mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle drive train having a hydrodynamic retarder, comprising a rotating bladed primary wheel and a bladed secondary wheel which is stationary or rotating in opposite direction, which form together a working chamber which can be filled with working medium to switch on the retarder, whereas 1.1 the hydrodynamic retarder can be disengaged mechanically from the drive train by means of a separating clutch, characterised in that 1.2 a filling level monitoring device is provided, which detects the current filling level of the working medium in the working chamber and 1.3 a separating clutch blocking device is provided, which is in communicating or mechanical operative connection with the filling level monitoring device and blocks the closing of the separating clutch according to the filling level detected. 1.1 the hydrodynamic retarder can be disengaged mechanically from the drive train by means of a separating clutch, characterised in that 1.2 a filling level monitoring device is provided, which detects the current filling level of the working medium in the working chamber and 1.3 a separating clutch blocking device is provided, which is in communicating or mechanical operative connection with the filling level monitoring device and blocks the closing of the separating clutch according to the filling level detected.
A watercraft comprising a hull and provided with a stern compartment inside said hull, said compartment being closed at least at its bottom end by a movable portion of a stern platform, the stern platform projecting from a bottom of a stern wall to define a rear side extension of the watercraft, said compartment opening astern of the watercraft, wherein said movable portion can be lowered relative to the hull into water, actuating means implementing the motion of the movable portion of the stern platform, said actuating means being motor-driven, hydraulic and/or pneumatic means, said bottom end of the stern compartment being arranged, when in use, in proximity to the water, said movable portion of the stern platform being configured to shift into the water with a translational motion along at least a portion of the hull, but remaining in proximity to the hull and in a plane parallel to the plane in which said movable portion lies when the compartment is closed at its bottom end, said actuating means being associated to the portion of the hull along which the movable portion of the stern platform shifts and being of a telescopic kind and comprising a plurality of elements (43, 44, 45), movable relative to one another, one of said elements (43, 44, 45) supporting the movable portion of the stern platform, wherein a first element of said plurality of elements (43, 44,45) is integral with the portion of the hull along which the movable portion of the stern platform shifts and a second element of said plurality of elements (43, 44, 45) is movable relative to said first element, said compartment being configured to be flooded as a result of said motion of the movable portion of the stern platform.
An emulsion stabilizer comprising: a blend of one or more cellulose ether and one or more cross-linked, modified starch, wherein one or more of the cellulose ethers is hydrophobically modified, and wherein the total amount of cellulose ethers in the blend is not greater than 50 wt%.
Apparatus for additively manufacturing three-dimensional objects (2, 2') by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy source, which apparatus comprises a stream generating device that is adapted to generate a gas stream (7, 7') inside a process chamber of the apparatus, wherein the stream generating device is adapted to spatially control at least one parameter relating to a composition of the gas stream (7, 7'), characterized in that the stream generating device further comprises a control unit which is adapted to control the composition of the gas stream (7, 7') and in that the stream generating device comprises a stream generating unit that provides a stream intake and a stream outlet, the stream generating unit being moveable to the position of the object (2, 2') to provide a gas stream between the intake and the outlet that differs from the gas stream of the stream generating device regarding the chemical composition of the gas streams (7, 7'). characterized in that the stream generating device further comprises a control unit which is adapted to control the composition of the gas stream (7, 7') and in that the stream generating device comprises a stream generating unit that provides a stream intake and a stream outlet, the stream generating unit being moveable to the position of the object (2, 2') to provide a gas stream between the intake and the outlet that differs from the gas stream of the stream generating device regarding the chemical composition of the gas streams (7, 7').
A worm filter press, having a worm shaft comprising at least one helical thread and two worm shaft ends, the shaft axis of which is orientated parallel to the gravity vector, which is mounted on one side via the upper worm shaft end thereof and connected to a rotary drive, and which is coaxially surrounded at least in the lower part region thereof in a so-called filter region by a cylindrical filter tube, which is provided with openings and which is radially adjoined by a filtrate chamber, in which underpressure is present, characterised in that a sliding tube with the same internal diameter as the filter tube coaxially adjoins the filter tube and radially surrounds the worm shaft in a fluid-tight manner in the direction of the upper worm shaft end, in that the at least one helical thread extends in the region of the filter tube and the sliding tube, in that the sliding tube provides a lateral discharge opening in the region of the upper worm shaft end, and in that the at least one helical thread of the worm shaft opens radially to the worm shaft in an edge helically surrounding the worm shaft, which edge adjoins the filter tube indirectly or directly at the inner wall in the region of the filter tube.
