mhurhangee/ep-ind-claims huggingface dataset:
A radiographic imaging apparatus comprising: a leg unit (10, 410) that includes three or more wheel units (13, 90) and is capable of traveling on an apparatus-placement surface by using wheels; a body unit (30, 530, 630) that is held on the leg unit; a radiation source support unit (50, 420) that is connected to the body unit (30, 530, 630); a radiation source (70, 470, 570) that is mounted on the radiation source support unit; a battery 36) that is received in the body unit and drives the radiation source; and a circuit that is received in the body unit and relates to the drive of the radiation source, wherein each wheel (13, 90) unit is formed of a revolving caster or of an omnidirectionally moving wheel, characterized in that the body unit (30, 530, 630) is adapted to be rotatable relative to the leg unit (10, 410) about a rotation axis extending in a vertical direction, the radiation source support unit (50, 420) protrudes from the body unit in one horizontal direction, and the body unit (30, 530, 630) is formed in a shape where a length of the body unit in a direction parallel to the horizontal direction is shorter than a length of the body unit (30, 530, 630) in a direction perpendicular to the horizontal direction in a plan view state. a leg unit (10, 410) that includes three or more wheel units (13, 90) and is capable of traveling on an apparatus-placement surface by using wheels; a body unit (30, 530, 630) that is held on the leg unit; a radiation source support unit (50, 420) that is connected to the body unit (30, 530, 630); a radiation source (70, 470, 570) that is mounted on the radiation source support unit; a battery 36) that is received in the body unit and drives the radiation source; and a circuit that is received in the body unit and relates to the drive of the radiation source, wherein each wheel (13, 90) unit is formed of a revolving caster or of an omnidirectionally moving wheel, characterized in that the body unit (30, 530, 630) is adapted to be rotatable relative to the leg unit (10, 410) about a rotation axis extending in a vertical direction, the radiation source support unit (50, 420) protrudes from the body unit in one horizontal direction, and the body unit (30, 530, 630) is formed in a shape where a length of the body unit in a direction parallel to the horizontal direction is shorter than a length of the body unit (30, 530, 630) in a direction perpendicular to the horizontal direction in a plan view state.
Glass wool having the following glass composition: SiO 2: 60.0wt% to 65.0 wt%, Al 2 O 3: 0.5wt% to 2.0wt%, Na 2 O and K 2 O: 13.0wt% to 16.0wt%, MgO and CaO: 8.0wt% to 12.0wt%, B 2 O 3: 5.0wt% to 12.0wt%, and other components selected from S 2 O 3, Fe 2 O 3, MnO, BaO, TiO 2, SrO, PbO, Cr 2 O 3, ZnO, Rb 2 O and Cs 2 O: balance. SiO 2: 60.0wt% to 65.0 wt%, Al 2 O 3: 0.5wt% to 2.0wt%, Na 2 O and K 2 O: 13.0wt% to 16.0wt%, MgO and CaO: 8.0wt% to 12.0wt%, B 2 O 3: 5.0wt% to 12.0wt%, and other components selected from S 2 O 3, Fe 2 O 3, MnO, BaO, TiO 2, SrO, PbO, Cr 2 O 3, ZnO, Rb 2 O and Cs 2 O: balance.
Dockee device for wireless docking to a host device, for coupling to at least one peripheral (110,111,112), the dockee device comprising - a dockee communication unit for accommodating wireless communication, and - a dockee processor arranged for wireless docking to the host device for getting access to at least one actual peripheral, characterized in that the dockee processor is arranged for - providing at least one virtual peripheral device in a virtual docking environment, the virtual docking environment being a data structure defining one or more virtual peripherals and the virtual peripheral being a data structure defining a peripheral device by a device type and properties corresponding to an actual device that may become available in an actual docking system, the data structures being stored before docking in a memory of the dockee device, the virtual peripheral device having a peripheral privacy level configured by assigning a privacy level to the virtual peripheral, the privacy level defining a level of confidentiality of data that may be handled by a peripheral according to the dockee, - when docking, mapping the at least one virtual peripheral device on the at least one peripheral, the mapping comprising assigning the peripheral privacy level to the at least one peripheral, and - when docked, controlling data transfer with the at least one peripheral according to the peripheral privacy level. - a dockee communication unit for accommodating wireless communication, and - a dockee processor arranged for wireless docking to the host device for getting access to at least one actual peripheral, - providing at least one virtual peripheral device in a virtual docking environment, the virtual docking environment being a data structure defining one or more virtual peripherals and the virtual peripheral being a data structure defining a peripheral device by a device type and properties corresponding to an actual device that may become available in an actual docking system, the data structures being stored before docking in a memory of the dockee device, - when docking, mapping the at least one virtual peripheral device on the at least one peripheral, the mapping comprising assigning the peripheral privacy level to the at least one peripheral, and - when docked, controlling data transfer with the at least one peripheral according to the peripheral privacy level.
