mhurhangee/ep-ind-claims huggingface dataset:
A micropump for delivery of medication by infusion, comprising: a reservoir; a cannula; a motor; a gear; a tubular pump housing having a first aperture in fluid communication with the reservoir and a second aperture in fluid communication with the cannula; a drive rack positioned on a surface of the pump housing and operatively connected to the gear to translate the pump housing in the axial direction; characterized by a drive piston and a floating piston axially oriented within the pump housing, wherein the drive piston and the floating piston are not coupled to each other; a radial seal on the floating piston in frictional engagement with an interior surface of the pump housing; wherein the drive piston is stationary; the drive piston and the floating piston are positioned to close the first aperture and the second aperture at different axial positions of the drive piston and floating piston within the pump housing; wherein translating the floating piston with respect to the drive piston defines a pump volume space between the floating piston and the drive piston within the pump housing, wherein the pump housing is received in a cradle, and the drive piston is attached to a first keying rib on the cradle maintaining a fixed position. a reservoir; a cannula; a motor; a gear; a tubular pump housing having a first aperture in fluid communication with the reservoir and a second aperture in fluid communication with the cannula; a drive rack positioned on a surface of the pump housing and operatively connected to the gear to translate the pump housing in the axial direction; characterized by a drive piston and a floating piston axially oriented within the pump housing, wherein the drive piston and the floating piston are not coupled to each other; a radial seal on the floating piston in frictional engagement with an interior surface of the pump housing; wherein the drive piston is stationary; the drive piston and the floating piston are positioned to close the first aperture and the second aperture at different axial positions of the drive piston and floating piston within the pump housing; wherein translating the floating piston with respect to the drive piston defines a pump volume space between the floating piston and the drive piston within the pump housing, wherein the pump housing is received in a cradle, and the drive piston is attached to a first keying rib on the cradle maintaining a fixed position.
Induction hob device with at least one induction heating element, which is provided to heat cooking utensils and with at least one detection circuit which is provided to cooperate with the at least one induction heating element to detect cooking utensils, characterised in that the at least one detection circuit is directly connected to the at least one induction heating element irrespective of an operating state.
ABS regulation method for a vehicle (1, 1') having at least one wheel (3a, 3b, 3a', 3b') with a wheel brake, in which method at least one ABS regulation parameter is varied such that a wheel regulation amplitude (V_R) associated with the wheel (3a, 3b, 3a', 3b') is reduced, in relation to a wheel regulation amplitude effected by unchanged ABS regulation parameters, if a friction coefficient between the wheel (3a, 3b, 3a', 3b') and a road surface beneath the wheel reaches or undershoots a friction coefficient threshold; characterized in that in the event of the friction coefficient threshold being reached or undershot, the ABS regulation parameters of the rear wheels (4a, 4b; 5a, 5b) are regulated asynchronously.
A decorative-material trimming device for performing a chamfering process by removing an extra end of a decorative material bonded to an end surface of a base material, comprising: a trimming head moving along the extra end of the decorative material, wherein the trimming head includes a drive motor, a rotary cutter connected to a drive shaft of the drive motor and removing the extra end of the decorative material, an attachment member attached to the axis of the rotary cutter, and a guide portion rolling on the base material while being supported by the attachment member so as to be rotatable about the axis of the rotary cutter, characterized in that the trimming head includes an adjustable press-contact piece coming into press-contact with an outer peripheral surface of the guide portion such that the position of the press-contact piece is adjusted with respect to the outer peripheral surface of the guide portion. a trimming head moving along the extra end of the decorative material, wherein the trimming head includes a drive motor, a rotary cutter connected to a drive shaft of the drive motor and removing the extra end of the decorative material, an attachment member attached to the axis of the rotary cutter, and a guide portion rolling on the base material while being supported by the attachment member so as to be rotatable about the axis of the rotary cutter, characterized in that the trimming head includes an adjustable press-contact piece coming into press-contact with an outer peripheral surface of the guide portion such that the position of the press-contact piece is adjusted with respect to the outer peripheral surface of the guide portion.
