mhurhangee/ep-ind-claims huggingface dataset:
Multichannel fluid connection for a motor vehicle comprising a body having at least two nozzles (31, 32, 33, 34) for connection to fluid conduits, and at least one opening suitable for authorizing a passage of a fixing means for fixing said fluid connection on a support element, characterized in that said fluid connection further comprises an indexing means of said fluid connection relative to a mechanical mounting plate by cooperation between an indexing pad and a corresponding pilot hole, in that said fluid connection comprises at least two tabs coming from said body, each tab comprising an indexing means and an opening for the passage of a fixing means, and in that said indexing means consists of a pilot hole made in an extra thickness located on said tab.
A portable terminal comprising: a touchpad (110, 210, 310) including a sensor unit (115, 215, 315), wherein the sensor unit (115, 215, 315) is adapted for generating an interrupt signal upon sensing pressure on the touchpad (110, 210, 310); wherein the touchpad (110, 210, 310) includes a small flat panel to which a pressure sensor is attached; a second control unit (130, 230, 320) adapted, in an active mode, for controlling the touchpad (110, 210, 310); and a first control unit (150, 250, 340) adapted for controlling an overall operation of the portable terminal and adapted for outputting an activating signal to activate the second control unit (130, 230, 320) when the interrupt signal is received, wherein, if the activating signal is received from the first control unit (150, 250, 340) while the second control unit (130, 230, 320) is in an inactive mode, the second control unit (130, 230, 320) is adapted to convert from the inactive mode to the active mode, and to process signals input through the touchpad (110, 210, 310) a touchpad (110, 210, 310) including a sensor unit (115, 215, 315), wherein the sensor unit (115, 215, 315) is adapted for generating an interrupt signal upon sensing pressure on the touchpad (110, 210, 310); wherein the touchpad (110, 210, 310) includes a small flat panel to which a pressure sensor is attached; a second control unit (130, 230, 320) adapted, in an active mode, for controlling the touchpad (110, 210, 310); and a first control unit (150, 250, 340) adapted for controlling an overall operation of the portable terminal and adapted for outputting an activating signal to activate the second control unit (130, 230, 320) when the interrupt signal is received, wherein, if the activating signal is received from the first control unit (150, 250, 340) while the second control unit (130, 230, 320) is in an inactive mode, the second control unit (130, 230, 320) is adapted to convert from the inactive mode to the active mode, and to process signals input through the touchpad (110, 210, 310)
Electric protective switching device configured as a modular system, in particular motor starter of an electric motor or electric contactor, comprising a switching device base module, - a control module including control electronics, - and a communication module, which is configured as an interface between the control electronics and an electronic bus system, wherein the control module and the communication module are connectable mechanically and electrically to the switching device base module, wherein first mechanical guide elements are configured on the switching device base module, into which the communication module can be slid by means of corresponding mechanical elements, and an installation space with electric contacts is configured in the switching device base module in which the control module can be installed, and electric counter contacts on the control module are configured for contacting with the switching device base module and electric counter contacts for contacting with the communication module, characterised in that the first mechanical guide elements on the switching device base module, associated mechanical elements on the control module and the associated mechanical elements on the communication module are configured in such a way that an electric contacting between the communication module and the control module is only established when, in the plugging sequence, the communication module is first mechanically connected to the switching device base module, and then the control module is plugged onto the switching device base module and onto the communication module. - a control module including control electronics, - and a communication module, which is configured as an interface between the control electronics and an electronic bus system,
Optical phase modulating method of a MIOC (Multi Integrated Optical Circuit) of an interferometer type I-FOG fiber optic gyroscope with closed loop feedback control with digital modulation and demodulation approach comprising the step of modulating at 8 levels wherein each modulation level has a duration of one quarter of the light propagation time τ in a sensitive element consisting of a fiber optic coil.
A composition for use in the treatment of a fungal, mycotic, viral and/or bacterial infection, wherein the infection is paronychia, the composition comprising: (a) povidone iodine (PVP-I); and (b) 30 to 99.99 % by weight dimethylsulfoxide (DMSO) with respect to the total composition. (a) povidone iodine (PVP-I); and (b) 30 to 99.99 % by weight dimethylsulfoxide (DMSO) with respect to the total composition.