Motor vehicle door closure with a locking mechanism, also with a release lever for opening the locking mechanism, and with a locking lever which is swivellable about an axis and which inactivates the locking mechanism at least in the event of occurring deceleration forces of defined magnitude and direction, for example in an accident ("crash case"), wherein - the locking lever is connected in an articulated manner to an operating lever acting on the release lever, wherein both levers (2, 5) together in normal operation describe a predetermined normal operating path (R 1) without mechanical blocking and in crash operation describe a crash operating path (R 2) deviating from the normal operating path (R 1) with simultaneous mechanical blocking, wherein additionally - the two levers (2, 5) are connected to each other by a spring (9, 10, 11) and wherein the spring (9, 10, 11) together with two stops (12, 14) holds the two levers (2, 5) in an elastically yielding manner with regard to each other at a knee lever angle (α) corresponding to normal operation and wherein - the knee lever angle (α) is increased during a forced movement at the end of the normal operating path and also undergoes comparable enlargement in the event of a crash so that - during every normal operation the locking lever completes a comparable movement as in the event of a crash, characterised in that - one stop is designed as a continuation of the operating lever and the other stop as a continuation of the locking lever, - wherein both stops (12, 14) enclose the knee lever angle (α) between them. - the locking lever is connected in an articulated manner to an operating lever acting on the release lever, wherein both levers (2, 5) together in normal operation describe a predetermined normal operating path (R 1) without mechanical blocking and in crash operation describe a crash operating path (R 2) deviating from the normal operating path (R 1) with simultaneous mechanical blocking, wherein additionally - the two levers (2, 5) are connected to each other by a spring (9, 10, 11) and wherein the spring (9, 10, 11) together with two stops (12, 14) holds the two levers (2, 5) in an elastically yielding manner with regard to each other at a knee lever angle (α) corresponding to normal operation and wherein - the knee lever angle (α) is increased during a forced movement at the end of the normal operating path and also undergoes comparable enlargement in the event of a crash so that - during every normal operation the locking lever completes a comparable movement as in the event of a crash, - one stop is designed as a continuation of the operating lever and the other stop as a continuation of the locking lever, - wherein both stops (12, 14) enclose the knee lever angle (α) between them.
A method of producing a group-III nitride crystal, the method comprising: forming the first group-III nitride crystal by a flux method in which nitrogen source gas is supplied into a melt mixture containing an alkali metal and a group-III metal, wherein the forming includes forming the first group-III nitride crystal from a seed crystal or wherein the forming includes self-nucleation growth to form a crystal in a columnar shape or in a plate shape, and wherein the first group-III nitride crystal has a dislocation density which is equal to or smaller than 10 5 m -2; and growing a second group-III nitride crystal by vapor phase epitaxy on a first group-III nitride crystal that is formed by a flux method. forming the first group-III nitride crystal by a flux method in which nitrogen source gas is supplied into a melt mixture containing an alkali metal and a group-III metal, wherein the forming includes forming the first group-III nitride crystal from a seed crystal or wherein the forming includes self-nucleation growth to form a crystal in a columnar shape or in a plate shape, and wherein the first group-III nitride crystal has a dislocation density which is equal to or smaller than 10 5 m -2; and growing a second group-III nitride crystal by vapor phase epitaxy on a first group-III nitride crystal that is formed by a flux method.
An oil-in-water type organopolysiloxane emulsion comprising the following components: 100 parts by weight of a diorganopolysiloxane having a viscosity of 10 to 50,000 mPa·s at 25°C, in which at least 90 mol%, of the groups bonded to silicon atoms in the component is methyl groups, 0.5 to 30 parts by weight of a cationic surfactant, 0.1 to 10 parts by weight of a nonionic surfactant, and 11 to 550 parts by weight of water, and 0.1 to 20 parts by weight of ethanol, relative to 100 parts by weight of the component; wherein a content of the component is equal to or less than a content of the component, and an average particle diameter (measured by dynamic light scattering method) of the component in the emulsion is 600 nm or less, and respective contents of octamethylcyclotetrasiloxane and decamethylcyclopentasiloxane are 0.5% or less by weight in the emulsion. 100 parts by weight of a diorganopolysiloxane having a viscosity of 10 to 50,000 mPa·s at 25°C, in which at least 90 mol%, of the groups bonded to silicon atoms in the component is methyl groups, 0.5 to 30 parts by weight of a cationic surfactant, 0.1 to 10 parts by weight of a nonionic surfactant, and 11 to 550 parts by weight of water, and 0.1 to 20 parts by weight of ethanol, relative to 100 parts by weight of the component;
Composite material combining: - a precious metal or an alloy containing a precious metal; - and a boron-based ceramic with a melting point greater than that of said precious metal and a density at most equal to 4 g/cm 3, the ceramic forming a continuous, interconnected phase in which the precious metal is infiltrated. - a precious metal or an alloy containing a precious metal; - and a boron-based ceramic with a melting point greater than that of said precious metal and a density at most equal to 4 g/cm 3, the ceramic forming a continuous, interconnected phase in which the precious metal is infiltrated.
