mhurhangee/ep-ind-claims huggingface dataset:
Method for monitoring an internet connection which is provided in a motor vehicle by means of a mobile connection established between a mobile module of the motor vehicle and a mobile network, wherein by means of a control device of the motor vehicle a predetermined connection test is carried out for recognising an interruption in the internet connection, characterised in that with the aid of a roaming signal by means of which it is signalled to the mobile module that the mobile connection is operated in a roaming operating mode, and which the mobile module in the motor vehicle provides, it is recognised that the mobile connection is switched into a roaming operating mode, and by means of the control device the connection test is carried out after receiving the roaming signal and when an interrupted internet connection is recognised an alert signal is outputted to a user of the motor vehicle in that when the interrupted internet connection is recognised, a retrieving means is activated for receiving and displaying a message to be expected from the mobile network when roaming operating mode is active, wherein as retrieving means a reading means for the reading of SMS messages is activated which displays the message via a display device in the motor vehicle.
Prosthetic joint configured to mutually rotate a first prosthesis and a second prosthesis and comprising: - an attachment of said prosthetic joint to said first prosthesis 1a); - an additional attachment of said prosthetic joint to said second prosthesis; - a movement member configured to control a rotation between said attachments (2, 3) and therefore between said prostheses (1a, 1b) defining a thrust torque for said rotation; and wherein said movement member comprises - a first actuator defining a first pair for said rotation; - a second actuator defining for said rotation a second torque substantially greater than said first torque; and - a kinematic mechanism configured to exploit said actuators (41, 42) to control said rotation; characterised in that said kinematic mechanism is configured to selectively define or dissolve a rotational constraint between said actuators (41, 42) by defining o a low thrust configuration in which said first actuator is kinematically connected to said attachment and said second actuator is kinematically disconnected from said attachment so that exclusively said first actuator controls said rotation defining a maximum rotation torque substantially not greater than said first torque and o a high thrust configuration in which both said actuators (41, 42) are kinematically connected to said attachment so that both said first actuator and said second actuator control said rotation defining a maximum rotation torque substantially comprised between said first pair and the sum of said first pair and said second pair. - an attachment of said prosthetic joint to said first prosthesis 1a); - an additional attachment of said prosthetic joint to said second prosthesis; - a movement member configured to control a rotation between said attachments (2, 3) and therefore between said prostheses (1a, 1b) defining a thrust torque for said rotation; - a first actuator defining a first pair for said rotation; - a second actuator defining for said rotation a second torque substantially greater than said first torque; and - a kinematic mechanism configured to exploit said actuators (41, 42) to control said rotation; characterised in that o a low thrust configuration in which said first actuator is kinematically connected to said attachment and said second actuator is kinematically disconnected from said attachment so that exclusively said first actuator controls said rotation defining a maximum rotation torque substantially not greater than said first torque and o a high thrust configuration in which both said actuators (41, 42) are kinematically connected to said attachment so that both said first actuator and said second actuator control said rotation defining a maximum rotation torque substantially comprised between said first pair and the sum of said first pair and said second pair.
A process for recovering sulfur and carbon dioxide from a sour gas stream, the process comprising the steps of: providing a sour gas stream to a membrane separation unit comprising a membrane, wherein the membrane is a carbon dioxide-selective membrane, the sour gas stream comprising hydrogen sulfide and carbon dioxide; separating the hydrogen sulfide from the carbon dioxide in the membrane separation unit to obtain a retentate stream and a first permeate stream, wherein the retentate stream comprises hydrogen sulfide and has a concentration of hydrogen sulfide between 80 and 95 mol %., wherein the permeate stream comprises carbon dioxide; introducing the retentate stream to a sulfur recovery unit; processing the retentate stream in the sulfur recovery unit to produce a sulfur stream and a tail gas stream, wherein the sulfur stream comprises liquid sulfur; introducing the permeate stream to an amine absorption unit; and processing the permeate stream in the amine absorption unit to produce an enriched carbon dioxide stream. providing a sour gas stream to a membrane separation unit comprising a membrane, wherein the membrane is a carbon dioxide-selective membrane, the sour gas stream comprising hydrogen sulfide and carbon dioxide; separating the hydrogen sulfide from the carbon dioxide in the membrane separation unit to obtain a retentate stream and a first permeate stream, wherein the retentate stream comprises hydrogen sulfide and has a concentration of hydrogen sulfide between 80 and 95 mol %., wherein the permeate stream comprises carbon dioxide; introducing the retentate stream to a sulfur recovery unit; processing the retentate stream in the sulfur recovery unit to produce a sulfur stream and a tail gas stream, wherein the sulfur stream comprises liquid sulfur; introducing the permeate stream to an amine absorption unit; and processing the permeate stream in the amine absorption unit to produce an enriched carbon dioxide stream.
