mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the load capacity of an electrical source by a processor, so that a start and/ or an execution of a program are executed by the processor, without the start and/ or the execution of the program being interrupted when the processor draws more electric power from the source than the source makes available during the start and/ or during the execution of the program, wherein as an electrical source an antenna coil is employed which is electroconductively connected to the processor, wherein the processor and the antenna coil are arranged in a portable data carrier, wherein the processor is electroconductively connected to sensors which signal to the processor whether a minimal magnetic field strength of the magnetic field surrounding the data carrier is present, wherein the magnetic field is generated by a reading device, wherein an output impedance of the antenna coil is not adapted to an input impedance of the processor, characterized in that before the start and the execution of the program, the processor starts and executes an auxiliary program, wherein the auxiliary program effectuates at least the same energy consumption of the processor upon starting and executing as when the processor starts and executes the program, in order to ascertain whether the power made available by the source is sufficient for the start and the execution of the program, in order to start and execute the program by the processor upon at least sufficient power, subsequent to the execution of the auxiliary program, wherein the auxiliary program increases the power consumption of the processor by the auxiliary program increasing a clock frequency of the processor, wherein the clock frequency is increased until a maximum clock frequency is reached, upon which a start and an execution of the auxiliary program is possible by the processor without the processor drawing more power from the source than the source makes available.
A DC to DC converter assembly (30, 100, 110, 120, 130), for connecting first and second high voltage DC power transmission networks, comprising first and second modular multilevel converters (32, 34), each converter (32, 34) including first and second terminals (36a, 36b, 38a, 38b) connectable in use to a respective first or second high voltage DC power transmission network (16, 18), and each converter (32, 34) also including a first converter limb (40a, 40b) extending between the first and second terminals (36a, 36b, 38a, 38b) and having first and second limb portions (46a, 46b, 48a, 48b), separated by a third terminal (50a, 50b) of the converter, each limb portion (46a, 46b, 48a, 48b) including at one module switchable to selectively provide a voltage source and thereby vary the magnitude ratio of a DC voltage (V1, V2) across the first and second terminals (36a, 36b, 38a, 38b) of a respective converter (32, 34) and an AC voltage at the third terminal (50a, 50b) of the corresponding converter (32, 34), the DC to DC converter assembly (30, 100, 110, 120, 130) further including a first link electrically connecting the third terminal (50a, 50b) of one converter (32, 34) with the third terminal (50a, 50b) of the other converter (32, 34), wherein the first link does not include a high power transformer, and at least one converter (32, 34) further including a controller configured to switch the first and second limb portions (46a, 46b, 48a, 48b) in the first converter limb (40a, 40b) of the said converter (32, 34) into simultaneous conduction to divert a portion (IDiV1) of current flowing within the said converter away from the first link.
Electric motor unit, comprising: - a housing; - an electronically commutated motor accommodated in the housing; and - a control unit, in order to convert a DC supply voltage applied to the motor unit into phase voltages for driving the electronically commutated motor, wherein the control unit receives information encoded in the DC voltage and drives the electronically commutated motor depending on the information, wherein the motor unit receives the DC supply voltage via connection lines, wherein the control unit modulates the DC supply voltage onto the connection lines by way of a signal whose frequency depends on the rotational speed of the electronically commutated motor. - a housing; - an electronically commutated motor accommodated in the housing; and - a control unit, in order to convert a DC supply voltage applied to the motor unit into phase voltages for driving the electronically commutated motor,
Side panel for a drawer, having an inner wall, an outer wall and a cover element (8, 8', 8", 18, 28) on an upper edge between the inner wall and outer wall, wherein the inner wall and/or the outer wall is or are made of a bent sheet metal, wherein a channel for receiving a base is formed on an inner side of the side panel and means for receiving a front plate and a rear wall are formed in the side panel, characterized in that a magnetic film is fixed to the inner wall and/or the outer wall, the upper edge of which is at least partially covered by the cover element (8, 8', 8", 18, 28), and the cover element (8, 8', 8", 18) is fixed as a separate part to an upper side of the side panel, the cover element (8, 8', 8", 18) having a strip which engages in the side panel and/or the cover element (8, 8', 8", 18) engaging around an upper region of the side panel.
Cover element for a hinge which comprises at least one hinge area to be covered and in which blind-hole-like recesses are formed, comprising a flat base body for covering the outside of the hinge area; and dome-shaped projecting structures for insertion into the blind-hole-like recesses, characterized in that the respective recess and the dome-shaped projecting structure insertable therein can each be circumferentially contacted via elastic O-rings attached to the dome-shaped projecting structures. a flat base body for covering the outside of the hinge area; and dome-shaped projecting structures for insertion into the blind-hole-like recesses, characterized in that the respective recess and the dome-shaped projecting structure insertable therein can each be circumferentially contacted via elastic O-rings attached to the dome-shaped projecting structures.