Method of calibrating a partial discharge measuring device, comprising: - generating a calibration signal using a calibration signal generator, and - measuring a measuring signal at a test object, characterized in that the calibration signal has a predetermined period duration and the predetermined period duration is used for averaging the measuring signal, wherein, in the averaging, multiple measuring signal sections of the measuring signal, which each have the predetermined period duration and are measured phase-locked to the calibration signal, are averaged to an averaged measuring signal section with the predetermined period duration. - generating a calibration signal using a calibration signal generator, and - measuring a measuring signal at a test object,
A system for testing wireless interaction between a user-interface device of a motor vehicle configured for reproducing audio signals, and a mobile phone, said user-interface device and said mobile phone being configured for communicating over a wireless communication channel for short-range communications, wherein said system comprises a module for simulation of a mobile phone, comprising processing means configured for simulating operation of a mobile phone, said module for simulation of a mobile phone being associated in a signal-exchange relationship to a short-range wireless transceiver module configured for communicating via said wireless communication channel with the user-interface device of a motor vehicle, said module for simulation of a mobile phone comprises an audio signal input and an audio signal output and said user-interface device comprises a respective audio signal input and audio signal output, said system being characterized in that: said processing means configured for simulating operation of a mobile phone being configured to simulate a protocol stack of the wireless communication channel, said protocol stack further comprising a HFP (Hands-free Profile), which enables the user to send and receive telephone calls, said module for simulation of a mobile phone being configured for carrying out pairing with user-interface device and, following upon pairing, simulating the functions of hands-free telephone call; said module for simulation of a mobile phone being configured to activate all the functions from the module for simulation of a mobile phone itself, without intervening on the user-interface device, said module for simulation of a mobile phone being configured through the hands-free profile for operating as Audio Gateway and implementing functions of audio input and output and in that said system for testing wireless interaction comprises a system for audio analysis set connected to said audio signal output and/or audio signal input. said processing means configured for simulating operation of a mobile phone being configured to simulate a protocol stack of the wireless communication channel, said protocol stack further comprising a HFP (Hands-free Profile), which enables the user to send and receive telephone calls, said module for simulation of a mobile phone being configured for carrying out pairing with user-interface device and, following upon pairing, simulating the functions of hands-free telephone call; said module for simulation of a mobile phone being configured to activate all the functions from the module for simulation of a mobile phone itself, without intervening on the user-interface device, said module for simulation of a mobile phone being configured through the hands-free profile for operating as Audio Gateway and implementing functions of audio input and output and in that said system for testing wireless interaction comprises a system for audio analysis set connected to said audio signal output and/or audio signal input.
A radio resource control, RRC, message processing system, wherein the system comprises a serving node (104, 201), an anchor node (103, 202), and a mobility management entity (101, 102, 203), the serving node is configured to set up a connection to the anchor node, and the anchor node is configured to set up a connection to the mobility management entity; the serving node is further configured to: receive a radio resource control, RRC, message from a user equipment, UE, wherein the RRC message is carried by a signaling radio bearer, SRB0 or an SRB 1 or an SRB 2; and wherein when the RRC message is carried by the SRB0, the serving node is configured to generate, by using an RRC layer entity of the serving node, another RRC message carried by the SRB0 for the UE and/or the anchor node and when the RRC message is carried by the SRB 1 or the SRB2, the serving node is configured to send the RRC message to the anchor node; the anchor node is configured to: process, by using a first Packet Data Convergence Protocol, PDCP, layer entity, the RRC message carried by the SRB 1 and send a processed RRC message to an RRC layer entity of the anchor node; or process, by using a second PDCP layer entity, the RRC message carried by the SRB2 and send a processed RRC message to the RRC layer entity of the anchor node. receive a radio resource control, RRC, message from a user equipment, UE, wherein the RRC message is carried by a signaling radio bearer, SRB0 or an SRB 1 or an SRB 2; and wherein when the RRC message is carried by the SRB0, the serving node is configured to generate, by using an RRC layer entity of the serving node, another RRC message carried by the SRB0 for the UE and/or the anchor node and when the RRC message is carried by the SRB 1 or the SRB2, the serving node is configured to send the RRC message to the anchor node; process, by using a first Packet Data Convergence Protocol, PDCP, layer entity, the RRC message carried by the SRB 1 and send a processed RRC message to an RRC layer entity of the anchor node; or process, by using a second PDCP layer entity, the RRC message carried by the SRB2 and send a processed RRC message to the RRC layer entity of the anchor node.