A compressor, comprising: a compressing part for compressing a refrigerant; an electric motor for driving the compressing part; a housing having the compressing part and the electric motor housed inside; and a refrigerant circulation mechanism for circulating the refrigerant to be flowed into a space at the electric motor side from the compressing part toward one end in a central axis direction of a stator formed in a cylindrical shape of the electric motor, wherein a flow velocity of the refrigerant on a downstream side is faster than that on an upstream side, wherein the electric motor has a stator with a coil, wherein the housing has a partition member (33, 34), wherein the partition member (33, 34) is set so as to face the inner surface of the housing, wherein the partition member (33, 34) is formed so as to separate a space of the housing to an inner space and an outer space, characterized in that the inner space is a passage that leads the refrigerant toward a one axial end of the stator of the electric motor side from the compressing part, wherein the refrigerant led toward the one axial end of the stator is guided to the other axial end of the stator, wherein the outer space is a passage that leads the refrigerant toward a discharge pipe side along the housing from the other axial end of the stator. a compressing part for compressing a refrigerant; an electric motor for driving the compressing part; a housing having the compressing part and the electric motor housed inside; and a refrigerant circulation mechanism for circulating the refrigerant to be flowed into a space at the electric motor side from the compressing part toward one end in a central axis direction of a stator formed in a cylindrical shape of the electric motor, wherein a flow velocity of the refrigerant on a downstream side is faster than that on an upstream side, wherein the electric motor has a stator with a coil, wherein the housing has a partition member (33, 34), wherein the partition member (33, 34) is set so as to face the inner surface of the housing, wherein the partition member (33, 34) is formed so as to separate a space of the housing to an inner space and an outer space, the inner space is a passage that leads the refrigerant toward a one axial end of the stator of the electric motor side from the compressing part, wherein the refrigerant led toward the one axial end of the stator is guided to the other axial end of the stator, wherein the outer space is a passage that leads the refrigerant toward a discharge pipe side along the housing from the other axial end of the stator.
A heater assembly (400, 700) couplable to an aerosol-generating device body (500, 800) to form an aerosol-generating device (300, 600), the heater assembly comprising: a heating element mount (522, 712); a heating element (402, 704) rotatably coupled to the heating element mount and configured to penetrate an aerosol-generating article; and a heater assembly rotation resistance mechanism configured to resist rotation of the heating element in a first direction relative to the heating element mount, wherein the heater assembly rotation resistance mechanism is configured to limit rotation of the heating element in the first direction relative to the heating element mount up to a threshold torque applied to the heating element and, when the torque applied to the heating element exceeds the threshold torque, is configured to allow further rotation of the heating element. a heating element mount (522, 712); a heating element (402, 704) rotatably coupled to the heating element mount and configured to penetrate an aerosol-generating article; and a heater assembly rotation resistance mechanism configured to resist rotation of the heating element in a first direction relative to the heating element mount, wherein the heater assembly rotation resistance mechanism is configured to limit rotation of the heating element in the first direction relative to the heating element mount up to a threshold torque applied to the heating element and, when the torque applied to the heating element exceeds the threshold torque, is configured to allow further rotation of the heating element.
A method, performed in a Policy and Charging Rules Function, PCRF, for managing subscription to a policy counter maintained at an Online Charging System, OCS, wherein the PCRF is operable to communicate with the OCS over an Sy reference point, the method characterised by: receiving an All Users subscription trigger from a network operator, the All Users subscription trigger identifying a network policy; and sending a Spending Limit Request, SLR, command to the OCS, the SLR command specifying an identifier of a policy counter for the network policy and specifying application of the SLR command to all ongoing Sy sessions between the PCRF and the OCS. receiving an All Users subscription trigger from a network operator, the All Users subscription trigger identifying a network policy; and sending a Spending Limit Request, SLR, command to the OCS, the SLR command specifying an identifier of a policy counter for the network policy and specifying application of the SLR command to all ongoing Sy sessions between the PCRF and the OCS.
An article comprising: a chassis having a topsheet, backsheet and an absorbent core disposed between the topsheet and backsheet; and an ear joined to the chassis, the ear comprising: an elastomeric laminate having a first nonwoven web and an elastomeric layer; wherein the first nonwoven web comprises a crimped spunbond fiber nonwoven web; and wherein the laminate comprises a ring-rolled activated laminate or an ultrasonically bonded laminate. a chassis having a topsheet, backsheet and an absorbent core disposed between the topsheet and backsheet; and an ear joined to the chassis, the ear comprising: an elastomeric laminate having a first nonwoven web and an elastomeric layer; wherein the first nonwoven web comprises a crimped spunbond fiber nonwoven web; and wherein the laminate comprises a ring-rolled activated laminate or an ultrasonically bonded laminate. an elastomeric laminate having a first nonwoven web and an elastomeric layer; wherein the first nonwoven web comprises a crimped spunbond fiber nonwoven web; and wherein the laminate comprises a ring-rolled activated laminate or an ultrasonically bonded laminate.
