mhurhangee/ep-ind-claims huggingface dataset:
Household appliance with a door, wherein the household appliance comprises a locking device with at least one permanent magnet (105-1, 105-2) for exerting a retaining force for holding the door closed and a coil for generating a counter magnetic field for neutralizing the retaining force, wherein the locking device is arranged in the door or a housing of the household appliance, wherein the locking device comprises a highly magnetically permeable flux guide (109-1, 109-2) for guiding the magnetic field generated by the permanent magnet (105-1, 105-2), wherein the coil is wound around the flux guide (109-1, 109-2), wherein the locking device comprises a first flux guide and a second flux guide, wherein a first permanent magnet and a second permanent magnet are arranged between the first flux guide and the second flux guide, wherein the coil is wound around the first flux guide and the second flux guide, wherein the locking device comprises a movable highly magnetically permeable control armature for guiding the magnetic field.
A rubber composition comprising a diene rubber including at least one type of styrene-butadiene copolymer and a reinforcing filler, wherein a styrene-butadiene copolymer component including the at least one type of styrene-butadiene copolymer has the characteristics of to: a content of bonded styrene is from 5 to 50 wt.%, determined by 1 H-NMR; when a decomposed component S1 including one styrene-derived unit and a decomposed component S1V1 including one styrene-derived unit and one 1,2-bonded butadiene-derived unit are measured by gel permeation chromatography as decomposed components obtained by ozone decomposition, a total content of styrene of the decomposed component S1 and the decomposed component S1V1 is less than 80 wt.% of the amount of bonded styrene, and a total content of styrene of the decomposed component S1V1 is less than 10 wt.% of the amount of bonded styrene; when the decomposed components obtained by ozone decomposition are measured by a liquid chromatography-mass spectrometer, an integrated intensity of a decomposed component S1V2 including one styrene-derived unit and two 1,2-bonded butadiene-derived units is not less than 15% of an integrated intensity of all the decomposed components including styrene-derived units; and a vinyl content of a butadiene portion is not less than 20% and less than 50%, determined by 1 H-NMR. a content of bonded styrene is from 5 to 50 wt.%, determined by 1 H-NMR; when a decomposed component S1 including one styrene-derived unit and a decomposed component S1V1 including one styrene-derived unit and one 1,2-bonded butadiene-derived unit are measured by gel permeation chromatography as decomposed components obtained by ozone decomposition, a total content of styrene of the decomposed component S1 and the decomposed component S1V1 is less than 80 wt.% of the amount of bonded styrene, and a total content of styrene of the decomposed component S1V1 is less than 10 wt.% of the amount of bonded styrene; when the decomposed components obtained by ozone decomposition are measured by a liquid chromatography-mass spectrometer, an integrated intensity of a decomposed component S1V2 including one styrene-derived unit and two 1,2-bonded butadiene-derived units is not less than 15% of an integrated intensity of all the decomposed components including styrene-derived units; and a vinyl content of a butadiene portion is not less than 20% and less than 50%, determined by 1 H-NMR.
Thermoelectric module, - comprising a metallic module housing which surrounds a module interior, - comprising a plurality of thermoelectric elements arranged in the module interior, - comprising a plurality of conductor bridges arranged in the module interior for electrically interconnecting the thermoelectric elements, - wherein the module housing has a cold side wall on its cold side, the cold side wall being connected to a plurality of cold-side conductor bridges in a thermally conductive, electrically insulating and permanent manner, - wherein the module housing has a warm side wall on its warm side, the warm side wall being connected to a plurality of warm-side conductor bridges in a thermally conductive, electrically insulating and permanent manner, - wherein the thermoelectric elements extend between the cold-side conductor bridges and the warm-side conductor bridges, - wherein the cold side wall is formed from a first metal material, whereas the warm side wall is formed from a second metal material, - wherein the first metal material has a first coefficient of thermal expansion and the second metal material has a second coefficient of thermal expansion, - wherein the second coefficient of thermal expansion is different from the first coefficient of thermal expansion, characterised in that - at least one of the metal materials is an iron material, the wall (9, 10) formed therefrom having an electrically insulating, glass-ceramic sol-gel or silicon (di)oxide or polysilazane coating. - comprising a metallic module housing which surrounds a module interior, - comprising a plurality of thermoelectric elements arranged in the module interior, - comprising a plurality of conductor bridges arranged in the module interior for electrically interconnecting the thermoelectric elements, - wherein the module housing has a cold side wall on its cold side, the cold side wall being connected to a plurality of cold-side conductor bridges in a thermally conductive, electrically insulating and permanent manner, - wherein the module housing has a warm side wall on its warm side, the warm side wall being connected to a plurality of warm-side conductor bridges in a thermally conductive, electrically insulating and permanent manner, - wherein the thermoelectric elements extend between the cold-side conductor bridges and the warm-side conductor bridges, - wherein the cold side wall is formed from a first metal material, whereas the warm side wall is formed from a second metal material, - wherein the first metal material has a first coefficient of thermal expansion and the second metal material has a second coefficient of thermal expansion, - wherein the second coefficient of thermal expansion is different from the first coefficient of thermal expansion, - at least one of the metal materials is an iron material, the wall (9, 10) formed therefrom having an electrically insulating, glass-ceramic sol-gel or silicon (di)oxide or polysilazane coating.