A test circuit (200; 402; 502; 602; 702) for determining the capacitance of an actuator element (4; 4a-d) in an actuator element array, wherein the test circuit (200; 402; 502; 602; 702) comprises: a controller (202; 416; 516; 616; 716); a source (204; 422; 522; 622; 722) for generating test inputs; and measurement circuitry (205; 705) configured to measure one or more test values on a test path between the test circuit (200; 402; 502; 602; 702) and the actuator element (4; 4a-d); wherein the controller (202; 416; 516; 616; 716) is configured to, for a test period: control a first switch (106; 106a-d; 606a-d) associated with the actuator element (4; 4a-d) to connect the actuator element (4; 4a-d) to the test path; control the source (204; 422; 522; 622; 722) to generate a first test input; determine a total capacitance from a first test value generated in response to the first test input, wherein the total capacitance comprises a capacitance of the actuator element (4; 4a-d) and a parasitic capacitance associated with the actuator element; and determine the capacitance of the actuator element (4; 4a-d) from the total capacitance. a controller (202; 416; 516; 616; 716); a source (204; 422; 522; 622; 722) for generating test inputs; and measurement circuitry (205; 705) configured to measure one or more test values on a test path between the test circuit (200; 402; 502; 602; 702) and the actuator element (4; 4a-d); wherein the controller (202; 416; 516; 616; 716) is configured to, for a test period: control a first switch (106; 106a-d; 606a-d) associated with the actuator element (4; 4a-d) to connect the actuator element (4; 4a-d) to the test path; control the source (204; 422; 522; 622; 722) to generate a first test input; determine a total capacitance from a first test value generated in response to the first test input, wherein the total capacitance comprises a capacitance of the actuator element (4; 4a-d) and a parasitic capacitance associated with the actuator element; and determine the capacitance of the actuator element (4; 4a-d) from the total capacitance. control a first switch (106; 106a-d; 606a-d) associated with the actuator element (4; 4a-d) to connect the actuator element (4; 4a-d) to the test path; control the source (204; 422; 522; 622; 722) to generate a first test input; determine a total capacitance from a first test value generated in response to the first test input, wherein the total capacitance comprises a capacitance of the actuator element (4; 4a-d) and a parasitic capacitance associated with the actuator element; and determine the capacitance of the actuator element (4; 4a-d) from the total capacitance.
A method for determining the fluorescence of a sample, wherein the sample (40, 47) is irradiated with an excitation light of a wavelength which is suitable to excite fluorescent light (27, 28) in the sample (40, 47), and the fluorescent light (27, 28) emitted by the sample (40, 47) is received in a receiver and is converted into a measurement signal, wherein a reference light, in particular for compensating for ambient influences, is additionally fed to the receiver and is likewise converted into a reference measurement signal, characterized in that the optical path of the excitation light entering the sample (40, 47) and of the fluorescent light (27, 28) leaving the sample (40, 47) is separated from the optical path of the reference light having the same wavelength as the excitation light, between an excitation light source emitting the excitation light or a reference light source emitting the reference light and the receiver, wherein the excitation light source for providing the excitation light is identical with and separated from the reference light source for providing the reference light, wherein the excitation light source and the reference light source are identically constructed and exhibit identical optical and electrical characteristics. the sample (40, 47) is irradiated with an excitation light of a wavelength which is suitable to excite fluorescent light (27, 28) in the sample (40, 47), and the fluorescent light (27, 28) emitted by the sample (40, 47) is received in a receiver and is converted into a measurement signal, wherein a reference light, in particular for compensating for ambient influences, is additionally fed to the receiver and is likewise converted into a reference measurement signal, characterized in that the optical path of the excitation light entering the sample (40, 47) and of the fluorescent light (27, 28) leaving the sample (40, 47) is separated from the optical path of the reference light having the same wavelength as the excitation light, between an excitation light source emitting the excitation light or a reference light source emitting the reference light and the receiver, wherein the excitation light source for providing the excitation light is identical with and separated from the reference light source for providing the reference light, wherein the excitation light source and the reference light source are identically constructed and exhibit identical optical and electrical characteristics.
A seismic streamer (610; 710) comprising: an outer tube (612; 712) that defines an interiorspace having a longitudinal axis; sensor packages (620, 630; 730-1,730-2) disposed in the interior space at respective positions along the longitudinal axis; a rope (616; 716-1, 716-2) disposed in the interior space and offset from the longitudinal axis; characterized in that the streamerfurther comprises gel filled foam disposed in the interior space at least in part between the sensor packages (620, 630; 730-1, 730-2) and at least in part about portions of the rope (616; 716-1, 716-2), wherein the gel filled foam comprises a water swellable material that, responsive to a breach in the outer tube (612; 712) and contact with water, transitions the gel filled foam from an unswollen state to a swollen state that hinders gel leakage from the breach in the outer tube (612; 712). an outer tube (612; 712) that defines an interiorspace having a longitudinal axis; sensor packages (620, 630; 730-1,730-2) disposed in the interior space at respective positions along the longitudinal axis; a rope (616; 716-1, 716-2) disposed in the interior space and offset from the longitudinal axis; characterized in that the streamerfurther comprises gel filled foam disposed in the interior space at least in part between the sensor packages (620, 630; 730-1, 730-2) and at least in part about portions of the rope (616; 716-1, 716-2), wherein the gel filled foam comprises a water swellable material that, responsive to a breach in the outer tube (612; 712) and contact with water, transitions the gel filled foam from an unswollen state to a swollen state that hinders gel leakage from the breach in the outer tube (612; 712).