A dynamically reconfigurable multivibrator element comprising: an input block coupled to a nonlinear chaotic system with a control input that adjust parameters in order to change a desirable multivibrator configuration and coupled to an output block; characterized in that the adjustment of the parameters allows to get the three different multivibrator configurations, astable, bistable and monostable; and wherein the nonlinear chaotic system is a Piecewise-linear chaotic system.
Electronic sensor unit for detecting the contact-free actuation of a door or hatch on a motor vehicle, wherein the sensor unit has a housing in which a control and evaluation unit is arranged and wherein a sensor electrode is coupled to the control and evaluation unit in order to detect a capacitance change of the sensor electrode on actuation by a user, wherein a connection socket with contacts is arranged on the housing in order to connect the sensor unit and the control and evaluation unit arranged therein to a cable harness of a vehicle, characterized in that the sensor unit has a plug connector, which can be coupled with the connection socket and which comprises both supply cables for connecting the sensor unit to the cable harness as well as the flexible sensor electrode, which is implemented as a flexible sensor electrode, so that both the sensor electrode and the cable harness can be coupled to the control and evaluation unit by means of the same plug connector.
A variant of a parent lipase, which variant comprises substitutions at the positions corresponding to E1C and N233C of the mature polypeptide shown as the amino acids numbered 1 to 269 of SEQ ID NO: 2, has lipase activity, and has at least 80% but less than 100% sequence identity to the mature polypeptide of the parent lipase shown as the amino acids numbered 1 to 269 of SEQ ID NO: 2, wherein the variant has improved stability relative to the parent lipase.
A method comprising: receiving, at one or more processing devices of a headset that includes a sidetone generation circuit, an input signal representing ambient audio; determining, by the one or more processing devices of the headset associated with a voice activity detection circuit, VAD,, that at least a portion of the input signal represents voice activity that satisfies a threshold condition; responsive to determining that the voice activity in the input signal satisfies the threshold condition, generating, by the VAD, a control signal configured to cause the sidetone generation circuit to generate sidetone signals; and generating, by an acoustic transducer of the headset, an audio signal that represents, at least in part, the sidetone signals generated in accordance with the control signal. receiving, at one or more processing devices of a headset that includes a sidetone generation circuit, an input signal representing ambient audio; determining, by the one or more processing devices of the headset associated with a voice activity detection circuit, VAD,, that at least a portion of the input signal represents voice activity that satisfies a threshold condition; responsive to determining that the voice activity in the input signal satisfies the threshold condition, generating, by the VAD, a control signal configured to cause the sidetone generation circuit to generate sidetone signals; and generating, by an acoustic transducer of the headset, an audio signal that represents, at least in part, the sidetone signals generated in accordance with the control signal.
Safety-related switching device having a magnetic coil, a control unit and a first switching means, wherein the first switching means is designed to activate and deactivate the magnetic coil, and to receive a coil control signal, a monitoring signal and a first higher-level control signal, wherein the safety-related switching device has a receiver unit for receiving an external control signal, the receiver unit is designed to generate the first higher-level control signal and a second higher-level control signal from the external control signal, wherein for the purpose of transferring the first higher-level control signal from the receiver unit to the first switching means, the receiver unit and the first switching means are directly connected together, and the control unit is designed to receive the second higher-level control signal and to initiate a sending of the coil control signal on the basis of the received second higher-level control signal. wherein the first switching means is designed to activate and deactivate the magnetic coil, and to receive a coil control signal, a monitoring signal and a first higher-level control signal, wherein the safety-related switching device has a receiver unit for receiving an external control signal, the receiver unit is designed to generate the first higher-level control signal and a second higher-level control signal from the external control signal, wherein for the purpose of transferring the first higher-level control signal from the receiver unit to the first switching means, the receiver unit and the first switching means are directly connected together, and the control unit is designed to receive the second higher-level control signal and to initiate a sending of the coil control signal on the basis of the received second higher-level control signal.
