mhurhangee/ep-ind-claims huggingface dataset:
A valve stem seal device comprising: a valve stem guide; a cylindrical metallic ring which is retained to an outer periphery of the valve stem guide; a seal lip which is integrally formed in an end side of said metallic ring, hermetically slides in relation to the valve stem, and is made of a rubbery elastic material; a valve stem seal which is provided with the cylindrical metallic ring and the seal lip; and the valve stem seal being fixed to said valve stem guide side, characterised in that the valve stem seal device is provided with a stop ring fitted and retained between a circular truncated cone-shaped surface which is expanded toward a side of said seal lip formed in an outer peripheral surface of said valve stem guide, and a cylindrical inner peripheral surface of said metallic ring, said stop ring has a cut part, and a movement limiting means for limiting a movement in an axial direction of said stop ring is provided in the other end side of said metallic ring. a valve stem guide; a cylindrical metallic ring which is retained to an outer periphery of the valve stem guide; a seal lip which is integrally formed in an end side of said metallic ring, hermetically slides in relation to the valve stem, and is made of a rubbery elastic material; a valve stem seal which is provided with the cylindrical metallic ring and the seal lip; and the valve stem seal being fixed to said valve stem guide side, characterised in that the valve stem seal device is provided with a stop ring fitted and retained between a circular truncated cone-shaped surface which is expanded toward a side of said seal lip formed in an outer peripheral surface of said valve stem guide, and a cylindrical inner peripheral surface of said metallic ring, said stop ring has a cut part, and a movement limiting means for limiting a movement in an axial direction of said stop ring is provided in the other end side of said metallic ring.
A refrigerator comprising: a cabinet defining a refrigerating compartment and a freezing compartment; a refrigerating compartment door configured to open and close the refrigerating compartment; a freezing compartment door configured to open and close the freezing compartment; a dispenser; an ice maker; a water tank detachably disposed on a rear surface of the refrigerating compartment door; and a tank connection member disposed in the refrigerating compartment door and connectable to the water tank when the water tank is mounted to provide a passage branched toward the dispenser and the ice maker, wherein the tank connection member comprises a connector that is branched into a dispenser-side connection part for supplying water from the water tank to the dispenser and an ice maker-side connection part for supplying water to the ice maker, the refrigerator being characterised by: the dispenser being provided in a front surface of the refrigerating compartment door, the ice maker being provided in the freezing compartment door, the water tank being placed above the dispenser to supply water by a self-weight of the water. a cabinet defining a refrigerating compartment and a freezing compartment; a refrigerating compartment door configured to open and close the refrigerating compartment; a freezing compartment door configured to open and close the freezing compartment; a dispenser; an ice maker; a water tank detachably disposed on a rear surface of the refrigerating compartment door; and a tank connection member disposed in the refrigerating compartment door and connectable to the water tank when the water tank is mounted to provide a passage branched toward the dispenser and the ice maker, wherein the tank connection member comprises a connector that is branched into a dispenser-side connection part for supplying water from the water tank to the dispenser and an ice maker-side connection part for supplying water to the ice maker, the refrigerator being characterised by: the dispenser being provided in a front surface of the refrigerating compartment door, the ice maker being provided in the freezing compartment door, the water tank being placed above the dispenser to supply water by a self-weight of the water. the dispenser being provided in a front surface of the refrigerating compartment door, the ice maker being provided in the freezing compartment door, the water tank being placed above the dispenser to supply water by a self-weight of the water.
A method of providing multimedia service, the method comprising: requesting interest response for the multimedia service to one or more terminals; acquiring information on the number of terminals receiving or interested in the multimedia service from the interest response; enabling or disabling multimedia broadcast multicast transmission for the multimedia service according to determination based on the information on the number of terminals, characterized in that it further comprises: notifying transmission of the requesting to the one or more terminals when Multicast Control Channel, MCCH, message information is changed, wherein the notifying indicates the necessity of receiving the MCCH according to a reason for the MCCH information change, said reason being when the interest response from the one or more terminals is requested. requesting interest response for the multimedia service to one or more terminals; acquiring information on the number of terminals receiving or interested in the multimedia service from the interest response; enabling or disabling multimedia broadcast multicast transmission for the multimedia service according to determination based on the information on the number of terminals, characterized in that it further comprises: notifying transmission of the requesting to the one or more terminals when Multicast Control Channel, MCCH, message information is changed, wherein the notifying indicates the necessity of receiving the MCCH according to a reason for the MCCH information change, said reason being when the interest response from the one or more terminals is requested.