A cleansing composition for keratin fibers, preferably for human keratin fibers, more preferably for human hair, having a pH in the range of 1 to 7 comprising: a) one or more amphoteric and/or zwitterionic surfactant(s), and/or their salt(s), b) one or more non-ionic surfactant(s), c) one or more internal olefin sulfonate surfactant(s) obtained by sulfonating an internal olefin having 16 carbon atoms and having an average double bond position in the range from 3.9 to 4.5, and/or its salt(s), wherein the weight ratio of compounds according to group a) to compounds according to group c) is in the range of 2 to 15. a) one or more amphoteric and/or zwitterionic surfactant(s), and/or their salt(s), b) one or more non-ionic surfactant(s), c) one or more internal olefin sulfonate surfactant(s) obtained by sulfonating an internal olefin having 16 carbon atoms and having an average double bond position in the range from 3.9 to 4.5, and/or its salt(s),
A clamping fixture, in particular a vice, with a housing in which a guide track is provided and with at least two base jaws (3, 4) to each of which a clamping jaw (6, 7) can be attached, in which case an air gap and an air gap in a parting plane is provided between the base jaws (3, 4) and on the end faces in the area of the guide track running there, and that a seal is inserted into each of the air gaps, characterised in that, the particular seal is held in a specified position by means of a support strip attached to the housing of the clamping fixture.
Machine adapted for the preparation of aromatic beverages such as espresso coffee and similar, presenting a machine body and: - at least one extraction device adapted for the extraction of a dose of a beverage ingredient, - at least one beverage discharge disposed downstream of said extraction device, - a flow discharge disposition adapted so as to provide a flow connection between said extraction device and said beverage discharge, whereby said flow discharge disposition presents a first and second flow sections (51, 52) arranged successively along the flow direction and separated by a throttling section that presents a substantially smaller flow passage area than said flow sections (51, 52), and said flow sections (51, 52) present at least one exhaustion opening adapted so that it can provide for air to exit from said flow discharge disposition, whereby said throttling section configures a double deflection of the prevailing flow direction, characterized in that said throttling section configures a first deflection of flow direction from substantially horizontal to substantially vertical and a second deflection of flow direction from substantially vertical to substantially horizontal, along the general flow direction. - at least one extraction device adapted for the extraction of a dose of a beverage ingredient, - at least one beverage discharge disposed downstream of said extraction device, - a flow discharge disposition adapted so as to provide a flow connection between said extraction device and said beverage discharge,
A wireless device, comprising: a phased antenna array; and a transceiver communicatively coupled to the phased antenna array; an antenna control module communicatively coupled to the transceiver and the phased antenna array, the antenna control module operative to initiate beam formation operations using an iterative training scheme to form a pair of communications channels for a wireless personal area network, the antenna control module to communicate training signals and feedback information with a peer device via the transceiver and phased antenna array using at least a high rate channel for the feedback information, and iteratively determine antenna-array weight vectors for a directional transmit beam pattern for the phased antenna array of the wireless device using feedback information from the peer device and send feedback information to the peer device using the directional transmit beam pattern for the phased antenna array of the wireless device determined from feedback information from the peer device. a phased antenna array; and a transceiver communicatively coupled to the phased antenna array; an antenna control module communicatively coupled to the transceiver and the phased antenna array, the antenna control module operative to initiate beam formation operations using an iterative training scheme to form a pair of communications channels for a wireless personal area network, the antenna control module to communicate training signals and feedback information with a peer device via the transceiver and phased antenna array using at least a high rate channel for the feedback information, and iteratively determine antenna-array weight vectors for a directional transmit beam pattern for the phased antenna array of the wireless device using feedback information from the peer device and send feedback information to the peer device using the directional transmit beam pattern for the phased antenna array of the wireless device determined from feedback information from the peer device.