An aircraft brake control system for controlling a plurality of brakeable wheels (221, 222) of a landing gear, each brakeable wheel comprising a brake actuator and a wheel speed sensor (231, 232), wherein the system comprises: a controller configured to receive aircraft control parameters and provide brake commands to the brake actuator of each brakeable wheel, the controller being configured to: activate pre-retraction braking in response to an aircraft control parameter indicating that landing gear retraction is required; and execute a functional brake test during pre-retraction braking, the functional brake test comprising: issuing sequential brake commands to the brake actuators of at least a first and a second brakeable wheel to cause at least two of the brakeable wheels to be braked in sequence; and independently monitoring the wheel speed sensors of each brakeable wheel. activate pre-retraction braking in response to an aircraft control parameter indicating that landing gear retraction is required; and execute a functional brake test during pre-retraction braking, the functional brake test comprising: issuing sequential brake commands to the brake actuators of at least a first and a second brakeable wheel to cause at least two of the brakeable wheels to be braked in sequence; and independently monitoring the wheel speed sensors of each brakeable wheel. issuing sequential brake commands to the brake actuators of at least a first and a second brakeable wheel to cause at least two of the brakeable wheels to be braked in sequence; and independently monitoring the wheel speed sensors of each brakeable wheel.
A cooling system (1500, 2000, 3000, 4000) for cooling a heat generating component, the cooling system comprising: a main cooling arrangement (1100A, 1100D) thermally coupled to the heat generating component, and configured for collecting thermal energy of the heat generating component via a main heat transfer fluid; and a backup cooling arrangement (1100B, 1100C, 1100E) thermally coupled to the main cooling arrangement (1100A, 1100D), the backup cooling arrangement (1100B, 1100C, 1100E) comprising: at least one fluid path configured for conducting a backup heat transfer fluid; the cooling system (1500, 2000, 3000, 4000) being characterized in that the backup cooling arrangement (1100B, 1100C, 1100E) further comprises: a thermal fuse disposed within at least a portion of the at least one fluid path, the thermal fuse changing from a solid state to a melted state and selectively enabling a flow of the backup heat transfer fluid in the at least one fluid path of the backup cooling arrangement (1100B, 1100C, 1100E) in response to its temperature being above a temperature threshold, the backup heat transfer fluid being configured to, upon flowing in the at least one fluid path, collect thermal energy from the main cooling arrangement (1100A, 1100D). a main cooling arrangement (1100A, 1100D) thermally coupled to the heat generating component, and configured for collecting thermal energy of the heat generating component via a main heat transfer fluid; and a backup cooling arrangement (1100B, 1100C, 1100E) thermally coupled to the main cooling arrangement (1100A, 1100D), the backup cooling arrangement (1100B, 1100C, 1100E) comprising: at least one fluid path configured for conducting a backup heat transfer fluid;
High-pressure cleaning device having a housing (14, 16) surrounding a motor pump unit comprising a liquid-cooled electric motor and a pump driven by it, the pump having a suction inlet for supplying liquid to be subjected to pressure and a pressure outlet for discharging liquid subjected to pressure, and liquid being suppliable to the electric motor in order to cool it and being subsequently subjected to pressure by the pump, characterized in that the electric motor is configured as a fan-less asynchronous motor, and the motor pump unit is mounted by way of vibration-damping buffer elements (84, 86, 110, 112, 114, 116), the housing (14, 16) having outflow openings (126, 128) with an overall opening surface area not exceeding 3000 mm 2 at a sound power level of the high-pressure cleaning device of at the most 78 dB, liquid being able to flow out of the housing (14, 16) via the outflow openings (126, 128) in the event of malfunction of the high-pressure cleaning device.
A composition comprising (a) a CSF-1R inhibitor, and (b) an IGF-1R inhibitor or a PI3K inhibitor for use in treating a CSF-1R-inhibitor-resistant glioma in a subject.
