mhurhangee/ep-ind-claims huggingface dataset:
Wireless hearing device (100, 200, 300), comprising: an ear part, which is configured to be worn in an ear of a user of the hearing device and which comprises a speaker unit that is arranged in an ear part housing of the ear part and that is connected to a processing unit of the hearing device, and wherein the speaker unit is arranged to provide an acoustic sound signal to the ear of the user; an elongated part, which is attached to the ear part such that a distal end of the elongated part faces away from the ear part, and wherein the elongated part has an elongated part housing that is arranged to encompass a microphone unit with at least one microphone of the hearing device; and a guide unit (130, 230, 330), wherein the guide unit (130, 230, 330) has a first longitudinal axis and the elongated part defines a second longitudinal axis of the hearing device; wherein the guide unit (130, 230, 330) is arranged at the ear part such that the guide unit (130, 230, 330) can be located between Tragus part and Antitragus part of the ear, while the ear part is in an operating position in the ear of the user, and wherein the guide unit (130, 230, 330) allows a maintaining of a position of the ear part with respect to the ear such that the distal end of the elongated part points toward a user's mouth; characterized in that the guide unit (130, 230, 330) is slidable at the ear part housing in a sliding direction perpendicular to the second longitudinal axis of the hearing device. an ear part, which is configured to be worn in an ear of a user of the hearing device and which comprises a speaker unit that is arranged in an ear part housing of the ear part and that is connected to a processing unit of the hearing device, and wherein the speaker unit is arranged to provide an acoustic sound signal to the ear of the user; an elongated part, which is attached to the ear part such that a distal end of the elongated part faces away from the ear part, and wherein the elongated part has an elongated part housing that is arranged to encompass a microphone unit with at least one microphone of the hearing device; and a guide unit (130, 230, 330), wherein the guide unit (130, 230, 330) has a first longitudinal axis and the elongated part defines a second longitudinal axis of the hearing device; wherein the guide unit (130, 230, 330) is arranged at the ear part such that the guide unit (130, 230, 330) can be located between Tragus part and Antitragus part of the ear, while the ear part is in an operating position in the ear of the user, and wherein the guide unit (130, 230, 330) allows a maintaining of a position of the ear part with respect to the ear such that the distal end of the elongated part points toward a user's mouth; characterized in that the guide unit (130, 230, 330) is slidable at the ear part housing in a sliding direction perpendicular to the second longitudinal axis of the hearing device.
A method of controlling pressure of a common rail fuel injection system of a combustion engine, which method comprises the steps of measuring the pressure in the common rail fuel injection system and forming a control signal as a response to the measured pressure and to a set pressure reference value, the method further comprising a step of forming an internal pressure reference value by utilising the control signal, for using the internal pressure reference value when forming the control signal, characterised in that the step of forming the internal pressure reference value comprises an operation to subtract a certain portion from the set pressure reference value, which portion is dependent on a value of the control signal, wherein the portion to be subtracted is arranged to be formed by multiplying together the set pressure reference value, the value of the control signal and a certain coefficient.
A method for performing a movement correction when measuring a human eye, having the following steps: a. scanning the eye using a measuring beam to obtain a set of position values of the eye structure, wherein the scanning extends over a measurement period and wherein the position values are each provided with a timestamp within the measurement period; b. ascertaining a surface shape and ascertaining a displacement function, wherein the surface shape and the displacement function are ascertained in such a way that the position values are approximated by the surface shape when the surface shape is moved according to the displacement function and characterized in that the displacement function represents a movement sequence during the measurement period. a. scanning the eye using a measuring beam to obtain a set of position values of the eye structure, wherein the scanning extends over a measurement period and wherein the position values are each provided with a timestamp within the measurement period; b. ascertaining a surface shape and ascertaining a displacement function, wherein the surface shape and the displacement function are ascertained in such a way that the position values are approximated by the surface shape when the surface shape is moved according to the displacement function and characterized in that the displacement function represents a movement sequence during the measurement period.
