mhurhangee/ep-ind-claims huggingface dataset:
Cosmetic hair treatment process, comprising: - a step (i) of applying to said hair a "first" cosmetic composition, comprising one or more cationic surfactants, one or more silicones and one or more non-silicone fatty substances, and then - a step (ii) of applying to said hair a "second" cosmetic composition, comprising one or more cationic surfactants, one or more cationic polymers with a cationic charge density of greater than or equal to 4 meq./g, and one or more organosilanes; said process not comprising an intermediate rinsing step between said application steps (i) and (ii). - a step (i) of applying to said hair a "first" cosmetic composition, comprising one or more cationic surfactants, one or more silicones and one or more non-silicone fatty substances, and then - a step (ii) of applying to said hair a "second" cosmetic composition, comprising one or more cationic surfactants, one or more cationic polymers with a cationic charge density of greater than or equal to 4 meq./g, and one or more organosilanes;
A smartwatch, comprising: a tilt sensor unit configured to sense a tilt of the smartwatch; a display unit configured to display visual information; and a processor configured to control the tilt sensor unit and the display unit, wherein the processor is further configured to: determine a reference position of the smartwatch, detect, using the tilt sensor unit, an outward rotation angle of the smartwatch when the smartwatch is outwardly rotated from the reference position, perform a first command corresponding to the outward rotation if the outward rotation angle exceeds a first rotation degree, detect, using the tilt sensor unit, an inward rotation angle of the smartwatch when the smartwatch is inwardly rotated from the reference position, and perform a second command corresponding to the inward rotation if the inward rotation angle exceeds a second rotation degree, characterised in that the first rotation degree is different from the second rotation degree. a tilt sensor unit configured to sense a tilt of the smartwatch; a display unit configured to display visual information; and a processor configured to control the tilt sensor unit and the display unit, wherein the processor is further configured to: determine a reference position of the smartwatch, detect, using the tilt sensor unit, an outward rotation angle of the smartwatch when the smartwatch is outwardly rotated from the reference position, perform a first command corresponding to the outward rotation if the outward rotation angle exceeds a first rotation degree, detect, using the tilt sensor unit, an inward rotation angle of the smartwatch when the smartwatch is inwardly rotated from the reference position, and perform a second command corresponding to the inward rotation if the inward rotation angle exceeds a second rotation degree, characterised in that determine a reference position of the smartwatch, detect, using the tilt sensor unit, an outward rotation angle of the smartwatch when the smartwatch is outwardly rotated from the reference position, perform a first command corresponding to the outward rotation if the outward rotation angle exceeds a first rotation degree, detect, using the tilt sensor unit, an inward rotation angle of the smartwatch when the smartwatch is inwardly rotated from the reference position, and perform a second command corresponding to the inward rotation if the inward rotation angle exceeds a second rotation degree, characterised in that the first rotation degree is different from the second rotation degree.
A method of storing or disinfecting a contact lens which comprises bringing said contact lens into contact with a composition, with an aqueous antimicrobial contact lens storage and/or disinfection composition comprising at least one bioflavonoid, selected from naringin, neohesperidin and mixtures thereof optionally together with other bioflavonoids such that naringin and neohesperidin comprise in excess of 75 % w/w of the bioflavonoid, wherein the composition further comprises citric acid.