Water outlet (1, 6, 16, 20, 24), in particular a sanitary water outlet, having an inflow-side first outlet part and an outflow-side second outlet part, which (2, 3) can be moved between a release position and a use position, in which use position the outlet parts (2, 3) are connected to one another in the direction of flow and are releasably fixed to one another by means of a quick coupling, wherein the outflow-side second outlet part is sleeve-shaped, and wherein an insert cartridge, which has a jet regulator and/or a flow rate regulator and/or an attachment strainer, is inserted into the sleeve interior of said second outlet part, and wherein the quick coupling is held on the first outlet part on the outside and at an axial distance from the second outlet part, wherein an annular flange or annular shoulder of the quick coupling is provided on the outer circumference on the one, preferably the first, outlet part, and wherein at least one spring bar (11, 12) of the quick coupling is provided on the other, in particular the second, outlet part, which spring bar (11, 12) is movable between an outwardly deflected release position and a holding position which is inwardly deflected in relation thereto, in which holding position the at least one spring bar (11, 12) engages behind the annular shoulder or annular flange of the quick coupling with a latching cam integrally formed on its free bar end.
An electronic device (200,300,700,800,1000) for generating or utilizing one or more cycle-swallowed clock signals derived from a first clock signal, comprising: a module (1010, 1020, 1025) configured to receive the first clock signal having a first frequency; the module configured to generate a second clock signal having a second frequency; wherein the module is configured to swallow one or more clock cycles of the first clock signal in generating the second clock signal, the first clock signal having even cycles, the second clock signal having uneven cycles, the first frequency being greater than the second frequency, wherein the second clock signal is one of the one or more cycle-swallowed clock signals; wherein the module comprises a cycle-swallowing counter; the cycle-swallowing counter having operating parameters R, N; wherein the module is configured to swallow R cycles of the first clock signal out of every N cycles of the first clock signal; wherein the module comprises an automatic frequency control, AFC, module; characterised in that: the AFC module being configured to determine the drift of the first frequency of the first clock signal and to reprogram the operating parameters R, N of the cycle-swallowing counter based on the drift of the first frequency of the first clock signal to maintain a constant average frequency of the second clock signal when the first frequency of the first clock signal drifts. a module (1010, 1020, 1025) configured to receive the first clock signal having a first frequency; the module configured to generate a second clock signal having a second frequency; wherein the module is configured to swallow one or more clock cycles of the first clock signal in generating the second clock signal, the first clock signal having even cycles, the second clock signal having uneven cycles, the first frequency being greater than the second frequency, wherein the second clock signal is one of the one or more cycle-swallowed clock signals; the AFC module being configured to determine the drift of the first frequency of the first clock signal and to reprogram the operating parameters R, N of the cycle-swallowing counter based on the drift of the first frequency of the first clock signal to maintain a constant average frequency of the second clock signal when the first frequency of the first clock signal drifts.
A process for producing a layered lithium-manganese-nickel-cobalt oxide material, which includes producing a raw layered lithium-manganese-nickel-cobalt oxide ('LMNC') material by maintaining a solution comprising a dissolved lithium compound, a dissolved manganese compound, a dissolved nickel compound, a dissolved cobalt compound, optionally a dissolved dopant compound of a dopant capable of enhancing the performance of the layered LMNC material when used as a cathode material in an electrochemical cell, a hydroxycarboxylic acid, and a polyhydroxy alcohol, at an elevated temperature T 1, where T 1 is below the boiling point of the solution, until the solution gels; maintaining the gel at an elevated temperature until it ignites and burns to form a Li-Mn-Ni-Co-O powder; and calcining the Li-Mn-Ni-Co-O powder to burn off carbon and/or other impurities present in the powder, thereby to obtain the raw layered LMNC material; before any annealing of the raw layered LMNC material is effected, subjecting it to microwave treatment, to obtain a treated material; and annealing the treated material, to obtain the layered LMNC material. maintaining a solution comprising a dissolved lithium compound, a dissolved manganese compound, a dissolved nickel compound, a dissolved cobalt compound, optionally a dissolved dopant compound of a dopant capable of enhancing the performance of the layered LMNC material when used as a cathode material in an electrochemical cell, a hydroxycarboxylic acid, and a polyhydroxy alcohol, at an elevated temperature T 1, where T 1 is below the boiling point of the solution, until the solution gels; maintaining the gel at an elevated temperature until it ignites and burns to form a Li-Mn-Ni-Co-O powder; and calcining the Li-Mn-Ni-Co-O powder to burn off carbon and/or other impurities present in the powder, thereby to obtain the raw layered LMNC material;
A semiconductive ceramic sintered compact comprising: a main phase and conductive phases present inside the main phase, wherein the main phase is a ceramic sintered phase comprising Al 2 O 3 particles the area ratio of the conductive phases to the main phase is 0% (exclusive) to 10% (inclusive), and the conductive phase comprises two or more metals selected from Mn (manganese), Fe (iron), and Ti (titanium) and has a composition meeting a relation of Mn/(Ti + Mn + Fe) > 0.08 or Mn/Ti > 0.15, characterized in that the main phase is constituted, prior to molding, by an Al 2 O 3 starting material having a mean particle diameter of not less than 2 μm and an Al 2 O 3 starting material having a mean particle diameter of not more than 1 μm. a main phase and conductive phases present inside the main phase, wherein the main phase is a ceramic sintered phase comprising Al 2 O 3 particles the area ratio of the conductive phases to the main phase is 0% (exclusive) to 10% (inclusive), and the conductive phase comprises two or more metals selected from Mn (manganese), Fe (iron), and Ti (titanium) and has a composition meeting a relation of Mn/(Ti + Mn + Fe) > 0.08 or Mn/Ti > 0.15, characterized in that the main phase is constituted, prior to molding, by an Al 2 O 3 starting material having a mean particle diameter of not less than 2 μm and an Al 2 O 3 starting material having a mean particle diameter of not more than 1 μm.