A method of pseudofactin synthesis comprising the following steps: a) solid phase synthesis of the peptide Palm-Gly-Ser(tBu)-Thr-Leu-Leu-Ser(tBu)-Leu-Leu-OH using the carbodiimide method wherein the solid phase is preferably the 2-chlorotrityl resin b) cleavage of the peptide from the resin while maintaining the tBu protecting group on the side chain of L-serine c) internal cyclization of the peptide by the formation of an ester bond between the hydroxyl group on the side chain of L-threonine and the carboxyl group of L-leucine, in the presence of the catalyst mixture: diisopropylethylamine (DIPEA), 4-dimethylaminopyridine and N,N '-diisopropylocarbodiimide in DMF and DCM solvents. d) removing the protecting groups located on the side chain of L-serine e) purification of the peptide obtained in step d) wherein the yield of the synthesis is up to 68 %. a) solid phase synthesis of the peptide Palm-Gly-Ser(tBu)-Thr-Leu-Leu-Ser(tBu)-Leu-Leu-OH using the carbodiimide method wherein the solid phase is preferably the 2-chlorotrityl resin b) cleavage of the peptide from the resin while maintaining the tBu protecting group on the side chain of L-serine c) internal cyclization of the peptide by the formation of an ester bond between the hydroxyl group on the side chain of L-threonine and the carboxyl group of L-leucine, in the presence of the catalyst mixture: diisopropylethylamine (DIPEA), 4-dimethylaminopyridine and N,N '-diisopropylocarbodiimide in DMF and DCM solvents. d) removing the protecting groups located on the side chain of L-serine e) purification of the peptide obtained in step d)
A locking unit for a turnstile system, in which a switching disc of the locking unit is connected in a rotationally fixed manner to a central rotating shaft of the turnstile system, wherein the switching disc, which is connected in a rotationally fixed manner to the multi-wing turnstile system, is formed in two steps in such a way that a connection disc for a gear rim is connected in a rotationally fixed manner to a cam disc with switching cams which protrude beyond the outer circumference of the cam disc, wherein the connection disc, in the case of positionally correct mounting of the switching disc, faces in the direction of the rotating shaft of the turnstile system, wherein the switching disc is assigned at least one pivotably mounted pawl (13, 13') in such a way that the pawl (13, 13') can be brought into engagement with the switching cams, characterized in that the switching disc is rotatably connected to a base plate and a bearing plate of the locking unit, wherein the base and bearing plate (4, 6) are rigidly connected to each other by interposing spacers, thus realising a sandwich structure of the locking unit.
A process for obtaining an elastomer in solid phase from its polymer solution comprising: a. possibly pre-concentrating the polymer solution coming from the production system through a flash process; b. subjecting the polymer solution, possibly pre-concentrated, to a concentrated stripping step through water vapour in a mixing device comprising internal mixing moveable parts which transfer a minimum possible amount of mechanical energy to the solution in the form of friction heat, wherein said mixing device is with either a vertical or horizontal axis and said internal moveable mixing parts are single screws or twin screws, the latter either co-rotating or counter-rotating; c. subjecting the concentrated polymer phase coming from step (b) to a devolatilization step of the residual solvent in at least one device comprising internal moveable parts, where the devolatilization heat is provided both by the mechanical energy of said moveable parts, which is transferred to the concentrated polymer solution in the form of friction heat, and by a plurality of vapour flows. a. possibly pre-concentrating the polymer solution coming from the production system through a flash process; b. subjecting the polymer solution, possibly pre-concentrated, to a concentrated stripping step through water vapour in a mixing device comprising internal mixing moveable parts which transfer a minimum possible amount of mechanical energy to the solution in the form of friction heat, wherein said mixing device is with either a vertical or horizontal axis and said internal moveable mixing parts are single screws or twin screws, the latter either co-rotating or counter-rotating; c. subjecting the concentrated polymer phase coming from step (b) to a devolatilization step of the residual solvent in at least one device comprising internal moveable parts, where the devolatilization heat is provided both by the mechanical energy of said moveable parts, which is transferred to the concentrated polymer solution in the form of friction heat, and by a plurality of vapour flows.