A variable vane pack comprising: an inner platform; an outer platform, radially outward of said inner platform; and a plurality of vanes connecting said inner platform to said outer platform, wherein the outer platform comprises a platform body and an impingement baffle, the impingement baffle having a radially inward impingement plate, a radially outward pressure distribution plate, and an impingement plenum defined between said radially inward impingement plate and said radially outward pressure distribution plate, the platform body being radially inward of and spaced apart from said impingement plate an inner platform; an outer platform, radially outward of said inner platform; and a plurality of vanes connecting said inner platform to said outer platform, wherein the outer platform comprises a platform body and an impingement baffle, the impingement baffle having a radially inward impingement plate, a radially outward pressure distribution plate, and an impingement plenum defined between said radially inward impingement plate and said radially outward pressure distribution plate, the platform body being radially inward of and spaced apart from said impingement plate
A cooking device comprising an open-top, box shaped lower casing, having a base and more than one side wall surrounding the base, a cooktop disposed on the lower casing and whereon burners providing heating and/or cooking are disposed, a skirt extending outwards from the upper side of the side wall in parallel direction to the base, a flange extending from the side of the cooktop towards under the skirt, more than one tap providing the delivery of gas to be burned to the cooktop burners in the amount determined by the user and a gas pipe providing the delivery of gas to be burned from the mains to the taps, further having a connection member having - a first arm seated on the base, - a second arm connected to the first arm, extending in perpendicular direction to the first arm, whereon the taps are fixed such that the gas pipe remains between the taps and itself, - an extension extending from the second arm towards over the skirt, providing fixing on the skirt by being seated on the skirt, - at least one guide integrated with the extension, extending from the extension towards between the skirt and the flange by crossing over the skirt, wherein the cooktop bears on the guide and wherein the guide prevents movements of the cooktop in parallel direction to the base. - a first arm seated on the base, - a second arm connected to the first arm, extending in perpendicular direction to the first arm, whereon the taps are fixed such that the gas pipe remains between the taps and itself, - an extension extending from the second arm towards over the skirt, providing fixing on the skirt by being seated on the skirt, - at least one guide integrated with the extension, extending from the extension towards between the skirt and the flange by crossing over the skirt, wherein the cooktop bears on the guide and wherein the guide prevents movements of the cooktop in parallel direction to the base.
A variable data digital lithography system comprising an inking subsystem, wherein the inking subsystem comprises: a first ink roller, disposed to receive ink on a surface thereof, said ink being provided from an ink reservoir, such that it provides ink to a reimageable surface of said variable data digital lithography system; and a heating apparatus, wherein said heating apparatus is disposed within and forms a portion of said surface of said first ink roller to provide heating of said first ink roller at the point of application of said ink by said first ink roller to said reimageable surface a first ink roller, disposed to receive ink on a surface thereof, said ink being provided from an ink reservoir, such that it provides ink to a reimageable surface of said variable data digital lithography system; and a heating apparatus, wherein said heating apparatus is disposed within and forms a portion of said surface of said first ink roller to provide heating of said first ink roller at the point of application of said ink by said first ink roller to said reimageable surface
A security negotiation method in 5th generation network, the method comprising: selecting (S 113), by a control plane of a centralized unit, CU-CP, a target user plane of the centralized unit, CU-UP; sending, by the CU-CP, a security instruction to the target CU-UP; sending, by the target CU-UP, a security response to the CU-CP, where the security response carries an integrity protection indication identifier from the CU-UP, to indicate whether the CU-UP enables integrity protection; sending, by the by the CU-CP, security negotiation information to a terminal; receiving, by the terminal, security negotiation information from the CU-CP, wherein the security negotiation information comprises the integrity protection indication identifier from the CU-UP; and determining, by the terminal based on the integrity protection indication identifier from the CU-UP, whether to enable user-plane integrity protection of the terminal. selecting (S 113), by a control plane of a centralized unit, CU-CP, a target user plane of the centralized unit, CU-UP; sending, by the CU-CP, a security instruction to the target CU-UP; sending, by the target CU-UP, a security response to the CU-CP, where the security response carries an integrity protection indication identifier from the CU-UP, to indicate whether the CU-UP enables integrity protection; sending, by the by the CU-CP, security negotiation information to a terminal; receiving, by the terminal, security negotiation information from the CU-CP, wherein the security negotiation information comprises the integrity protection indication identifier from the CU-UP; and determining, by the terminal based on the integrity protection indication identifier from the CU-UP, whether to enable user-plane integrity protection of the terminal.