A computer-implemented method for verifying functionality of a computing device, the method comprising: receiving one or more rules usable to configure a driver verifier function to capture information associated with a device driver identified by the one or more rules, wherein the driver verifier function is configured to capture information associated with a device driver identified by the one or more rules during the production use of the computing device; configuring, on the computing device, the driver verifier function to capture the information associated with the identified device driver in accordance with the one or more rules; executing, on the computing device, the configured driver verifier function; capturing, using the configured driver verifier function, the information in response to one or more driver conditions identified by the one or more rules; allowing the computing device and the driver verifier function to continue operation without allowing a bug check if the one or more driver conditions include an error condition of the identified device driver as defined by the one or more rules, and otherwise performing an error recovery response for the identified device driver; and initiating a communication to transmit the captured information to a driver verification analysis service, wherein the driver verifier function is automatically disabled or deleted after a predetermined time. receiving one or more rules usable to configure a driver verifier function to capture information associated with a device driver identified by the one or more rules, wherein the driver verifier function is configured to capture information associated with a device driver identified by the one or more rules during the production use of the computing device; configuring, on the computing device, the driver verifier function to capture the information associated with the identified device driver in accordance with the one or more rules; executing, on the computing device, the configured driver verifier function; capturing, using the configured driver verifier function, the information in response to one or more driver conditions identified by the one or more rules; allowing the computing device and the driver verifier function to continue operation without allowing a bug check if the one or more driver conditions include an error condition of the identified device driver as defined by the one or more rules, and otherwise performing an error recovery response for the identified device driver; and initiating a communication to transmit the captured information to a driver verification analysis service, wherein the driver verifier function is automatically disabled or deleted after a predetermined time.
Electrochemical cell comprising a negative electrode, a positive electrode, a protective layer which is arranged on the negative electrode and separates the negative electrode from the positive electrode and also an electrolyte which is arranged between the positive electrode and the protective layer, where the negative electrode at least partially comprises metallic lithium and the protective layer arranged on the negative electrode is formed by a composite material comprising at least a first material which is formed by a lithium ion-conducting material and a second material which is formed by a polymer, and the protective layer has conducting paths which are formed by material channels of the lithium ion-conducting material, where the conducting paths are continuous in the height direction of the protective layer, where the lithium ion-conducting material has a grid-like structure having a plurality of components which are arranged essentially perpendicular to the negative electrode and are joined by a parallel layer composed of the same material, where interstices formed in the lithium ion-conducting material are filled with polymer, characterized in that an intermediate layer is arranged between the electrolyte and the protective layer. where the negative electrode at least partially comprises metallic lithium and the protective layer arranged on the negative electrode is formed by a composite material comprising at least a first material which is formed by a lithium ion-conducting material and a second material which is formed by a polymer, and the protective layer has conducting paths which are formed by material channels of the lithium ion-conducting material, where the conducting paths are continuous in the height direction of the protective layer, where the lithium ion-conducting material has a grid-like structure having a plurality of components which are arranged essentially perpendicular to the negative electrode and are joined by a parallel layer composed of the same material, where interstices formed in the lithium ion-conducting material are filled with polymer, characterized in that an intermediate layer is arranged between the electrolyte and the protective layer.