A method for determining compliance of a connecting circuit in a non-invasive ventilator system, the method comprising the steps of: providing a non-invasive ventilator system, the system comprising a flow or pressure controller; generating a flow or pressure test signal for the flow or pressure controller, wherein the flow or pressure test signal comprises white noise filtered by a low frequency, high cutoff, low pass filter; exciting the flow or pressure controller with the generated flow or pressure test signal for a predetermined time period, such to make a flow source track a flow or pressure trajectory; obtaining, during the excitation of the pressure or flow controller, one or more measurements of the non-invasive ventilator system; determining a vector of the obtained one or more measurements; and processing the vector to determine an estimate of a physical parameter of the circuit. providing a non-invasive ventilator system, the system comprising a flow or pressure controller; generating a flow or pressure test signal for the flow or pressure controller, wherein the flow or pressure test signal comprises white noise filtered by a low frequency, high cutoff, low pass filter; exciting the flow or pressure controller with the generated flow or pressure test signal for a predetermined time period, such to make a flow source track a flow or pressure trajectory; obtaining, during the excitation of the pressure or flow controller, one or more measurements of the non-invasive ventilator system; determining a vector of the obtained one or more measurements; and processing the vector to determine an estimate of a physical parameter of the circuit.
A method for producing a ceramic foam structure, characterized in that the method comprises the following steps: • providing a reaction bonded powder blend comprising a metal and a metal oxide, by grinding the powder blend in a solvent selected from the group consisting of acetone, ethanol and methanol, • producing a stable slurry of the powder blend in water or in a solvent, • producing a foam, • drying said foam, • calcinating said foam, • oxidizing said foam through slow air heating up to a final temperature comprised between 900°C and 1100°C, and • a final thermal treatment. • providing a reaction bonded powder blend comprising a metal and a metal oxide, by grinding the powder blend in a solvent selected from the group consisting of acetone, ethanol and methanol, • producing a stable slurry of the powder blend in water or in a solvent, • producing a foam, • drying said foam, • calcinating said foam, • oxidizing said foam through slow air heating up to a final temperature comprised between 900°C and 1100°C, and • a final thermal treatment.
A system comprising - a control module comprising at least one sensor being at least one presence and/or movement detection sensor and/or at least one daylight sensor, and - an LED module comprising at least one LED for light emission and at least one antenna, wherein - the control module is configured for being detachably attached to the LED module such that the control module is electrically connected to the LED module when being detachably attached to the LED module, - the control module is configured to control the light emission of the at least one LED of the LED module when being detachably attached to the LED module, and - when the control module is detachably attached to the LED module, the control module is configured to control the light emission of the at least one LED of the LED module based on a detection result of the at least one sensor, and wherein - the at least one antenna is arranged on a plane, in particular printed circuit board, of the LED module on which the at least one LED is arranged, and - the LED module is configured for detachably attaching the control module such that the control module is electrically connected to the at least one antenna and is configured to wirelessly communicate via the at least one antenna when being detachably attached to the LED module. - a control module comprising at least one sensor being at least one presence and/or movement detection sensor and/or at least one daylight sensor, and - an LED module comprising at least one LED for light emission and at least one antenna, wherein - the control module is configured for being detachably attached to the LED module such that the control module is electrically connected to the LED module when being detachably attached to the LED module, - the control module is configured to control the light emission of the at least one LED of the LED module when being detachably attached to the LED module, and - when the control module is detachably attached to the LED module, the control module is configured to control the light emission of the at least one LED of the LED module based on a detection result of the at least one sensor, and wherein - the at least one antenna is arranged on a plane, in particular printed circuit board, of the LED module on which the at least one LED is arranged, and - the LED module is configured for detachably attaching the control module such that the control module is electrically connected to the at least one antenna and is configured to wirelessly communicate via the at least one antenna when being detachably attached to the LED module.