A method for conserving power in a computing device having at least one processor, comprising: setting a flag bit associated with a resource, wherein the resource is one of a plurality of resources used by a processor; identifying the resources that may be placed in a low power mode based upon flag bit settings; registering a latency requirement for each of the identified resources; selecting a shortest latency requirement from the registered latency requirements; evaluating on the computing device low power modes for each resource that may be placed in a low power mode to eliminate any low power resource mode, or any combination of low power resource modes, that have a combined latency requirement that exceeds the selected shortest latency requirement; selecting a combination of low power resource modes that maximizes potential power savings and has a total latency requirement that is less than or equal to the selected shortest latency requirement; and entering the selected combination of low power resource modes by executing an enter function of each of the selected low power modes on each of the identified resources; characterised in that the step of setting the flag bit associated with a resource is performed when the resource is not in use and the step of identifying the resources that may be placed in a low power mode based upon flag bit settings is performed when the processor is able to enter an idle state. setting a flag bit associated with a resource, wherein the resource is one of a plurality of resources used by a processor; identifying the resources that may be placed in a low power mode based upon flag bit settings; registering a latency requirement for each of the identified resources; selecting a shortest latency requirement from the registered latency requirements; evaluating on the computing device low power modes for each resource that may be placed in a low power mode to eliminate any low power resource mode, or any combination of low power resource modes, that have a combined latency requirement that exceeds the selected shortest latency requirement; selecting a combination of low power resource modes that maximizes potential power savings and has a total latency requirement that is less than or equal to the selected shortest latency requirement; and entering the selected combination of low power resource modes by executing an enter function of each of the selected low power modes on each of the identified resources; characterised in that the step of setting the flag bit associated with a resource is performed when the resource is not in use and the step of identifying the resources that may be placed in a low power mode based upon flag bit settings is performed when the processor is able to enter an idle state.
A method performed by a device capable of device-to-device, D2D, communications for discovery of other D2D capable devices [1,2,3] in a network of D2D capable devices [1,2,3], the method comprising: at least one of transmitting or receiving information in a network in accordance with a dedicated pattern of transmission, Tx, and reception, Rx, phases allocated from a predetermined set of at least two different Tx/Rx patterns, wherein the at least two different Tx/Rx patterns comprise information relating to the devices for the communication of information between the devices, wherein the dedicated pattern of transmission Tx and reception Rx phases is configured to use predetermined discovery resources. at least one of transmitting or receiving information in a network in accordance with a dedicated pattern of transmission, Tx, and reception, Rx, phases allocated from a predetermined set of at least two different Tx/Rx patterns, wherein the at least two different Tx/Rx patterns comprise information relating to the devices for the communication of information between the devices, wherein the dedicated pattern of transmission Tx and reception Rx phases is configured to use predetermined discovery resources.
A suspension arrangement for an axle aggregate mounted to a frame of a commercial vehicle, particularly a multi-axle aggregate of an off-road commercial vehicle, comprising at least a first stabilizing bar of a first wheel axle and a second stabilizing bar of a second wheel axle, wherein each stabilizing bar (60a,60b) has a torsion section extending from one side of the frame to the opposite side of the frame and end sections (62a,62b) arranged crosswise at each side of the torsion section, wherein the first and second stabilizer bars (60a,60b) are arranged in transverse direction relative to the frame with their torsion sections, and wherein each end section (62a,62b) of each stabilizer bar (60a, 60b) is connected to the respective wheel axle (10a, 10b) with a connecting element, characterized in that the at least the first and second stabilizer bars (60a, 60b) are pivotally attached to a lever unit, wherein the lever unit has at least one pivot joint (52, 52a, 52b) with a pivot axis along the transverse direction relative to the frame.
A liquid crystal composition having a positive dielectric anisotropy comprising: a dielectrically positive component containing a dielectrically positive compound represented by Formula and at least one compound selected from the group consisting of compounds represented by Formulae (4.1), (4.2), (15.1), (15.2), and (15.3) and a dielectrically neutral component having a dielectric anisotropy of greater than -2 and less than +2 and containing at least one dielectrically neutral compound represented by Formula (2.1), compounds represented by Formulae (3.1) and (5.4), and at least one dielectrically neutral compound selected from the group consisting of compounds represented by Formulae (8.1) to (8.4), (9.1) to (9.5), (12.1), (12.2), and (17.2), wherein the amount of the compound represented by Formula (3.1) is 25 mass% or more. a dielectrically positive component containing a dielectrically positive compound represented by Formula and at least one compound selected from the group consisting of compounds represented by Formulae (4.1), (4.2), (15.1), (15.2), and (15.3) and a dielectrically neutral component having a dielectric anisotropy of greater than -2 and less than +2 and containing at least one dielectrically neutral compound represented by Formula (2.1), compounds represented by Formulae (3.1) and (5.4), and at least one dielectrically neutral compound selected from the group consisting of compounds represented by Formulae (8.1) to (8.4), (9.1) to (9.5), (12.1), (12.2), and (17.2), wherein the amount of the compound represented by Formula (3.1) is 25 mass% or more.