An aqueous curable binder composition comprising starting materials required for forming a thermoset resin upon curing and a matrix polymer, wherein the starting materials required for forming a thermoset resin upon curing comprise (i) a polyhydroxy component selected from carbohydrate components selected from monosaccharide in its aldose or ketose form, including a triose, a tetrose, a pentose, a hexose, or a heptose; or an oligosaccharide or polysaccharide; or a component that yields one or more reducing sugars in situ, or combinations thereof, and a polycarboxylic acid component, or an anhydride, ester or salt derivative thereof and/or reaction product thereof, or (ii) a carbohydrate component selected from reducing sugars or such that yield one or more reducing sugars in situ under thermal curing conditions, and a nitrogen containing component and/or a reaction product thereof, wherein the matrix polymer makes up from 2 to 15 % of the dry weight of the binder composition and wherein the matrix polymer is selected from starch, alginate,, starch derivatives or copolymers, carboxymethyl cellulose, sodium carboxymethyl cellulose (NaCMC), hydroxypropyl cellulose, 2-hydroxyethyl cellulose, nanocellulose, chitosan, aliphatic isocyanate oligomers, azetidinium polymer, copolymers thereof and mixtures thereof.
A working machine comprising a machine body, and a load handling apparatus (6,7) coupled to the machine body and moveable by a movement actuator with respect to the machine body, characterised in that the working machine being a telescopic handler configured for use with at least one electric energy storage module (34a,34b), wherein the working machine further comprises a control system comprising a controller configured to: receive or acquire information representative of the weight and/or position of the at least one electric energy storage module; determine permitted and/or prohibited operations of the working machine based on the received or acquired information; and issue an operations signal for use by at least one element of the working machine corresponding to the determined permitted and/or prohibited operations. receive or acquire information representative of the weight and/or position of the at least one electric energy storage module; determine permitted and/or prohibited operations of the working machine based on the received or acquired information; and issue an operations signal for use by at least one element of the working machine corresponding to the determined permitted and/or prohibited operations.
A polyolefin resin foam sheet made of a polyolefin resin foam comprising a polyolefin resin and a thermoplastic elastomer resin, wherein the endothermic peaks measured by a differential scanning calorimeter, measured as described in the specification, occur in both of a range of 110°C or more and 143°C or less and in a range of 153°C or more, and said thermoplastic elastomer resin is contained at a ratio of 30% by mass or more and 60% by mass or less in 100% by mass of the resins constituting said foam, wherein the surface roughness Sa (arithmetic mean height) of both the front and back surfaces is 5 μm or more and 80 μm or less, measured as described in the specification, and the difference in surface roughness Sa of the front and back surfaces as determined by the following formula is 20 μm or more: Difference in surface roughness Sa between both the front and back surfaces = Surface roughness Sa on the surface B - Surface roughness Sa on the surface A, and wherein the average cell size in the machine direction corresponding to the direction of the resin extrusion for producing a polyolefin resin foam sheet on both the front and back surfaces is 100 μm or more, measured as described in the specification, and the ratio of the average cell size in the machine direction on the surface B to the average cell size in the machine direction on the surface A as determined by the following formula is 1.2 or more: Ratio of the average cell size in the machine direction = Average cell size in the machine direction on the surface B / Average cell size in the machine direction on the surface A. wherein the surface roughness Sa (arithmetic mean height) of both the front and back surfaces is 5 μm or more and 80 μm or less, measured as described in the specification, and the difference in surface roughness Sa of the front and back surfaces as determined by the following formula is 20 μm or more: Difference in surface roughness Sa between both the front and back surfaces = Surface roughness Sa on the surface B - Surface roughness Sa on the surface A, and wherein the average cell size in the machine direction corresponding to the direction of the resin extrusion for producing a polyolefin resin foam sheet on both the front and back surfaces is 100 μm or more, measured as described in the specification, and the ratio of the average cell size in the machine direction on the surface B to the average cell size in the machine direction on the surface A as determined by the following formula is 1.2 or more: Ratio of the average cell size in the machine direction = Average cell size in the machine direction on the surface B / Average cell size in the machine direction on the surface A.