A position sensing system for a braking assembly for a vehicle, the braking assembly including: a rotor; a caliper assembly disposed at least partially around the rotor and having a fixed mount bracket and a floating portion which is movable in relation to the fixed mount bracket; and at least one brake pad attached to the floating portion configured to move with respect to the fixed mount bracket and exert a force against the rotor when a driver applies brakes for the vehicle, the position sensing system comprising: a sensor assembly including a sensing element and a reference portion, the sensing element attached to a location of the braking assembly such that the reference portion moves in relation to the sensing element when the floating portion moves, the sensor assembly configured to generate a signal correlative to the relative positions of the sensing element and the reference portion; and a processor configured to: store a first plurality of predetermined signatures, each predetermined signature of the first plurality of predetermined signatures associates a fluctuation in signal strength with a particular non-uniform rotor contact surface; and determine characteristics of a non-uniform contact surface of the rotor based on a match between the signal and at least one predetermined signature of the first plurality of predetermined signatures. a sensor assembly including a sensing element and a reference portion, the sensing element attached to a location of the braking assembly such that the reference portion moves in relation to the sensing element when the floating portion moves, the sensor assembly configured to generate a signal correlative to the relative positions of the sensing element and the reference portion; and a processor configured to: store a first plurality of predetermined signatures, each predetermined signature of the first plurality of predetermined signatures associates a fluctuation in signal strength with a particular non-uniform rotor contact surface; and determine characteristics of a non-uniform contact surface of the rotor based on a match between the signal and at least one predetermined signature of the first plurality of predetermined signatures. store a first plurality of predetermined signatures, each predetermined signature of the first plurality of predetermined signatures associates a fluctuation in signal strength with a particular non-uniform rotor contact surface; and determine characteristics of a non-uniform contact surface of the rotor based on a match between the signal and at least one predetermined signature of the first plurality of predetermined signatures.
A method for creating a virtual non-volatile storage medium, applied to a system for creating a virtual non-volatile storage medium, wherein the system for creating a virtual non-volatile storage medium comprises a blade server, a client, and a management device, the management device comprises a central processing unit, CPU; and the method comprises: determining, by the client, that no virtual non-volatile storage medium corresponding to the physical non-volatile storage medium has been created for the blade server; receiving, by the CPU, a creation request message that is sent by the client and that is for creating a virtual non-volatile storage medium corresponding to a physical non-volatile storage medium; forwarding, by the CPU, the creation request message to the blade server; and receiving, by the CPU, attribute information sent by the blade server, and sending the attribute information to the client, so that the client creates, according to the attribute information, a virtual non-volatile storage medium that can be accessed by the blade server. determining, by the client, that no virtual non-volatile storage medium corresponding to the physical non-volatile storage medium has been created for the blade server; receiving, by the CPU, a creation request message that is sent by the client and that is for creating a virtual non-volatile storage medium corresponding to a physical non-volatile storage medium; forwarding, by the CPU, the creation request message to the blade server; and receiving, by the CPU, attribute information sent by the blade server, and sending the attribute information to the client, so that the client creates, according to the attribute information, a virtual non-volatile storage medium that can be accessed by the blade server.
Method for producing concave micromirrors, comprising the steps of: - providing a carrier substrate and - pre-structuring the carrier substrate such that elevations are produced on a rear side of the carrier substrate and depressions that substantially correspond to the elevations are produced on a front side of the carrier substrate, which lies opposite the rear side, - applying a reflective coating on at least one side of the carrier substrate in the region of the elevations or depressions, such that concave micromirrors are formed by the depressions as viewed from the front side of the substrate, wherein the pre-structuring of the carrier substrate is effected by embossing, in particular by embossing in intaglio printing methods, characterized in that the depressions are filled with a transparent material and a microstructure is applied, preferably by printing or embossing, onto the side of the transparent material that lies opposite the depressions, and wherein the thickness or the shape of the transparent material is selected such that the microstructure lies in the focal plane of the concave micromirrors. - providing a carrier substrate and - pre-structuring the carrier substrate such that elevations are produced on a rear side of the carrier substrate and depressions that substantially correspond to the elevations are produced on a front side of the carrier substrate, which lies opposite the rear side, - applying a reflective coating on at least one side of the carrier substrate in the region of the elevations or depressions, such that concave micromirrors are formed by the depressions as viewed from the front side of the substrate,
A method by a central node for reference signal allocation in a wireless communication system, said method comprising: receiving Sounding Reference Signals, SRSs, from a remote node, wherein said remote node comprises at least one transmit antenna for an uplink transmission; determining a number of reference signals N based on said received SRSs, wherein the number of reference signals N are to be used by said remote node for an uplink transmission (11, 21); wherein each of said reference signals corresponds to an antenna port which is coupled to said at least one transmit antenna; and indicating said number of reference signals N (12, 22) on a Physical Downlink Control Channel, PDCCH, or a Radio Resource Control, RRC, to said remote node; receiving said uplink transmission with said number of reference signal N. receiving Sounding Reference Signals, SRSs, from a remote node, wherein said remote node comprises at least one transmit antenna for an uplink transmission; determining a number of reference signals N based on said received SRSs, wherein the number of reference signals N are to be used by said remote node for an uplink transmission (11, 21); wherein each of said reference signals corresponds to an antenna port which is coupled to said at least one transmit antenna; and indicating said number of reference signals N (12, 22) on a Physical Downlink Control Channel, PDCCH, or a Radio Resource Control, RRC, to said remote node; receiving said uplink transmission with said number of reference signal N.