Device for storing energy, comprising - a storage space comprising an energy storage material; - a number of individual tubes arranged in the energy storage material, wherein the number of tubes is provided with a separate opening; - at least one heat storage element comprising an electric heating element which is arranged in at least one of the tubes for the purpose of heating the energy storage material; and - at least one heat extraction element comprising a heat exchanger which comprises a conduit provided with an inner space, wherein the inner space is configured for throughfeed of a fluid for the purpose of extracting heat from the energy storage material, wherein the at least one heat storage element is removable from the opening of the number of tubes, characterised in that the at least one heat extraction element is arranged in at least one of the tubes, and wherein the at least one heat extraction element is removable from the opening of the at least one tube. - a storage space comprising an energy storage material; - a number of individual tubes arranged in the energy storage material, wherein the number of tubes is provided with a separate opening; - at least one heat storage element comprising an electric heating element which is arranged in at least one of the tubes for the purpose of heating the energy storage material; and - at least one heat extraction element comprising a heat exchanger which comprises a conduit provided with an inner space, wherein the inner space is configured for throughfeed of a fluid for the purpose of extracting heat from the energy storage material, wherein the at least one heat storage element is removable from the opening of the number of tubes, characterised in that the at least one heat extraction element is arranged in at least one of the tubes, and wherein the at least one heat extraction element is removable from the opening of the at least one tube.
A medical apparatus for extracorporeal blood treatment, comprising an antimicrobial surface coating, characterized in that the antimicrobial surface coating is a powder coating comprising additives having antimicrobial effect, wherein the additives are organometallic substances, wherein the additives have an ionizing and photocatalytic effect, so that ions and radicals are generated by the additives which are respectively emitted by the powder coating.
A device (1, 101) suitable for the electrochemical processing of an object, which device is at least provided with a chamber that is to accommodate an electrolyte, means for supporting the object (5, 105) that is to be processed in said chamber; the device further comprising a first, second and third holder respectively comprising at least one set of electrodes (109, 110, 183) extending parallel to each other, and at least one raster pattern comprising a number of nodes with fixed spacings between the nodes in at least two different directions, the two directions extending perpendicular to each other thereby forming a rectangular matrix, whereby each node of the rectangular matrix represents the position of exactly one electrode, and wherein a number of electrodes (109, 110, 183) is arranged on the nodes of the raster pattern, whilst at least one electrode is located at a position shifted with respect to the nearest node of the raster pattern in a plane defined by the two directions; and wherein the first, second and third holder are respectively located in said chamber such that during operation at least one electrode is located opposite each portion of a surface of said object (5, 105) that is to be processed, the device further comprising control means (15, 16) for providing an electric current between the object (5, 105) that is to be processed and the electrodes (109, 183, 110); and wherein the electrodes (109, 110) of the first and second holder (106, 117) extend in different directions; and wherein the planes of the first and second holder are parallel to each other; and wherein the electrodes (109, 110, 183) of the first, second and third holder (106, 117, 182) extend in different directions, whereby planes of the first and second holder (106, 117) are parallel to each other, whilst the electrodes of the third holder extend perpendicular to the planes of the first and second holder (106, 117); and wherein at least one of the electrodes of the third holder crosses the electrodes (109, 110) of the first or second holder (106, 117).
A method for transmitting a small data packet, characterized in that, comprising: Carrying, by Machine-Type Communications User Equipment (MTC UE), a small data packet needed to be sent to a media gateway in a network during a process of creating a bearer; Processing, by the media gateway, the received small data packet, wherein the media gateway is a P-GW in an EPS network, or is a GGSN in a GPRS network; and Sending, by the media gateway, the received small data packet to an MTC server; wherein the carrying, by Machine-Type Communications User Equipment (MTC UE), a small data packet needed to be sent to a media gateway in a network during a process of creating a bearer comprises: including, by the MTC UE, the small data packet needed to be sent into Protocol Configuration Options parameters of an attach request or a bearer create request and sending the small data packet to the media gateway, when the MTC UE initiates the attach request or the bearer create request. Carrying, by Machine-Type Communications User Equipment (MTC UE), a small data packet needed to be sent to a media gateway in a network during a process of creating a bearer; Processing, by the media gateway, the received small data packet, wherein the media gateway is a P-GW in an EPS network, or is a GGSN in a GPRS network; and Sending, by the media gateway, the received small data packet to an MTC server; wherein the carrying, by Machine-Type Communications User Equipment (MTC UE), a small data packet needed to be sent to a media gateway in a network during a process of creating a bearer comprises: including, by the MTC UE, the small data packet needed to be sent into Protocol Configuration Options parameters of an attach request or a bearer create request and sending the small data packet to the media gateway, when the MTC UE initiates the attach request or the bearer create request. including, by the MTC UE, the small data packet needed to be sent into Protocol Configuration Options parameters of an attach request or a bearer create request and sending the small data packet to the media gateway, when the MTC UE initiates the attach request or the bearer create request.