A fluid circuit monitoring system for monitoring a fluid circuit, comprising: a housing; the housing being supported by a printed circuit board; a pressure sensor for sensing a pressure of fluid flowing in the fluid circuit, the pressure sensor being mounted to and in communication with the PCB, the pressure sensor comprising a sensing port being configured to receive fluid therein; an interface member supported by the PCB and fluidly communicating the fluid circuit to the pressure sensor, the interface member extending from a first end to a second end, the first end being abutted by the housing, the second end being abutted by the pressure sensor such that the interface member is collaboratively retained in place by the pressure sensor and the housing, the interface member comprising a channel having: a channel inlet in fluid communication with the fluid circuit and configured to be coupled thereto via tubing; and a channel outlet connected to the sensing port of the pressure sensor, the housing at least partly enclosing the PCB, the pressure sensor and the interface member therein, and a control unit being operatively connected to the pressure sensor for receiving, from the pressure sensor, a signal representative of the pressure measured by the pressure sensor. a housing; the housing being supported by a printed circuit board; a pressure sensor for sensing a pressure of fluid flowing in the fluid circuit, the pressure sensor being mounted to and in communication with the PCB, the pressure sensor comprising a sensing port being configured to receive fluid therein; an interface member supported by the PCB and fluidly communicating the fluid circuit to the pressure sensor, the interface member extending from a first end to a second end, the first end being abutted by the housing, the second end being abutted by the pressure sensor such that the interface member is collaboratively retained in place by the pressure sensor and the housing, the interface member comprising a channel having: a channel inlet in fluid communication with the fluid circuit and configured to be coupled thereto via tubing; and a channel outlet connected to the sensing port of the pressure sensor, a channel inlet in fluid communication with the fluid circuit and configured to be coupled thereto via tubing; and a channel outlet connected to the sensing port of the pressure sensor, the housing at least partly enclosing the PCB, the pressure sensor and the interface member therein, and a control unit being operatively connected to the pressure sensor for receiving, from the pressure sensor, a signal representative of the pressure measured by the pressure sensor.
A lock system that can be used in the sector of white appliances, comprising a body, a lock bolt housing, a spring, and a hatch lock bolt that fits into a seat through the stretching of the lock bolt housing by means of the spring located on the body and a mechanism that allows the machine hatch to be closed by restoring the lock bolt housing back to its former position even if the lock bolt housing is in closed position, characterized in that the lock bolt housing moves on gliding channels located on the body by means of the spring allowing the hatch lock bolt to stretch the lock bolt housing and to be fitted into the seat.
Use of a plate-type heat exchanger having multiple plates, wherein, between in each case two adjacent plates, an intermediate space which is able to be flowed through is formed, said heat exchanger comprising intermediate spaces of a first group that are able to be flowed through and are fluidically connected to a common first fluid channel running perpendicularly to the plates, wherein the intermediate spaces of the first group are sealed off such that an inflow of a first fluid from the outside and/or an outflow of said first fluid to the outside in a direction parallel to the plates is prevented, wherein the intermediate spaces of the first group are fluidically connected to multiple second fluid channels running perpendicularly to the plates, which second fluid channels are arranged such that, proceeding from the first fluid channel, the first fluid flows through the intermediate spaces of the first group transversely to the second fluid channels, or that, proceeding from the second fluid channels, the first fluid flows through the intermediate spaces of the first group transversely to the first fluid channel, and furthermore comprising intermediate spaces of a second group that are able to be flowed through by a second fluid, whose temperature is controlled differently than the first fluid, wherein the intermediate spaces of the first group and the intermediate spaces of the second group are in each case arranged alternately, wherein the intermediate spaces, able to be flowed through by the second fluid, of the second group have lateral inflow openings which, in relation to the plate-type heat exchanger, are outwardly open, in order to allow an inflow of a second fluid from the outside into the intermediate spaces of the second group from an inflow direction which is arranged parallel to the plates, characterized in that the plate-type heat exchanger is flowed through by the first fluid in the intermediate spaces of the first group and the second fluid in the intermediate spaces of the second group in each case in a co-direction-flow configuration.
A glass substrate, comprising: a plurality of pixel structures disposed on one principal surface; an input electrode, disposed on the one principal surface, for inputting a driving signal to the plurality of pixel structures; a back connection member disposed on another principal surface so as to be electrically connected to the input electrode; a first insulating layer on the other principal surface, the first insulating layer lying over an effective region comprising the plurality of pixel structures, the first insulating layer comprising a top face located above a top face of the back connection member; wherein the back connection member is covered with a second insulating layer, and the top face of the first insulating layer is located above a top face of the second insulating layer; and further comprising a driver device that generates the driving signal, a placement position of which is disposed on the other principal surface, and in a position other than a placement position of the first insulating layer. a plurality of pixel structures disposed on one principal surface; an input electrode, disposed on the one principal surface, for inputting a driving signal to the plurality of pixel structures; a back connection member disposed on another principal surface so as to be electrically connected to the input electrode; a first insulating layer on the other principal surface, the first insulating layer lying over an effective region comprising the plurality of pixel structures, the first insulating layer comprising a top face located above a top face of the back connection member; wherein the back connection member is covered with a second insulating layer, and the top face of the first insulating layer is located above a top face of the second insulating layer; and further comprising a driver device that generates the driving signal, a placement position of which is disposed on the other principal surface, and in a position other than a placement position of the first insulating layer.