An emergency luminaire with a housing, the housing accommodating a light source configured to emit light, wherein the housing is configured for attaching an emergency sign unit to the housing such that the light emitted by the light source lights the emergency sign unit when the emergency sign unit is attached to the housing; and characterized in that the emergency luminaire comprises control means configured to control light emission of the light source; and the control means is configured to determine whether the emergency sign unit is attached to the housing or not; and the control means is configured to control the light emission of the light source according to a first operation mode when no emergency sign unit is attached to the housing, and according to a second operation mode when the emergency sign unit is attached to the housing, wherein the second operation mode is different from the first operation mode. the emergency luminaire comprises control means configured to control light emission of the light source; and the control means is configured to determine whether the emergency sign unit is attached to the housing or not; and the control means is configured to control the light emission of the light source according to a first operation mode when no emergency sign unit is attached to the housing, and according to a second operation mode when the emergency sign unit is attached to the housing,
A metal sheet flatness control system to control flatness of metal sheets obtained by flattening and shearing an uncoiled metal sheet web in a production line; the metal sheet flatness control system comprises: ▪ a support frame; ▪ a measurement apparatus carried by the support frame and comprising one or more telemeters operable to measure distances relative to metal sheets whose flatness is to be controlled, and output distance data indicative of the distance measurements; and ▪ an electronic control unit connected to the measurement apparatus to control operation thereof, and receive and process distance data received from each telemeter to compute data indicative of the flatness of the metal sheets; wherein the electronic control unit is further configured to: - operate each telemeter to perform a series of distance measurements relative to a metal sheet; - compute at least one flatness index for the metal sheet based on distance data received from each telemeter; - compare the flatness index computed for the metal sheet with at least one threshold; and - provide indications on the flatness of the metal sheet based on the outcome of the comparison; - compute a detail flatness index based on differences between consecutive distance measurements in a given direction; and - compute a summary flatness index as maximum longitudinal deviation of consecutive distance measurements in a first direction and as maximum transverse deviation of consecutive distance measurements in a second direction transverse to the first direction. ▪ a support frame; ▪ a measurement apparatus carried by the support frame and comprising one or more telemeters operable to measure distances relative to metal sheets whose flatness is to be controlled, and output distance data indicative of the distance measurements; and ▪ an electronic control unit connected to the measurement apparatus to control operation thereof, and receive and process distance data received from each telemeter to compute data indicative of the flatness of the metal sheets; - operate each telemeter to perform a series of distance measurements relative to a metal sheet; - compute at least one flatness index for the metal sheet based on distance data received from each telemeter; - compare the flatness index computed for the metal sheet with at least one threshold; and - provide indications on the flatness of the metal sheet based on the outcome of the comparison; - compute a detail flatness index based on differences between consecutive distance measurements in a given direction; and - compute a summary flatness index as maximum longitudinal deviation of consecutive distance measurements in a first direction and as maximum transverse deviation of consecutive distance measurements in a second direction transverse to the first direction.
A method for supporting multiple IMSIs applied in a user terminal, comprising: sending an international mobile subscriber identity, IMSI, update command to a smart card of the user terminal, wherein the smart card supports multiple IMSIs; receiving IMSI update request information returned by the smart card; sending (S430, S900) an IMSI update request message to a server according to the IMSI update request information, wherein the IMSI update request message comprises at least one of: an IMSI application request message or an IMSI deletion request message; receiving (S450, S910) a response message returned by the server in response to the IMSI update request message; and transmitting (S460, S920) the response message to the smart card of the user terminal, so that the smart card executes an IMSI update operation, wherein the IMSI update operation comprises at least one of: adding an IMSI in the smart card or deleting an IMSI from the smart card. sending an international mobile subscriber identity, IMSI, update command to a smart card of the user terminal, wherein the smart card supports multiple IMSIs; receiving IMSI update request information returned by the smart card; sending (S430, S900) an IMSI update request message to a server according to the IMSI update request information, wherein the IMSI update request message comprises at least one of: an IMSI application request message or an IMSI deletion request message; receiving (S450, S910) a response message returned by the server in response to the IMSI update request message; and transmitting (S460, S920) the response message to the smart card of the user terminal, so that the smart card executes an IMSI update operation, wherein the IMSI update operation comprises at least one of: adding an IMSI in the smart card or deleting an IMSI from the smart card.
A method for operating a terminal device (104, 10n, 900, 1100), wherein different numerologies are configured for at least two carriers and at least two active bandwidth parts, BWPs, the at least two carriers belongs to a Timing Advance Group, TAG, each active BWP is associated with a numerology and the numerology comprises subcarrier spacing, SCS, the method comprising: receiving a time advance, TA, command from a network device (110, 800, 1000); determining a TA granularity; and determining a TA value based at least partly on the TA command and the TA granularity, wherein the TA granularity of the TAG is determined based on a numerology with the largest SCS of the multiple numerologies associated with the at least two active BWPs. receiving a time advance, TA, command from a network device (110, 800, 1000); determining a TA granularity; and determining a TA value based at least partly on the TA command and the TA granularity, wherein the TA granularity of the TAG is determined based on a numerology with the largest SCS of the multiple numerologies associated with the at least two active BWPs.