A method comprising: reading data regarding hydrocarbon production for a particular well of a plurality of hydrocarbon producing wells of a hydrocarbon producing field from a measurement device associated with the particular well and measuring at least one parameter associated with hydrocarbon flow; displaying, on a display device, an interface mechanism that, responsive to interaction by a user, changes at least one datum of the well data creating an adjusted datum; producing a plurality of values indicative of future hydrocarbon production based on a data model and the data regarding hydrocarbon production, wherein each value is associated with a different confidence interval, and the predicting is based on the data model, well data and the adjusted datum; displaying, on a display device of a computer system (200,800), an indication of historic data regarding hydrocarbon production; and displaying, on the display device, an indication of the plurality of values associated with different confidence intervals and indicative of future hydrocarbon production. reading data regarding hydrocarbon production for a particular well of a plurality of hydrocarbon producing wells of a hydrocarbon producing field from a measurement device associated with the particular well and measuring at least one parameter associated with hydrocarbon flow; displaying, on a display device, an interface mechanism that, responsive to interaction by a user, changes at least one datum of the well data creating an adjusted datum; producing a plurality of values indicative of future hydrocarbon production based on a data model and the data regarding hydrocarbon production, wherein each value is associated with a different confidence interval, and the predicting is based on the data model, well data and the adjusted datum; displaying, on a display device of a computer system (200,800), an indication of historic data regarding hydrocarbon production; and displaying, on the display device, an indication of the plurality of values associated with different confidence intervals and indicative of future hydrocarbon production.
A method performed by a wireless communication device (103, 203), wherein the wireless communication device (103, 203) is configured to connect to a first cell of a first public land mobile network, PLMN, applying a first radio access technology,RAT, the method comprising, when the wireless communication device has connected to and is camping on the first cell: detecting a second cell of a second PLMN applying a second RAT; determining whether a network relation exists between the first cell and the second cell, wherein said determining comprises reading first and second system information,SI, respectively associated with the first and second cells and comprising information indicative of a relationship between the first PLMN and the second PLMN, wherein the relationship implies that a network connection exists between the first cell and the second cell; performing a connection set up to the first cell if it is determined that a network relation exists between the first cell and the second cell; and performing a connection set up to the second cell if it is determined that there does not exist a network relation between the first cell and the second cell. detecting a second cell of a second PLMN applying a second RAT; determining whether a network relation exists between the first cell and the second cell, wherein said determining comprises reading first and second system information,SI, respectively associated with the first and second cells and comprising information indicative of a relationship between the first PLMN and the second PLMN, wherein the relationship implies that a network connection exists between the first cell and the second cell; performing a connection set up to the first cell if it is determined that a network relation exists between the first cell and the second cell; and performing a connection set up to the second cell if it is determined that there does not exist a network relation between the first cell and the second cell.
A sound reproducing, noise reducing system comprising: a helmet comprising an outer shell; two loudspeakers (108, 109) disposed in the helmet at opposing positions; two microphones (110, 111) disposed at positions in the vicinity of the two loudspeakers (108, 109); two active noise control modules (207, 208) coupled to the two loudspeakers (108, 109), the active noise control modules (207, 208) being configured to supply to the corresponding loudspeaker (108, 109) a useful signal that represents sound to be reproduced and an anti-noise signal that, when reproduced by the corresponding loudspeaker (108, 109), reduces noise in the vicinity of the corresponding loudspeaker (108, 109); and an audio signal enhancement module connected upstream of the active noise control modules (207, 208), the audio signal enhancement module being configured to receive audio input signals and to process the audio input signals to provide the useful signals with at least one of a stereo widening functionality, a sound staging functionality, two-dimensional-audio, and three-dimensional audio, wherein the loudspeakers (108, 109) are disposed in ear-cups (105, 106), the ear-cups (105, 106) are isolated from the shell via an isolation mount, and the isolation mount is made from vibration damping material. a helmet comprising an outer shell; two loudspeakers (108, 109) disposed in the helmet at opposing positions; two microphones (110, 111) disposed at positions in the vicinity of the two loudspeakers (108, 109); two active noise control modules (207, 208) coupled to the two loudspeakers (108, 109), the active noise control modules (207, 208) being configured to supply to the corresponding loudspeaker (108, 109) a useful signal that represents sound to be reproduced and an anti-noise signal that, when reproduced by the corresponding loudspeaker (108, 109), reduces noise in the vicinity of the corresponding loudspeaker (108, 109); and an audio signal enhancement module connected upstream of the active noise control modules (207, 208), the audio signal enhancement module being configured to receive audio input signals and to process the audio input signals to provide the useful signals with at least one of a stereo widening functionality, a sound staging functionality, two-dimensional-audio, and three-dimensional audio, wherein the loudspeakers (108, 109) are disposed in ear-cups (105, 106), the ear-cups (105, 106) are isolated from the shell via an isolation mount, and the isolation mount is made from vibration damping material.