A method of facilitating secure communication management in a hardware accelerator containing a programmable hardware circuitry coupled to an accelerator processor external and connected to the programmable hardware circuitry via a communications bridge, wherein said hardware accelerator further comprises said accelerator processor, the programmable hardware circuitry comprising a data router and a session handler, wherein the method comprising: at the programmable hardware circuitry, receiving one or more data packets representing a Transport Layer Security, TLS, record; examining the TLS record to determine whether the TLS record or a part thereof contains application data related to a user application, wherein examining comprises monitoring, by the data router, a value in a header of the TLS record; in response to determining that the value in the header of the TLS record contains session management data, the data router forwards the TLS record to the accelerator processor via the communications bridge for further processing; and in response to determining that the value in the header of the TLS record indicates that the TLS record contains application data, the data router forwards the TLS record to the session handler for: processing the TLS record to extract the application data according to a security protocol without transmitting the TLS record or a portion thereof to the accelerator processor via the communications bridge, thereby reducing a consumption of communications bandwidth across the communications bridge. at the programmable hardware circuitry, receiving one or more data packets representing a Transport Layer Security, TLS, record; examining the TLS record to determine whether the TLS record or a part thereof contains application data related to a user application, wherein examining comprises monitoring, by the data router, a value in a header of the TLS record; in response to determining that the value in the header of the TLS record contains session management data, the data router forwards the TLS record to the accelerator processor via the communications bridge for further processing; and in response to determining that the value in the header of the TLS record indicates that the TLS record contains application data, the data router forwards the TLS record to the session handler for: processing the TLS record to extract the application data according to a security protocol without transmitting the TLS record or a portion thereof to the accelerator processor via the communications bridge, thereby reducing a consumption of communications bandwidth across the communications bridge.
A damping device configured to attenuate the vibrational energy that is propagated between a first structural body and a second structural body, comprising: a fixed cylinder that is configured to be fixed to the first structural body and formed into a cylindrical shape so as to comprise a hollow portion; a shaft member that is configured to be fixed to the second structural body, the shaft member being housed in the hollow portion of the fixed cylinder and having an outer peripheral surface provided with a helical thread groove; a nut member that is threadedly engaged with the shaft member, and converts an axial motion of the shaft member into a rotational motion; a rotor member that is formed into a cylindrical shape so as to cover the fixed cylinder and to form a cylindrical accommodation chamber between the rotor member and an outer peripheral surface of the fixed cylinder, and is rotated by the nut member; and viscous fluid that is sealed in the cylindrical accommodation chamber.; characterized in that the damping device is free of viscous fluid radially outside of the rotor member. a fixed cylinder that is configured to be fixed to the first structural body and formed into a cylindrical shape so as to comprise a hollow portion; a shaft member that is configured to be fixed to the second structural body, the shaft member being housed in the hollow portion of the fixed cylinder and having an outer peripheral surface provided with a helical thread groove; a nut member that is threadedly engaged with the shaft member, and converts an axial motion of the shaft member into a rotational motion; a rotor member that is formed into a cylindrical shape so as to cover the fixed cylinder and to form a cylindrical accommodation chamber between the rotor member and an outer peripheral surface of the fixed cylinder, and is rotated by the nut member; and viscous fluid that is sealed in the cylindrical accommodation chamber.; characterized in that the damping device is free of viscous fluid radially outside of the rotor member.
A method of wireless communication, comprising: receiving, at a communication device, an interrupt indication indicating an interruption to occur on a first transmission resource; interrupting, based on the interrupt indication, a transmission scheduled to occur using a second transmission resource on a channel, wherein the first transmission resource and the second transmission resource at least partially overlap; transmitting, in case that the interrupted transmission included a control information, the control information, using a third transmission resource; and wherein in case that there is a scheduled transmission of a shared channel in a next slot, then the third transmission resource corresponds to a resource of that scheduled transmission; otherwise, the third transmission resource corresponds to a resource of retransmission of the interrupted transmission that occurs in an immediate next slot after the interruption. receiving, at a communication device, an interrupt indication indicating an interruption to occur on a first transmission resource; interrupting, based on the interrupt indication, a transmission scheduled to occur using a second transmission resource on a channel, wherein the first transmission resource and the second transmission resource at least partially overlap; transmitting, in case that the interrupted transmission included a control information, the control information, using a third transmission resource; and wherein in case that there is a scheduled transmission of a shared channel in a next slot, then the third transmission resource corresponds to a resource of that scheduled transmission; otherwise, the third transmission resource corresponds to a resource of retransmission of the interrupted transmission that occurs in an immediate next slot after the interruption.