Medical instrument, having: an outer shaft; a transmitting device (40; 60) to be arranged in the outer shaft for transmitting at least either a force or a torque; a tool (30, 50; 80) having an outer shaft coupling device (37, 87) for the detachable mechanical connection of the tool (30, 50; 80) and a tool coupling device (73, 74; 77) on the distal end of the outer shaft and having a transmitting coupling device (56; 84) for the detachable mechanical connection of the tool (30, 50; 80) and a tool coupling device (63, 64; 47) on the distal end of the transmitting device (40; 60), wherein the mechanical connection of the tool coupling device (73, 74; 77) on the outer shaft and the outer shaft coupling device (37, 87) on the tool (30, 50; 80) is buildable by means of a movement of the outer shaft in relation to the tool (30, 50; 80) in a first direction (92; 94), wherein the mechanical connection of the tool coupling device (63, 64; 47) on the transmitting device (40; 60) and the transmitting coupling device (56; 84) on the tool (30, 50; 80) is buildable by means of a movement of the transmitting device (40; 60) in relation to the tool (30, 50; 80) in a second direction (91; 93), characterized in that the first direction (92; 94) is opposite to the second direction (91; 93). an outer shaft; a transmitting device (40; 60) to be arranged in the outer shaft for transmitting at least either a force or a torque; a tool (30, 50; 80) having an outer shaft coupling device (37, 87) for the detachable mechanical connection of the tool (30, 50; 80) and a tool coupling device (73, 74; 77) on the distal end of the outer shaft and having a transmitting coupling device (56; 84) for the detachable mechanical connection of the tool (30, 50; 80) and a tool coupling device (63, 64; 47) on the distal end of the transmitting device (40; 60), wherein the mechanical connection of the tool coupling device (73, 74; 77) on the outer shaft and the outer shaft coupling device (37, 87) on the tool (30, 50; 80) is buildable by means of a movement of the outer shaft in relation to the tool (30, 50; 80) in a first direction (92; 94), wherein the mechanical connection of the tool coupling device (63, 64; 47) on the transmitting device (40; 60) and the transmitting coupling device (56; 84) on the tool (30, 50; 80) is buildable by means of a movement of the transmitting device (40; 60) in relation to the tool (30, 50; 80) in a second direction (91; 93), characterized in that the first direction (92; 94) is opposite to the second direction (91; 93).
Wiping device, in particular wiping device for a motor vehicle pane, comprising a spring element (20a; 20c) and comprising a wiper blade adapter (12a; 12c) which has at least one latching element (40a; 40c, 42; 42c), wherein the spring element (20a; 20c) has at least one round latching recess (26a; 26c, 28a; 28c) in which the at least one latching element (40a; 40c, 42; 42c) engages in an interlocking manner in a fitted state and avoids a movement of the wiper blade adapter (12a; 12c) relative to the spring element (20a; 20c) in a longitudinal direction (22a; 22c), characterized in that the at least one latching element (40a; 40c, 42a) has at least two latching arms (30a; 30c, 32a; 32c, 34a, 36a) which are connected to the wiper blade adapter (12a; 12c) and are provided to be deflected in a spring-elastic manner, wherein the latching arms (30a, 30c, 32a, 32c, 34a, 36a) connect the latching element (40a, 40c, 42c) to the wiper blade adapter (12a, 12c) in a spring-elastic manner.
