while applying a constant load onto the through-hole material, measuring the permeation distance with which the molten sample has permeated into the through-holes, and evaluating thermal plasticity of the sample using the measured value, and wherein the application of a constant load includes applying such a load that the pressure to the top surface of the through-hole material becomes 5 to 80 kPa. packing a coal or a caking additive into a vessel to prepare a sample, wherein the preparation of the sample includes crushing a coal or a caking additive such that particles with a particle diameter of not more than 3 mm account for not less than 70 mass%, and packing the crushed coal or caking additive into a vessel with a packing density of 0.7 to 0.9 g/cm 3 and a layer thickness of 5 to 20 mm, arranging a through-hole material composed of a spherical particle-packed layer which includes glass beads and having through-holes from top to bottom surfaces, onto the sample, heating the sample while applying a constant load onto the through-hole material, measuring the permeation distance with which the molten sample has permeated into the through-holes, and evaluating thermal plasticity of the sample using the measured value, and wherein the application of a constant load includes applying such a load that the pressure to the top surface of the through-hole material becomes 5 to 80 kPa.
A battery pack comprising: a cell module assembly; a pack case including a case body to receive the cell module assembly and a case cover coupleable with the case body to package the cell module assembly; and a horizontal protruding rib protruding toward the cell module assembly in a direction parallel to a stack direction of cells in the cell module assembly at an inner lower end of the case body, wherein the horizontal protruding rib is a double rib structure including a first rib which is compressible by the cell module assembly to absorb a thickness tolerance of the cell module assembly, and at least one uncompressible second rib provided on a lateralside of the first rib and disposed at a more rear position than the first rib to reinforce the first rib; wherein the at least one second rib includes two second ribs, each of the second ribs positioned on an opposite lateral side of the first rib; wherein the first rib has a length protruding further toward the cell module assembly than the second rib, and a smaller thickness than the second rib; wherein the first rib and the second rib include a curved part (612, 622) having a gradual increase in length toward the cell module assembly along a direction in which the cell module assembly is received in the case body, and a straight line part (614, 624) formed with a uniform length proximate to the curved part (612, 622); wherein a plurality of horizontal protruding ribs is formed at facing locations to fix two surfaces of the cell module assembly along a direction parallel to the stack direction of cells in the cell module assembly. a cell module assembly; a pack case including a case body to receive the cell module assembly and a case cover coupleable with the case body to package the cell module assembly; and a horizontal protruding rib protruding toward the cell module assembly in a direction parallel to a stack direction of cells in the cell module assembly at an inner lower end of the case body, wherein the horizontal protruding rib is a double rib structure including a first rib which is compressible by the cell module assembly to absorb a thickness tolerance of the cell module assembly, and at least one uncompressible second rib provided on a lateralside of the first rib and disposed at a more rear position than the first rib to reinforce the first rib; wherein the at least one second rib includes two second ribs, each of the second ribs positioned on an opposite lateral side of the first rib; wherein the first rib has a length protruding further toward the cell module assembly than the second rib, and a smaller thickness than the second rib; wherein the first rib and the second rib include a curved part (612, 622) having a gradual increase in length toward the cell module assembly along a direction in which the cell module assembly is received in the case body, and a straight line part (614, 624) formed with a uniform length proximate to the curved part (612, 622); wherein a plurality of horizontal protruding ribs is formed at facing locations to fix two surfaces of the cell module assembly along a direction parallel to the stack direction of cells in the cell module assembly.