mhurhangee/ep-ind-claims huggingface dataset:
A combustion heater comprising: a heating plate; a placement plate disposed opposite the heating plate; an outer wall provided around the outer circumference of the heating plate and the placement plate; a partitioning plate (124, 224, 324) that is disposed opposite the heating plate and the placement plate inside a space enclosed by the heating plate, the placement plate, and the outer wall, that forms a lead-in portion by a gap with the placement plate, and that forms a lead-out portion by a gap with the heating plate; an in-flow hole, which is provided at the placement plate or the partitioning plate (124, 224, 324), to which a first pipe portion which guides fuel gas is connected, and which leads the fuel gas from the first pipe portion to the lead-in portion; a combustion chamber that is arranged in the space enclosed by the heating plate, the placement plate and the outer wall, and at which the fuel gas that was introduced from the lead-in portion combusts, and that leads out exhaust gas produced by the combustion toward the lead-out portion; and an exhaust hole, which is provided at the heating plate or the partitioning plate (124, 224, 324), to which a second pipe portion which guides the exhaust gas is connected, and which leads the exhaust gas from the lead-out portion out to the second pipe portion; characterized in that the partitioning plate (124, 224, 324) is a corrugated plate which includes a concavo-convex portion in which concavities and convexities smoothly bulge in the thickness direction. a heating plate; a placement plate disposed opposite the heating plate; an outer wall provided around the outer circumference of the heating plate and the placement plate; a partitioning plate (124, 224, 324) that is disposed opposite the heating plate and the placement plate inside a space enclosed by the heating plate, the placement plate, and the outer wall, that forms a lead-in portion by a gap with the placement plate, and that forms a lead-out portion by a gap with the heating plate; an in-flow hole, which is provided at the placement plate or the partitioning plate (124, 224, 324), to which a first pipe portion which guides fuel gas is connected, and which leads the fuel gas from the first pipe portion to the lead-in portion; a combustion chamber that is arranged in the space enclosed by the heating plate, the placement plate and the outer wall, and at which the fuel gas that was introduced from the lead-in portion combusts, and that leads out exhaust gas produced by the combustion toward the lead-out portion; and an exhaust hole, which is provided at the heating plate or the partitioning plate (124, 224, 324), to which a second pipe portion which guides the exhaust gas is connected, and which leads the exhaust gas from the lead-out portion out to the second pipe portion; characterized in that the partitioning plate (124, 224, 324) is a corrugated plate which includes a concavo-convex portion in which concavities and convexities smoothly bulge in the thickness direction.
Method for machining a metallic component with a machining tool for machining a surface of the metallic component, wherein the metallic component is received in a holding apparatus, wherein a closed housing suitable for vacuum is arranged for receiving at least a part of the surface to be machined of the metallic component, wherein the housing suitable for vacuum is connected fluidically to at least one vacuum-generating means for generating a low-oxygen environment in the housing suitable for vacuum, characterized in that a pressure within the housing suitable for vacuum of between at most 10 -3 bar and at least 10 -6 bar is set.
A test apparatus for testing fluid-conducting components, in particular fluid-conducting fittings and/or fluid-conducting hoses, comprising at least one test connection for connecting at least one component to be tested, further comprising at least one pressure apparatus for generating a specified test pressure in the component to be tested and/or at least one negative pressure apparatus for generating a specified negative pressure in the component to be tested, wherein the test apparatus comprises a control apparatus which is designed to perform a test procedure for the at least one component to be tested according to the specification of an operator, characterized in that the test apparatus comprises a protective housing in which the at least one test connection and the at least one component to be tested are located during the test procedure, and in that the protective housing has at least one access door which has a closing sensor, wherein the test procedure can only be started if the closing sensor signals a closed state of the at least one access door.
A mobile computing device having a processor and a memory, wherein the processor is programmed with a mobile transaction application, wherein: the memory comprises a local database to hold data items for use by the mobile transaction application, wherein an entry in the local database comprises an index, an encrypted parameter for use by the mobile transaction application, and an additional parameter associated with the encryption/decryption step for the encrypted parameter for that entry; wherein the mobile transaction application is adapted to encrypt data items for storage in the local database and to decrypt data items stored in the local database using white-box cryptographic techniques. the memory comprises a local database to hold data items for use by the mobile transaction application, wherein an entry in the local database comprises an index, an encrypted parameter for use by the mobile transaction application, and an additional parameter associated with the encryption/decryption step for the encrypted parameter for that entry; wherein the mobile transaction application is adapted to encrypt data items for storage in the local database and to decrypt data items stored in the local database using white-box cryptographic techniques.