A method comprising the following steps: - providing a pre-processed element (2; 102) made of at least one polymeric material, - introducing the pre-processed element (2; 102) in a female mould part (28; 128) having a forming cavity (34; 134), - shaping the pre-processed element (2; 102) between the female mould part (28; 128) and a male mould part (29; 129), the female mould part (28; 128) and the male mould part (29; 129) being movable relative to one another along a moulding direction so as to form a concave object from the pre-processed element (2; 102), wherein the forming cavity (34; 134) has a transversal dimension measured transversely to the moulding direction, the forming cavity (34; 134) further having a transition zone (53; 153) defined by a funnel-shaped surface (43; 143) in which the transversal dimension progressively decreases from a larger value to a smaller value, the forming cavity (34; 134) further having a bottom, characterized in that, during the introducing step, the pre-processed element (2; 102) is placed in the forming cavity (34; 134) and rests on the transition zone (53; 153) in an upper portion of the forming cavity (34; 134), thereby remaining on the funnel-shaped surface (43; 143) at a distance from the bottom of the forming cavity (34; 134). - providing a pre-processed element (2; 102) made of at least one polymeric material, - introducing the pre-processed element (2; 102) in a female mould part (28; 128) having a forming cavity (34; 134), - shaping the pre-processed element (2; 102) between the female mould part (28; 128) and a male mould part (29; 129), the female mould part (28; 128) and the male mould part (29; 129) being movable relative to one another along a moulding direction so as to form a concave object from the pre-processed element (2; 102),
Tanning device including a pressure vessel for receiving collagen-containing material to be treated, wherein the pressure vessel comprises: - a closable opening for loading the pressure vessel with material to be treated, and - at least one mixing element which is arranged in the pressure vessel and projects into an interior of the pressure vessel; wherein the pressure vessel withstands a pressure of at least 5 bar, and wherein the tanning device comprises a feed device for liquid which is arranged at a first end face of the pressure vessel and extends coaxially with an axis of rotation of the pressure vessel from outside through the first end face into the pressure vessel, characterised in that - the pressure vessel is rotatably mounted and a drive is configured to set the pressure vessel in rotation, - the closable opening is configured for loading and unloading the pressure vessel, - the feed device is configured as a feed device for liquid and compressed gas in the form of a rotary feedthrough, and - the pressure vessel comprises a shielding device which is permeable to liquid and gas and which is arranged inside the pressure vessel close to a rotary feedthrough outlet. - a closable opening for loading the pressure vessel with material to be treated, and - at least one mixing element which is arranged in the pressure vessel and projects into an interior of the pressure vessel; - the pressure vessel is rotatably mounted and a drive is configured to set the pressure vessel in rotation, - the closable opening is configured for loading and unloading the pressure vessel, - the feed device is configured as a feed device for liquid and compressed gas in the form of a rotary feedthrough, and - the pressure vessel comprises a shielding device which is permeable to liquid and gas and which is arranged inside the pressure vessel close to a rotary feedthrough outlet.
A method for transmitting first number of single-carrier frequency division multiple access, SC-FDMA, symbols and a second number of SC-FDMA symbols in a slot in a SC-FDMA communication system, wherein a reference signal is transmitted in the first number of SC-FDMA symbols (112, 116, 139, 143, 132, 136, 119, 123) and channel quality indication, CQI, bits are transmitted in the second number of SC-FDMA symbols (111, 113, 114, 115, 117, 138, 140, 141, 142, 144, 131, 133, 134, 135, 137, 118, 120, 121, 122, 124), the method comprising the steps of: modulating the first number of SC-FDMA symbols by a first orthogonal cover if only CQI bits are transmitted in the second number of SC-FDMA symbols; and modulating the first number of SC-FDMA symbols by a second orthogonal cover if CQI bits and acknowledgment bits corresponding to correct or incorrect reception of data are transmitted in the second number of SC-FDMA symbols; and transmitting the first number of SC-FDMA symbols and the second number of SC-FDMA symbols. modulating the first number of SC-FDMA symbols by a first orthogonal cover if only CQI bits are transmitted in the second number of SC-FDMA symbols; and modulating the first number of SC-FDMA symbols by a second orthogonal cover if CQI bits and acknowledgment bits corresponding to correct or incorrect reception of data are transmitted in the second number of SC-FDMA symbols; and transmitting the first number of SC-FDMA symbols and the second number of SC-FDMA symbols.