A method of automatically altering functionality of a wireless device in response to occurrence of a condition, the method comprising: receiving a link command that specifies the condition and the functionality of the wireless device to be altered; authenticating the link command on the wireless device to verify that the link command is received from a trusted source; determining, after receipt and authentication of the link command, whether a device software module of a plurality of device software modules installed on the wireless device is capable of altering the functionality of the wireless device; installing, responsive to a determination that a device software module of the plurality of device software modules is installed on the wireless device that is capable of altering the functionality of the wireless device, a software trap on the wireless device, the software trap being configured to transfer control to a device software module that is capable of altering the functionality of the wireless device; linking, on the wireless device, an identifier of the software trap to an identity of the device software module which is determined to be installed on the wireless device that is capable of altering the functionality of the wireless device; detecting, on the wireless device and subsequent to the acts of installing and linking, the occurrence of the condition; and executing the software trap on the wireless device in response to the act of detecting to automatically alter the functionality of the wireless device without any input from a user of the wireless device. receiving a link command that specifies the condition and the functionality of the wireless device to be altered; authenticating the link command on the wireless device to verify that the link command is received from a trusted source; determining, after receipt and authentication of the link command, whether a device software module of a plurality of device software modules installed on the wireless device is capable of altering the functionality of the wireless device; installing, responsive to a determination that a device software module of the plurality of device software modules is installed on the wireless device that is capable of altering the functionality of the wireless device, a software trap on the wireless device, the software trap being configured to transfer control to a device software module that is capable of altering the functionality of the wireless device; linking, on the wireless device, an identifier of the software trap to an identity of the device software module which is determined to be installed on the wireless device that is capable of altering the functionality of the wireless device; detecting, on the wireless device and subsequent to the acts of installing and linking, the occurrence of the condition; and executing the software trap on the wireless device in response to the act of detecting to automatically alter the functionality of the wireless device without any input from a user of the wireless device.
A flow cytometer, comprising: - a particle flow path; - an illumination system configured to direct light towards multiple and distinct interrogation points of the particle flow path; - a plurality of collectors (54, 56, 58, 52), where each collector is configured to directly gather light from a different interrogation region (45,46, 47,48) comprising the interrogation point and further configured to generate signals representative of a degree of light gathered; and - an examination system comprising a processor and program instructions executable by the processor for: - receiving said signals; characterized in that the program instructions further comprise: - comparing received signals of at least two collectors to predetermined signal ranges associated with a specific particle set; - identifying a particle of the specific particle set upon detecting signal pulses that respectively fit within the predetermined signal ranges; - calculating a time-of-flight of the particle using a time difference between signal pulses received from the at least two collectors; - pinpointing other signal pulses generated by a particle of a different particle set, where the other signal pulses are received from each of the collectors and generated at distinct points in time in accordance with the calculated time-of-flight and relative positions of respective interrogation points corresponding to the collectors; and - associating the other signal pulses to the particle of the different particle set. - a particle flow path; - an illumination system configured to direct light towards multiple and distinct interrogation points of the particle flow path; - a plurality of collectors (54, 56, 58, 52), where each collector is configured to directly gather light from a different interrogation region (45,46, 47,48) comprising the interrogation point and further configured to generate signals representative of a degree of light gathered; and - an examination system comprising a processor and program instructions executable by the processor for: - receiving said signals; characterized in that the program instructions further comprise: - comparing received signals of at least two collectors to predetermined signal ranges associated with a specific particle set; - identifying a particle of the specific particle set upon detecting signal pulses that respectively fit within the predetermined signal ranges; - calculating a time-of-flight of the particle using a time difference between signal pulses received from the at least two collectors; - pinpointing other signal pulses generated by a particle of a different particle set, where the other signal pulses are received from each of the collectors and generated at distinct points in time in accordance with the calculated time-of-flight and relative positions of respective interrogation points corresponding to the collectors; and - associating the other signal pulses to the particle of the different particle set.