A mobile wireless communication unit comprising at least one short-range wireless circuit configured to receive multiple bundle formatted content packets from a multiple of wireless nodes over a delay tolerant network, using a short range wireless communication technology, wherein the received multiple bundle formatted content packets relate to at least one of multiple quality of service priority levels; a processor operably coupled to the at least one short-range wireless circuit and configured to determine a priority level of the multiple bundle formatted content packets; a memory, coupled to the processor; wherein the processor is configured to: transmit multiple bundle formatted content packets as received from the multiple wireless nodes direct to a network server over a cellular network in response to the determined priority level of at least one of the multiple bundle formatted content packets being high; or store in the memory the received and processed multiple bundle formatted content packets as individual bundles, such that the individual bundles are aggregated, in response to the determined priority level of the multiple bundle formatted content packets being low, and transmit at least the multiple bundle formatted content packets as aggregated individual bundles in a single radio resource control connection to at least one of: another mobile wireless communication unit or a wireless communication unit acting as a dedicated delay tolerant network gateway node, when discovered using the short range wireless communication technology. at least one short-range wireless circuit configured to receive multiple bundle formatted content packets from a multiple of wireless nodes over a delay tolerant network, using a short range wireless communication technology, wherein the received multiple bundle formatted content packets relate to at least one of multiple quality of service priority levels; a processor operably coupled to the at least one short-range wireless circuit and configured to determine a priority level of the multiple bundle formatted content packets; a memory, coupled to the processor; transmit multiple bundle formatted content packets as received from the multiple wireless nodes direct to a network server over a cellular network in response to the determined priority level of at least one of the multiple bundle formatted content packets being high; or store in the memory the received and processed multiple bundle formatted content packets as individual bundles, such that the individual bundles are aggregated, in response to the determined priority level of the multiple bundle formatted content packets being low, and transmit at least the multiple bundle formatted content packets as aggregated individual bundles in a single radio resource control connection to at least one of: another mobile wireless communication unit or a wireless communication unit acting as a dedicated delay tolerant network gateway node, when discovered using the short range wireless communication technology.
A variable-length protective cover with at least one bellows element, in which a certain number of folds are formed as intermediate folds, in that in each case two adjacent layers (30, 32) of the bellows element are connected to one another, wherein between these layers (30, 32), the intermediate folds of L-shaped slats are fixed in the intermediate folds formed as pockets or by other support elements, wherein the legs have recesses which serve for fixing on the bellows element, characterized in that the two layers (30, 32) of the intermediate folds have connecting regions in which the two layers (30, 32) are integrally bonded to one another, and the legs of the slats or of the other support elements have recesses which have such large lateral openings that the legs can be inserted into the pockets, wherein the connection regions pass into the recesses, wherein at least part of the edges (42, 46) of the recesses is provided with a hook-like or serrated structure which interacts with the edges of the connection regions in a form-fitting and/or force-fitting manner in the mounted position.