Audio decoder device for decoding a bitstream, the audio decoder device comprising: a bitstream receiver configured to receive the bitstream and to derive an encoded audio signal from the bitstream; a core decoder module configured for deriving a decoded audio signal in time domain from the encoded audio signal; a temporal envelope generator configured to determine a temporal envelope of the decoded audio signal; a bandwidth extension module configured to produce a frequency domain bandwidth extension signal, wherein the bandwidth extension module comprises a noise generator configured to produce a noise signal in time domain, wherein the bandwidth extension module comprises a pre-shaping module configured for temporal shaping of the noise signal depending on the temporal envelope of the decoded audio signal in order to produce a shaped noise signal and wherein the bandwidth extension module comprises a time-to-frequency converter configured to transform the shaped noise signal into a frequency domain noise signal, wherein the frequency domain bandwidth extension signal depends on the frequency domain noise signal; a time-to-frequency converter configured to transform the decoded audio signal into a frequency domain decoded audio signal; a combiner configured to combine the frequency domain decoded audio signal and the frequency domain bandwidth extension signal in order to produce a bandwidth extended frequency domain audio signal; and a frequency-to-time converter configured to transform the bandwidth extended frequency domain audio signal into a bandwidth-extended time domain audio signal. a bitstream receiver configured to receive the bitstream and to derive an encoded audio signal from the bitstream; a core decoder module configured for deriving a decoded audio signal in time domain from the encoded audio signal; a temporal envelope generator configured to determine a temporal envelope of the decoded audio signal; a bandwidth extension module configured to produce a frequency domain bandwidth extension signal, wherein the bandwidth extension module comprises a noise generator configured to produce a noise signal in time domain, wherein the bandwidth extension module comprises a pre-shaping module configured for temporal shaping of the noise signal depending on the temporal envelope of the decoded audio signal in order to produce a shaped noise signal and wherein the bandwidth extension module comprises a time-to-frequency converter configured to transform the shaped noise signal into a frequency domain noise signal, wherein the frequency domain bandwidth extension signal depends on the frequency domain noise signal; a time-to-frequency converter configured to transform the decoded audio signal into a frequency domain decoded audio signal; a combiner configured to combine the frequency domain decoded audio signal and the frequency domain bandwidth extension signal in order to produce a bandwidth extended frequency domain audio signal; and a frequency-to-time converter configured to transform the bandwidth extended frequency domain audio signal into a bandwidth-extended time domain audio signal.
An arrangement of electrochemical cells, in particular for use in redox flow batteries, in which at least one electrochemical cell is formed having a plurality of base elements (GE-X) arranged above one another and connected in a fluid-tight manner at their outer marginal regions; two electrodes (3, 3.1, 3.2); a separator or a membrane (2, 2.1), two respective inlets and outlets (4 and 5); and at least two regions for reactants hat can be flowed through and that are each in contact with one of the two electrodes (3, 3.1, 3.2), wherein the reactants are water, alcohols, aqueous electrolytes or electrolytes on a basis of organic solvents or ionic liquids or hydrogen, liquid or gaseous hydrocarbon compounds, oxygen or a gas mixture including oxygen, characterized in that the electrochemical cells are formed with base elements (GE-X) arranged above one another and the base elements (GE-X) are planar structures that have a net structure or are formed from a porous material, with the electrochemical cells being connected in a fluid-tight manner in the outer marginal region exclusively by means of base elements (GE-X) and a first filler material (FM-1), with the first filler material (FM-1) being introduced into hollow spaces such that they are filled at least almost completely and no additional frame element is present; and regions having at least one filler material (FM-Y) being provided in base elements (GE-X), said regions forming with a base element (GE-X) a seal, a separator or a membrane (2, 2.1), an electrode (3, 3.1, 3.2), a bipolar plate or a film (6, 6.1); with regions without filler material (FM-Y) acting as spacers and being fluidically permeable for the reactants in and perpendicular to the plane of base elements (GE-X) and thereby forming defined flow paths for the reactants; and regions having apertures being present that form fluidic inlets and outlets (4 and 5) as well as passage and distribution structures and that form regions that can be flowed through by reactants; or regions having apertures representing receptacles for functional materials such as a separator or membrane (2, 2.1), electrodes (3, 3.1, 3.2) that can be flowed through or over, and bipolar plates or films (6, 6.1) or functional elements.
A ceramic heater, comprising: a ceramic base body having a circular cylindrical shape; and a heat generating resistor comprising a heat generation section composed of a bend portion and two rectilinear portions (2a, 2b) extending from opposite ends of the bend portion, respectively, the heat generating resistor being embedded within the ceramic base body, wherein the two rectilinear portions (2a, 2b) each comprise a concavely recessed inner elliptical arc side, the respective recessed inner elliptical arc sides of the two rectilinear portions (2a, 2b) being opposed to each other in a cross-sectional view of the two rectilinear portions (2a, 2b), and the two rectilinear portions (2a, 2b) each have a crescentic shape in the cross-sectional view. a ceramic base body having a circular cylindrical shape; and a heat generating resistor comprising a heat generation section composed of a bend portion and two rectilinear portions (2a, 2b) extending from opposite ends of the bend portion, respectively, the heat generating resistor being embedded within the ceramic base body, wherein the two rectilinear portions (2a, 2b) each comprise a concavely recessed inner elliptical arc side, the respective recessed inner elliptical arc sides of the two rectilinear portions (2a, 2b) being opposed to each other in a cross-sectional view of the two rectilinear portions (2a, 2b), and the two rectilinear portions (2a, 2b) each have a crescentic shape in the cross-sectional view.