A steel plate-reinforcing material of a type giving vibration-damping performance to a steel plate comprising a restricted layer and a thermosetting foamed viscoelasticity layer, as a tackifiers included said thermosetting foamed viscoelasticity layer, said tackifiers comprising a terpene system resin, an aliphatic series system petroleum resin and an aromatic series system petroleum resin are used, a fiber is added to said thermosetting foamed viscoelasticity layer.
A polymer solution comprising: a (meth)acrylic copolymer having a constitutional unit having at least one kind of structure selected from the group consisting of structures represented by the following formula or and a constitutional unit derived from a macromonomer (b), wherein macromonomer (b) has a radically polymerizable group and two or more constitutional units represented by the following formula (b'); and an organic solvent, wherein a viscosity of the polymer solution at 25°C as measured by a B-type viscometer is 5 × 10 4 mPa·s or less: -COO-M-OCO ··· -COO-M-R 32 ··· (where, M represents Zn, Cu, Mg, or Ca and R 32 represents an organic acid residue other than a (meth)acryloyloxy group); (where, R 41 represents a hydrogen atom, a methyl group, or CH 2 OH and R 42 represents OR 43, a halogen atom, COR 44, COOR 45, CN, CONR 46 R 47, or R 48, where R 43 to R 47 each independently represent a hydrogen atom, an unsubstituted or substituted alkyl group, an unsubstituted or substituted alicyclic group, an unsubstituted or substituted aryl group, an unsubstituted or substituted heteroaryl group, an unsubstituted or substituted nonaromatic heterocyclic group, an unsubstituted or substituted aralkyl group, an unsubstituted or substituted alkaryl group, or an unsubstituted or substituted organosilyl group and R 48 represents an unsubstituted or substituted aryl group or an unsubstituted or substituted heteroaryl group). a (meth)acrylic copolymer having a constitutional unit having at least one kind of structure selected from the group consisting of structures represented by the following formula or and a constitutional unit derived from a macromonomer (b), wherein macromonomer (b) has a radically polymerizable group and two or more constitutional units represented by the following formula (b'); and an organic solvent, wherein a viscosity of the polymer solution at 25°C as measured by a B-type viscometer is 5 × 10 4 mPa·s or less: -COO-M-OCO ··· -COO-M-R 32 ··· (where, M represents Zn, Cu, Mg, or Ca and R 32 represents an organic acid residue other than a (meth)acryloyloxy group); (where, R 41 represents a hydrogen atom, a methyl group, or CH 2 OH and R 42 represents OR 43, a halogen atom, COR 44, COOR 45, CN, CONR 46 R 47, or R 48, where R 43 to R 47 each independently represent a hydrogen atom, an unsubstituted or substituted alkyl group, an unsubstituted or substituted alicyclic group, an unsubstituted or substituted aryl group, an unsubstituted or substituted heteroaryl group, an unsubstituted or substituted nonaromatic heterocyclic group, an unsubstituted or substituted aralkyl group, an unsubstituted or substituted alkaryl group, or an unsubstituted or substituted organosilyl group and R 48 represents an unsubstituted or substituted aryl group or an unsubstituted or substituted heteroaryl group).