Wedging system for transmitting loads from a formwork to the land, wherein, in the transmission of vertical loads to the surrounding earth, the system comprises: - a supporting member, - a threaded bar for transmitting vertical load, - a nut - a base, which in turn comprises a plate having a perforation, characterised in that the bar for transmitting vertical load is fixed to the supporting member, the supporting member being affixed to a side wall of the formwork, and transmitting the loads generated in the formwork to the land, thereby preventing the relative movement between the base and the supporting member by inserting the bar for transmitting vertical load into the perforation in the plate of the base and by screwing the nut into the upper end of the bar for transmitting vertical load. - a supporting member, - a threaded bar for transmitting vertical load, - a nut - a base, which in turn comprises a plate having a perforation,
A rolling bearing of a wind energy installation, wherein the wind energy installation comprises a rotor shaft which is supported via the rolling bearing and which is driven by a wind rotor, wherein the rolling bearing comprises a rotor which is connected to the rotor shaft of the wind energy installation, wherein the rolling bearing comprises a stator, wherein a device for introducing lubricating grease is accommodated in the stator, wherein the rolling bearing further comprises a plurality of rolling bodies (50, 51) which are arranged between the stator and the rotor, wherein the device for introducing lubricating grease has an outlet opening for lubricating grease which is oriented against a raceway (41, 41') of the stator or of the rotor or a running surface of at least one of the rolling bodies (50, 51).
A tube for use in a stent comprising a polymeric material having a wall thickness that is from 75 microns to 150 microns, optionally wherein the tube has a tensile modulus from 2,500 to 6,000 MPa and a tensile yield strength from 90 to 600 MPa, wherein the polymeric material is oriented in the axial and radial directions of the tube, characterised in that, the tubing has been subjected to orientation by die drawing with a mandrel and/or a die.
Vehicle heating device, comprising a combustion chamber assembly with a combustion chamber housing, said combustion chamber housing comprising a circumferential wall and a bottom wall and in the circumferential wall or bottom wall at least one receiving recess for an ignition element, said ignition element being supported with a support area in the receiving recess in such a way that a passage (70, 72, 74) for air to be inserted into said combustion chamber housing is formed between a surface of said combustion chamber housing, which defines the receiving recess, and the support area, characterized by said support area being in point-type or line-type support contact with the surface at several subsequent contact areas (64, 66, 68) and by said passage (70, 72, 74) comprising passage channels (70, 72, 74) formed between said subsequent contact areas (64, 66, 68) in the circumferential direction.
A process for manufacturing a haloaryl compound wherein the haloaryl compound complies with formula: X-Ar wherein X is halogen selected from fluorine, chlorine, bromine and iodine and Ar is an aryl moiety of formula: wherein R represents one or more of the groups independently selected from: hydrogen, halogen, alkyl, aryl, ether, thioether, carboxylic acid, amine and quaternary ammonium the process comprising: a) contacting with sulfuric acid a mixture of dihaloarylsulfone isomers of the formula: X-[Ar'-SO 2 -Ar"]-[Ar'''] n -[Ar'-SO 2 -Ar"] m -X' wherein: n and m are independently 0, 1, 2, 3 or 4 X and X', equal to or different from one another, are independently halogen as defined above, and Ar', Ar" and Ar''', which may be the same or different from one another, represent an aryl moiety of formula: wherein R is as defined above to provide a mixture of haloaryl sulfonic acid isomers of the formula: X-Ar-SO 3 H wherein X and Ar are as defined in compound and b) reacting mixture in the presence of water. a) contacting with sulfuric acid a mixture of dihaloarylsulfone isomers of the formula: X-[Ar'-SO 2 -Ar"]-[Ar'''] n -[Ar'-SO 2 -Ar"] m -X' wherein: n and m are independently 0, 1, 2, 3 or 4 X and X', equal to or different from one another, are independently halogen as defined above, and Ar', Ar" and Ar''', which may be the same or different from one another, represent an aryl moiety of formula: wherein R is as defined above to provide a mixture of haloaryl sulfonic acid isomers of the formula: X-Ar-SO 3 H wherein X and Ar are as defined in compound and n and m are independently 0, 1, 2, 3 or 4 X and X', equal to or different from one another, are independently halogen as defined above, and Ar', Ar" and Ar''', which may be the same or different from one another, represent an aryl moiety of formula: b) reacting mixture in the presence of water.