Method for operating an ultrasound sensor, comprising the steps of - detecting an operating voltage applied to the ultrasound sensor, and - adjusting a transmission power of the ultrasound sensor depending on the detected applied operating voltage, characterized in that the transmission power is reduced when the detected operating voltage is below a threshold value, wherein a degree of adjustment of the transmission power is transmitted to a control device and an individual value for the sound pressure of the ultrasound sensor is output depending on the adjustment, wherein a loss of range is estimated depending on the individual value for the sound pressure so that a value representing the range of the ultrasound sensor is provided and a piece of information is output to the driver depending on the range of the ultrasound sensor. - detecting an operating voltage applied to the ultrasound sensor, and - adjusting a transmission power of the ultrasound sensor depending on the detected applied operating voltage, characterized in that the transmission power is reduced when the detected operating voltage is below a threshold value, wherein a degree of adjustment of the transmission power is transmitted to a control device and an individual value for the sound pressure of the ultrasound sensor is output depending on the adjustment, wherein a loss of range is estimated depending on the individual value for the sound pressure so that a value representing the range of the ultrasound sensor is provided and a piece of information is output to the driver depending on the range of the ultrasound sensor.
A FOLFOX regimen or a FOLFIRI regimen for use in the treatment of colorectal cancer in a patient, whereby the patient has been selected by the method comprising the steps of: measuring a gain in a copy number of a specific region on a human chromosome in a tumor tissue specimen of the colorectal cancer; and selecting either the FOLFOX regimen or the FOLFIRI regimen on a basis of whether the copy number is gained or not, wherein the specific region on the human chromosome is one region among the 7p15.3 region, 9q34.3 region, and combination of 7p15.3 and 8q24.1 regions. measuring a gain in a copy number of a specific region on a human chromosome in a tumor tissue specimen of the colorectal cancer; and selecting either the FOLFOX regimen or the FOLFIRI regimen on a basis of whether the copy number is gained or not, wherein the specific region on the human chromosome is one region among the 7p15.3 region, 9q34.3 region, and combination of 7p15.3 and 8q24.1 regions.
An ambulatory infusing device, comprising: a housing; a reservoir defining an interior volume; a divider wall associated with the housing and having an inner surface that faces into the reservoir interior volume; and a filter assembly including: a filter assembly housing with a housing filter portion (166, 166h) having a filter supporting volume, and a filter located within the filter supporting volume, wherein the device further includes a bubble guard (162, 162a, 162b, 162c, 162g, 162i), including a convex bubble guard wall (182, 182g) and at least one bubble guard aperture (184, 184a, 184b, 184c) that extends through the convex bubble guard wall (182, 182g), associated with the filter assembly housing such that the convex bubble guard wall (182, 182g) is located in spaced relation to the filter and bubbles will tend to roll off the bubble guard (162, 162a, 162b, 162c, 162g, 162i) instead of passing through any of the bubble guard apertures (184, 184a, 184b, 184c). a housing; a reservoir defining an interior volume; a divider wall associated with the housing and having an inner surface that faces into the reservoir interior volume; and a filter assembly including: a filter assembly housing with a housing filter portion (166, 166h) having a filter supporting volume, and a filter located within the filter supporting volume, wherein the device further includes a bubble guard (162, 162a, 162b, 162c, 162g, 162i), including a convex bubble guard wall (182, 182g) and at least one bubble guard aperture (184, 184a, 184b, 184c) that extends through the convex bubble guard wall (182, 182g), associated with the filter assembly housing such that the convex bubble guard wall (182, 182g) is located in spaced relation to the filter and bubbles will tend to roll off the bubble guard (162, 162a, 162b, 162c, 162g, 162i) instead of passing through any of the bubble guard apertures (184, 184a, 184b, 184c).
An electronic node unit for transmitting data between a first line connection for data communication by wire, in particular coaxially by wire, and a second line connection for data communication by fiber, in particular optical fiber, the electronic node unit having data reception means for a high-frequency, in particular multichannel wanted signal and/or a wanted signal having a plurality of carrier frequencies at the first line connection, wanted signal detection means for detecting whether the wanted signal is available at the data reception means and can be provided by said data reception means for a transmission, and light signal generation means which are disposed downstream of the wanted signal detection means, which can be modulated by means of the wanted signal and which can be operated in a noncontinuous operating mode, in particular burst mode, in response to an activation by the wanted signal detection means, the light signal generation means being used for generating an optical carrier signal which is provided at the second line connection in order to couple into an optical fiber and which is modulated by means of the wanted signal modulation delay means (42, 44; 48; 50; 54) being assigned to the light signal generation means in such a manner that an application of the wanted signal to the light signal generation means which causes the modulation of the optical carrier signal is delayed by a predetermined and/or predefined delay time in addition to a time delay due to a supply period, the delay time being in particular determined and/or set in such a manner that the delay time only elapses when a signal-generating light source of the light signal generation means reaches at least 40 %, preferably at least 50 %, more preferably at least 60 %, of a steady-state and/or a maximum optical light output of the light source after the activation, characterized in that the modulation delay means which are realized for detecting the operating current and/or optical light output of the light signal generation means have assigned hysteresis means in such a manner that, after an activation relating to a threshold value of a user data flow from the data reception means to the light signal generation means, said user data flow is only interrupted and/or deactivated when an actual detection value of the operating current and/or light output detection falls below the threshold value by a predefined hysteresis distance.