A method of forming an optical assembly comprising an optical device and a composition comprising a resin-linear organosiloxane block copolymer, said method comprising the step of combining the optical device and the composition to form the optical assembly, wherein the resin-linear organosiloxane block copolymer has a weight average molecular weight of at least 20,000 g/mole (determined by GPC analysis based on 16 polystyrene standards ranging in molecular weights from 580 to 2,320,000 Daltons), and comprises: 40 to 90 mole percent disiloxy units of the formula [R 1 2 SiO 2/2] arranged in linear blocks each having an average of from 10 to 400 disiloxy units [R 1 2 SiO 2/2] per linear block; 10 to 60 mole percent trisiloxy units of the formula [R 2 SiO 3/2] arranged in non-linear blocks each having a weight average molecular weight of at least 500 g/mol; and 0.5 to 25 mole percent silanol groups [≡SiOH]; wherein R 1 is independently a C 1 to C 30 hydrocarbyl and R 2 is independently a C 1 to C 20 hydrocarbyl, wherein at least 30 weight percent of the non-linear blocks are crosslinked with another non-linear block and aggregated in nano-domains, and wherein each linear block is linked to at least one non-linear block. 40 to 90 mole percent disiloxy units of the formula [R 1 2 SiO 2/2] arranged in linear blocks each having an average of from 10 to 400 disiloxy units [R 1 2 SiO 2/2] per linear block; 10 to 60 mole percent trisiloxy units of the formula [R 2 SiO 3/2] arranged in non-linear blocks each having a weight average molecular weight of at least 500 g/mol; and 0.5 to 25 mole percent silanol groups [≡SiOH];
A control apparatus for an internal combustion engine in which lubrication is performed using a lubrication oil discharged from an oil pump, and cooling is performed using a coolant discharged from a water pump, wherein said internal combustion engine comprises, a first motor for driving said oil pump; a second motor for driving said water pump; and a first change over mechanism having a first state and a second state, said first state being a state in which said second motor cannot drive said oil pump, and said second state being a state in which said second motor can drive said oil pump; wherein, said control apparatus comprises: malfunction determination means configured to determine whether or not said first motor malfunctions; characterized by further comprising control means configured to control the first motor, the second motor and the first change over mechanism to realize said first state when it is not determined that said first motor malfunctions, and to realize said second state when it is determined that said first motor malfunctions. a first motor for driving said oil pump; a second motor for driving said water pump; and a first change over mechanism having a first state and a second state, said first state being a state in which said second motor cannot drive said oil pump, and said second state being a state in which said second motor can drive said oil pump; wherein, said control apparatus comprises: malfunction determination means configured to determine whether or not said first motor malfunctions; characterized by further comprising control means configured to control the first motor, the second motor and the first change over mechanism to realize said first state when it is not determined that said first motor malfunctions, and to realize said second state when it is determined that said first motor malfunctions. malfunction determination means configured to determine whether or not said first motor malfunctions; characterized by further comprising control means configured to control the first motor, the second motor and the first change over mechanism to realize said first state when it is not determined that said first motor malfunctions, and to realize said second state when it is determined that said first motor malfunctions.
Method for estimating the physical activity exerted by an upper limb of a person, the method comprising steps of: (a) Acquiring, by inertial measurement means solidly attached to a forearm of said upper limb of said person, an angular speed of said forearm; (b) Estimating, by data processing means (21, 31, 41), a torque exerted by the muscles of an arm of the upper limb on said forearm as a function of the measured angular speed, of an orientation of said forearm, and of physical parameters of said forearm; said torque being estimated as the difference between the derivative of a kinetic moment L O of the forearm with respect to a contact point O of the elbow of the forearm with a support, and a moment M PO of the gravitational forces on the forearm with respect to the point O; where L O = ∫∫∫ OM Λ ( ω Λ OM) ρ dτ and M PO = ∫∫∫ OM Λ g ρ dτ, where p is the density, ω is the measured angular speed and g the acceleration due to gravity, by integrating at any point M on a volume of the forearm defined by said physical parameters of said forearm; (c) Determining, by the data processing means (21, 31, 41), a power exerted by the upper limb as a function of the estimated torque and of the measured angular speed. (a) Acquiring, by inertial measurement means solidly attached to a forearm of said upper limb of said person, an angular speed of said forearm; (b) Estimating, by data processing means (21, 31, 41), a torque exerted by the muscles of an arm of the upper limb on said forearm as a function of the measured angular speed, of an orientation of said forearm, and of physical parameters of said forearm; said torque being estimated as the difference between the derivative of a kinetic moment L O of the forearm with respect to a contact point O of the elbow of the forearm with a support, and a moment M PO of the gravitational forces on the forearm with respect to the point O; where L O = ∫∫∫ OM Λ ( ω Λ OM) ρ dτ and M PO = ∫∫∫ OM Λ g ρ dτ, where p is the density, ω is the measured angular speed and g the acceleration due to gravity, by integrating at any point M on a volume of the forearm defined by said physical parameters of said forearm; (c) Determining, by the data processing means (21, 31, 41), a power exerted by the upper limb as a function of the estimated torque and of the measured angular speed.