A utensil comprising a support having a contact surface which is at least partially metallic and which is covered by a non-stick coating including at least one thermostable binder, characterised in that: - said contact surface includes an interface layer chemically activated by plasma and formed by plasma polymerisation, - said thermostable binder is a fluorocarbon resin or a mixture of fluorocarbon resins, alone or as a mixture with a thermostable coupling binder and resistant to at least 200° C, the fluorocarbon resin and, where appropriate, the thermostable coupling binder forming a sintered network. - said contact surface includes an interface layer chemically activated by plasma and formed by plasma polymerisation, - said thermostable binder is a fluorocarbon resin or a mixture of fluorocarbon resins, alone or as a mixture with a thermostable coupling binder and resistant to at least 200° C, the fluorocarbon resin and, where appropriate, the thermostable coupling binder forming a sintered network.
Measuring device for measuring parameters of a body tissue using an elongated probe for insertion into the body tissue, comprising: - at least one optical guide for transmitting light rays that runs along the longitudinal axis of the probe within the probe, - an exit region, from which light rays emitted from the optical guide exit out of the probe, into the body tissue, whereby the emitted light rays have one or more wavelengths in the range between 600 nm and 1000 nm, and - at least one receiving region, through which light rays reflected and/or scattered in the body tissue, which have exited out of the exit region, enter as input light rays on a photo detector or in an optical guide (2;3) in the probe, characterized in that - the exit region is provided at the distal end of the probe, and is oriented in the longitudinal direction of the probe, so that emitted light rays exit the probe in longitudinal direction of the longitudinal axis thereof, and - the at least one receiving region is provided, at a distance from the exit region, on a lateral circumferential region radial to the longitudinal axis of the probe. - at least one optical guide for transmitting light rays that runs along the longitudinal axis of the probe within the probe, - an exit region, from which light rays emitted from the optical guide exit out of the probe, into the body tissue, whereby the emitted light rays have one or more wavelengths in the range between 600 nm and 1000 nm, and - at least one receiving region, through which light rays reflected and/or scattered in the body tissue, which have exited out of the exit region, enter as input light rays on a photo detector or in an optical guide (2;3) in the probe, characterized in that - the exit region is provided at the distal end of the probe, and is oriented in the longitudinal direction of the probe, so that emitted light rays exit the probe in longitudinal direction of the longitudinal axis thereof, and - the at least one receiving region is provided, at a distance from the exit region, on a lateral circumferential region radial to the longitudinal axis of the probe.
An item comprising thermoplastic polyurethane, which has, respectively, direct-contact adhesive bonding not only to rubber but also to engineering plastic, wherein the engineering plastic is polyamide, polybutylene terephthalate and/or polyethylene terephthalate.
An optical barrier film (2b, 2c, 3a, 3b) comprising: a barrier composite layer for being provided on a color conversion layer, said barrier composite layer having a second transparent film substrate and a barrier layer made of a vacuum deposition thin film layer which reduces infiltration of air and moisture; and an optical film comprising a first transparent film substrate, and a matte layer arranged on the first transparent film substrate and having irregularities, wherein the matte layer has a coefficient of static friction of not larger than 0.3 when measured by use of a tribometer Muze Type: 94i-II (commercial name) which has a brass slider treated with hard chrome, and a maximum height roughness Rz defined in JIS B0601: 2013 of not less than 0.05 μm to not larger than 8 μm, wherein the barrier composite layer is arranged and adhered to by an adhesive layer on a surface opposite to the matte layer side of the first transparent film substrate of the optical film. a barrier composite layer for being provided on a color conversion layer, said barrier composite layer having a second transparent film substrate and a barrier layer made of a vacuum deposition thin film layer which reduces infiltration of air and moisture; and an optical film comprising a first transparent film substrate, and a matte layer arranged on the first transparent film substrate and having irregularities, wherein the matte layer has a coefficient of static friction of not larger than 0.3 when measured by use of a tribometer Muze Type: 94i-II (commercial name) which has a brass slider treated with hard chrome, and a maximum height roughness Rz defined in JIS B0601: 2013 of not less than 0.05 μm to not larger than 8 μm, wherein the barrier composite layer is arranged and adhered to by an adhesive layer on a surface opposite to the matte layer side of the first transparent film substrate of the optical film.