Method for producing a waveguide comprising at least one core and a sheath, the method comprising at least the following steps: - Providing a substrate, - Depositing a layer based on germanium (Ge) on the substrate, - Forming the core of the waveguide in said layer based on Ge, - Depositing an encapsulation layer around the core, the encapsulation layer having a germanium content t Ge encapsulation nulle or such that: t Ge encapsulation ≤ 0.9 t Ge core, t Ge core being the germanium content of the core, so as to at least partially form the sheath, the method being characterised in that, before the step of depositing the encapsulation layer, the method further comprises at least the following step: - Depositing by epitaxy a shell around the core, said shell at least partially forming said sheath and having a germanium content t Ge shell nulle or such that: t Ge shell ≤ 0.9 t Ge core, the deposition by epitaxy of the shell being performed at a temperature T epitaxy shell ≤ 780°C, and and in that said encapsulation layer is deposited by epitaxy at a temperature T epitaxy encapsulation such that: T epitaxy encapsulation ≥ 1.08 ∗ T epitaxy shell. - Providing a substrate, - Depositing a layer based on germanium (Ge) on the substrate, - Forming the core of the waveguide in said layer based on Ge, - Depositing an encapsulation layer around the core, the encapsulation layer having a germanium content t Ge encapsulation nulle or such that: t Ge encapsulation ≤ 0.9 t Ge core, t Ge core being the germanium content of the core, so as to at least partially form the sheath, the method being characterised in that, before the step of depositing the encapsulation layer, the method further comprises at least the following step: - Depositing by epitaxy a shell around the core, said shell at least partially forming said sheath and having a germanium content t Ge shell nulle or such that: t Ge shell ≤ 0.9 t Ge core, the deposition by epitaxy of the shell being performed at a temperature T epitaxy shell ≤ 780°C, and and in that said encapsulation layer is deposited by epitaxy at a temperature T epitaxy encapsulation such that: T epitaxy encapsulation ≥ 1.08 ∗ T epitaxy shell.
A method of fabricating a ceramic component, the method comprising: using vapor infiltration to deposit a ceramic coating within pores of a porous structure to form a preform body with residual interconnected porosity, wherein the residual porosity is 40-80 volume percent; using transfer molding to deposit a heated, liquid glass or glass/ceramic material within the residual interconnected porosity of the preform body; and solidifying the liquid glass or glass/ceramic material to form a ceramic component including solid glass or glass/ceramic material, the ceramic coating and the porous structure, wherein the transfer molding step includes transfer molding the liquid glass or glass/ceramic material at a viscosity of 5 - 15 Pa·s and a molding pressure of 0.5 - 1.5 ksi (3.4 - 10.3 megapascals) to produce a residual void volume of less than one volume percent in the ceramic component. using vapor infiltration to deposit a ceramic coating within pores of a porous structure to form a preform body with residual interconnected porosity, wherein the residual porosity is 40-80 volume percent; using transfer molding to deposit a heated, liquid glass or glass/ceramic material within the residual interconnected porosity of the preform body; and solidifying the liquid glass or glass/ceramic material to form a ceramic component including solid glass or glass/ceramic material, the ceramic coating and the porous structure, wherein the transfer molding step includes transfer molding the liquid glass or glass/ceramic material at a viscosity of 5 - 15 Pa·s and a molding pressure of 0.5 - 1.5 ksi (3.4 - 10.3 megapascals) to produce a residual void volume of less than one volume percent in the ceramic component.
A process for spray drying of a feed solution comprising semaglutide, said process comprising introducing the feed solution comprising semaglutide in a solvent into a spray dryer at a feed flow rate and introducing an atomising gas at an atomising gas flow rate, wherein the ratio of atomising gas flow rate (kg/h) to feed flow rate (kg/h) is in the range 1.0-1.7.