A storage container comprising: a first compartment having at least one door (114, 116) moveable between an open position and a closed position, the first compartment further including a locking mechanism for retaining the at least one door of the first compartment in the closed position, the locking mechanism being moveable between a locked position in which contents of the first compartment may not be accessed and an unlocked position in which the contents of the first compartment may be accessed; a second compartment including at least one door (118, 120) moveable between an open position and a closed position, the second compartment further including a latching mechanism for retaining the at least one door of the second compartment in the closed position, the latching mechanism being moveable between a latched position in which contents of the second compartment may not be accessed and an unlatched position in which contents of the second compartment may be accessed; and a release mechanism for unlatching the latching mechanism, the release mechanism being accessible when the locking mechanism is in the unlocked position and the at least one door of the first compartment has been moved to the open position; wherein the release mechanism includes a spring loaded clamp, the spring loaded clamp being operable to maintain the latching mechanism in the latched position. a first compartment having at least one door (114, 116) moveable between an open position and a closed position, the first compartment further including a locking mechanism for retaining the at least one door of the first compartment in the closed position, the locking mechanism being moveable between a locked position in which contents of the first compartment may not be accessed and an unlocked position in which the contents of the first compartment may be accessed; a second compartment including at least one door (118, 120) moveable between an open position and a closed position, the second compartment further including a latching mechanism for retaining the at least one door of the second compartment in the closed position, the latching mechanism being moveable between a latched position in which contents of the second compartment may not be accessed and an unlatched position in which contents of the second compartment may be accessed; and a release mechanism for unlatching the latching mechanism, the release mechanism being accessible when the locking mechanism is in the unlocked position and the at least one door of the first compartment has been moved to the open position; wherein the release mechanism includes a spring loaded clamp, the spring loaded clamp being operable to maintain the latching mechanism in the latched position.
A process for producing an electrolytic capacitor, the process comprising process steps i) and ii): i) providing a capacitor body that comprises - an electrode body of an electrode material, - a dielectric which at least partially covers the surface of this electrode material, and - a solid electrolyte at least comprising an electrically conductive material which at least partially covers the dielectric surface, ii) applying at least one primer compound e) to the capacitor body, followed by an application of a solution or dispersion a) comprising a conjugated polymer b) and a solvent or dispersant d), followed by an at least partial removal of the solvent or dispersant d) for the formation of the polymeric outer layer that is formed onto the capacitor body; wherein the primer compound e) is a di- or polyfunctional monomeric compound comprising at least one amine group, which optionally may be protonated, and at least one carboxylic or sulfonic acid group, which optionally may be deprotonated, characterized in that - the conjugated polymer b) is a cationic polythiophene and that the solution or dispersion a) comprises a polyanion serving as a counter-ion for the conjugated polymer b), the cationic polythiophene and the polyanion being present in the form of a polythiophene/polyanion complex; - in the primer compound e) the at least one amine group and the at least one carboxylic or sulfonic acid group are both covalently bound to the compound and the primer compound e) does not comprise an amine group and a carboxylic acid group that are bound to the same carbon atom. i) providing a capacitor body that comprises - an electrode body of an electrode material, - a dielectric which at least partially covers the surface of this electrode material, and - a solid electrolyte at least comprising an electrically conductive material which at least partially covers the dielectric surface, - an electrode body of an electrode material, - a dielectric which at least partially covers the surface of this electrode material, and - a solid electrolyte at least comprising an electrically conductive material which at least partially covers the dielectric surface, ii) applying at least one primer compound e) to the capacitor body, followed by an application of a solution or dispersion a) comprising a conjugated polymer b) and a solvent or dispersant d), followed by an at least partial removal of the solvent or dispersant d) for the formation of the polymeric outer layer that is formed onto the capacitor body; - the conjugated polymer b) is a cationic polythiophene and that the solution or dispersion a) comprises a polyanion serving as a counter-ion for the conjugated polymer b), the cationic polythiophene and the polyanion being present in the form of a polythiophene/polyanion complex; - in the primer compound e) the at least one amine group and the at least one carboxylic or sulfonic acid group are both covalently bound to the compound and the primer compound e) does not comprise an amine group and a carboxylic acid group that are bound to the same carbon atom.