A gas generator for an airbag, the gas generator including: - at least one pressurized gas chamber (11, 15), - a first actuator arranged for opening said gas pressurized gas chamber (11, 15), - a diffusion chamber including a communication surface arranged for being able to diffuse the gases from said at least one pressurized gas chamber towards the airbag, further comprising outside the diffusion chamber, an obturator comprising a second actuator (22, 26), the obturator being arranged so as to be locked in a first position in which, in cooperation with the communication surface, it defines a first diffusion surface, the second actuator (22, 26) being arranged for unlocking the obturator in order to allow it to go into a second position in which it defines, in cooperation with the communication surface, a second diffusion surface area greater than the first diffusion surface area, characterized in that the obturator comprises a deflector arranged for: - partly covering the communication surface when the obturator is in the first position, and - moving away from the communication surface when the obturator passes into the second position by deforming, the obturator being made in a material with a predetermined ultimate strength and being arranged so that mechanical stresses generated in the obturator during its deformation do not exceed the ultimate strength of the material used for making the obturator. - at least one pressurized gas chamber (11, 15), - a first actuator arranged for opening said gas pressurized gas chamber (11, 15), - a diffusion chamber including a communication surface arranged for being able to diffuse the gases from said at least one pressurized gas chamber towards the airbag, - partly covering the communication surface when the obturator is in the first position, and - moving away from the communication surface when the obturator passes into the second position by deforming,
Connector for a wiper, comprising at least a main body and a rotary cover, the main body comprising at least a bottom wall and two lateral walls that contribute to delimiting an internal volume that is at least partially closed by the rotary cover, the rotary cover comprising at least a covering wall, a reinforcing wall, an articulation and an attachment device for securing the rotary cover relative to the bottom wall of the main body, the covering wall extending longitudinally between two longitudinal ends (46, 48), the articulation being formed at one of the longitudinal ends (46, 48) of the covering wall and allowing the rotary cover to rotate about an axis, the reinforcing wall extending from the covering wall toward the bottom wall of the main body, characterized in that the rotary cover comprises a bearing device via which the rotary cover bears against the bottom wall of the main body, characterized in that the attachment device comprises a support wall and a fixing lug, the support wall extending from the covering wall toward the bottom wall of the main body and having a free end, the fixing lug being formed at a free end of the support wall so as to attach the rotary cover to the bottom wall of the main body.
Method for operating a gas hob (11, 111, 211) having at least one gas burner (14, 114, 214a, 214b) having a gas burner body (15, 115, 215a) which has gas outlet openings (16, 116, 216a), wherein - a thermogenerator (25, 125, 225) is arranged above the gas burner body (15, 115, 215a), - the thermogenerator (25, 125, 225) has an electrical connection to a power supply means of the gas hob (11, 111, 211), - the power supply is connected to a control means of the gas hob (11, 111, 211), wherein - from the profile of the thermoelectric voltage at the thermogenerator (25, 125, 225) a temperature of a pot base (31, 131, 231) of a pot (30, 130, 230) which has been placed on is monitored, - after a relatively long phase of a constant temperature of the pot base during operation of the gas burner (14, 114, 214a, 214b) and a subsequent rapid increase in temperature, the control means draws the conclusion that the pot (30, 130, 230) which has been placed on has boiled dry and outputs a corresponding signal and switches off the gas burner (14, 114, 214a, 214b), characterized in that the thermogenerator (25, 125, 225) on the hot side thereof is exposed to thermal energy from the gas burner body (15, 115, 215a) itself and the cold side of the thermogenerator is cooled by the pot base (31, 131, 231). - a thermogenerator (25, 125, 225) is arranged above the gas burner body (15, 115, 215a), - the thermogenerator (25, 125, 225) has an electrical connection to a power supply means of the gas hob (11, 111, 211), - the power supply is connected to a control means of the gas hob (11, 111, 211), wherein - from the profile of the thermoelectric voltage at the thermogenerator (25, 125, 225) a temperature of a pot base (31, 131, 231) of a pot (30, 130, 230) which has been placed on is monitored, - after a relatively long phase of a constant temperature of the pot base during operation of the gas burner (14, 114, 214a, 214b) and a subsequent rapid increase in temperature, the control means draws the conclusion that the pot (30, 130, 230) which has been placed on has boiled dry and outputs a corresponding signal and switches off the gas burner (14, 114, 214a, 214b),