A protective cover for a handbag comprising a flexible wrapping element and means for closing said wrapping element around said handbag, said wrapping element comprising an internal surface which comes into contact with said handbag, an external surface, and means for storing said cover, characterized in that said storage means comprises a first pocket arranged on said external surface and a second pocket arranged on said internal surface.
A system for updating a stored value card comprising a transaction device for receiving a request to update the stored value card; a transaction manager arranged in data communication with the transaction device; the transaction manager operable to process the request to update the stored value card; a clearing house arranged to receive processed request from the transaction manager to create a pending transaction status; and a stored value updater network operable to receive the stored value card and thereafter retrieve an identifier of the stored value card; the stored value updater network further operable to retrieve a reload amount based on the pending transaction status from the clearing house and update the stored value card by the reload amount, wherein the clearing house is in data communication with a plurality of card hosts and is further operable to call a card host from the plurality of card hosts, based on at least the identifier of the stored value card, for settlement of the update of the stored value card.
A method of evaluating a volume of interest of an earth formation (80, 211) comprising: activating a transmitter (40, 208) to propagate an acoustic wave through the volume; producing a detected acoustic signal at a receiver (20, 220) responsive to the acoustic wave; estimating a parameter of interest of the volume using a value of a signal property for a second harmonic mode signal component of the detected acoustic signal from the volume by: estimating an acoustic wave non-linearity parameter, β, for the volume using a relationship comprising a ratio of the value of the signal property of the second harmonic mode signal component and a value of the signal property for a fundamental mode signal component of the detected acoustic signal; and estimating the parameter of interest using a correlation between the acoustic wave non-linearity parameter, β, and the parameter of interest. activating a transmitter (40, 208) to propagate an acoustic wave through the volume; producing a detected acoustic signal at a receiver (20, 220) responsive to the acoustic wave; estimating a parameter of interest of the volume using a value of a signal property for a second harmonic mode signal component of the detected acoustic signal from the volume by: estimating an acoustic wave non-linearity parameter, β, for the volume using a relationship comprising a ratio of the value of the signal property of the second harmonic mode signal component and a value of the signal property for a fundamental mode signal component of the detected acoustic signal; and estimating the parameter of interest using a correlation between the acoustic wave non-linearity parameter, β, and the parameter of interest. estimating an acoustic wave non-linearity parameter, β, for the volume using a relationship comprising a ratio of the value of the signal property of the second harmonic mode signal component and a value of the signal property for a fundamental mode signal component of the detected acoustic signal; and estimating the parameter of interest using a correlation between the acoustic wave non-linearity parameter, β, and the parameter of interest.
A method of processing three-dimensional graphics data, comprising: updating one or more tiles of a first image array with graphics data, comprising any of a number of conventional graphics processes, such as rasterization, color computation, depth processing, and shading; compressing the one or more updated tiles by GPU, using a real-time buffer compression algorithm, to obtain compressed image array tiles; storing the compressed image array tiles for subsequent use as a texture in an external RAM; and during real-time rendering of a second image array: retrieving the compressed image array tiles from the external RAM, decompressing the compressed image array tiles by GPU, using a decompression algorithm corresponding to the buffer compression algorithm, and applying the decompressed image array tiles as a texture map to at least a first primitive in a second image array. updating one or more tiles of a first image array with graphics data, comprising any of a number of conventional graphics processes, such as rasterization, color computation, depth processing, and shading; compressing the one or more updated tiles by GPU, using a real-time buffer compression algorithm, to obtain compressed image array tiles; storing the compressed image array tiles for subsequent use as a texture in an external RAM; and during real-time rendering of a second image array: retrieving the compressed image array tiles from the external RAM, decompressing the compressed image array tiles by GPU, using a decompression algorithm corresponding to the buffer compression algorithm, and applying the decompressed image array tiles as a texture map to at least a first primitive in a second image array. retrieving the compressed image array tiles from the external RAM, decompressing the compressed image array tiles by GPU, using a decompression algorithm corresponding to the buffer compression algorithm, and applying the decompressed image array tiles as a texture map to at least a first primitive in a second image array.