mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication method performed by a first device, the method comprising the steps of: a.) sending first capability information to at least one second device, wherein the first capability information indicates information related to a multi - timinig advance, multi-TA, capability of the first device, wherein the first capability indication indicates whether the first device supports the multi-TA capability or not, and indicates if the first device supports a dual-TA capability, a three-TA capability, or another capability; b.) receiving at least two pieces of TA information from the at least one second device, wherein the at least two pieces of TA information are corresponding to at least two beams of the first device on the same carrier; and c.) performing timing adjustment on the transmission to the at least one second device on the at least two beams based on the at least two pieces of TA information. a.) sending first capability information to at least one second device, wherein the first capability information indicates information related to a multi - timinig advance, multi-TA, capability of the first device, wherein the first capability indication indicates whether the first device supports the multi-TA capability or not, and indicates if the first device supports a dual-TA capability, a three-TA capability, or another capability; b.) receiving at least two pieces of TA information from the at least one second device, wherein the at least two pieces of TA information are corresponding to at least two beams of the first device on the same carrier; and c.) performing timing adjustment on the transmission to the at least one second device on the at least two beams based on the at least two pieces of TA information.
Time domain reflectometry system for localising in an unambiguous manner at least one singularity in a cable, characterised in that it comprises calculation means for reflectometry signals which are generating a first injection signal f A (t) and a second injection signal f B (t) on the basis of at least one reflectometry signal s(t) and two coupling and transmission means (518, 519) for the injection signals f A (t), f B (t) at two different locations (A, B) of the cable, the injection signals f A (t), f B (t) being constructed in such a manner that the signal which is propagated at one side of the cable is equal to the reflectometry signal s(t) and the signal which is propagated at the other side of the cable is substantially zero.
Refrigeration appliance, in particular a household refrigeration appliance comprising an inner compartment surrounded by a thermal insulation layer and divided into a storage chamber and an evaporator chamber, an inner container which separates the inner compartment from the thermal insulation layer, an evaporator which cools the inner compartment and a condensate drain which leads into the open from the evaporator through said thermal insulation layer, which condensate drain has a siphon arranged on the inner side of the thermal insulation layer on the base of a depression of the inner container in the evaporator chamber and a defrost heater (25, 27) for heating the siphon, characterised in that the inner container is deep-drawn from plastic and the base of the depression is at least partially made of metal and provided with an infrared-absorbing surface layer.
An arrangement for measuring a physical quantity, especially for measuring a filling state, comprising several measuring sensors, wherein the measuring sensors concern capacitive measuring sensors and each measuring sensor is connected downstream to an inverting measuring signal amplifier (17; 17.1, 17.2), wherein one output each of a measuring sensor is connected to an inverting input of the inverting measuring signal amplifier (17; 17.1, 17.2) which is connected downstream of the measuring sensor, and wherein the several measuring sensors are formed by a transmitting electrode and several receiving electrodes (E; E1, E2, E3, E4), wherein the receiving electrodes (E; E1, E2, E3, E4) are arranged to be spaced from the transmitting electrode, characterized in that a reference signal generator is associated with each measuring sensor, to which an inverting reference signal amplifier is connected downstream, wherein one output of the reference signal generator is connected to an inverting input of the inverting reference signal amplifier, and that to each inverting measuring signal amplifier (17; 17.1, 17.2) an integrator is connected downstream, with an output signal of the inverting measuring signal amplifier (17; 17.1, 17.2) being applied to the inverting input of said integrator and an output signal of the inverting reference signal amplifier being applied to its non-inverting input, which reference signal amplifier is connected downstream of the reference signal generator which is associated with the measuring sensor, to which the inverting measuring signal amplifier (17; 17.1, 17.2) is connected downstream.
A method of providing an anti-microbial effect to laundry comprising the steps of: a depositing a polymer complex comprising i polymer A selected from the group of homopolymers and copolymers of carboxylic acid, and ii a polymer B selected from the group of homopolymers and copolymers of alkylene oxides, vinyl pyrrolidone; and/or the group of homopolymers and copolymers of vinyl alcohol, saccharides, hydroxyalkyl cellulose; wherein the polymer A and polymer B are not of the same class and iii a quaternary ammonium biocide to a fabric article, and b leaving the fabric article to dry; and, wherein the fabric is not rinsed between steps a and b. a depositing a polymer complex comprising i polymer A selected from the group of homopolymers and copolymers of carboxylic acid, and ii a polymer B selected from the group of homopolymers and copolymers of alkylene oxides, vinyl pyrrolidone; and/or the group of homopolymers and copolymers of vinyl alcohol, saccharides, hydroxyalkyl cellulose; wherein the polymer A and polymer B are not of the same class and iii a quaternary ammonium biocide to a fabric article, and i polymer A selected from the group of homopolymers and copolymers of carboxylic acid, and ii a polymer B selected from the group of homopolymers and copolymers of alkylene oxides, vinyl pyrrolidone; and/or the group of homopolymers and copolymers of vinyl alcohol, saccharides, hydroxyalkyl cellulose; iii a quaternary ammonium biocide to a fabric article, and b leaving the fabric article to dry; and,
A fusion protein consisting of: an extracellular region of the human cadherin 26 protein comprising SEQ ID NO: 2 (extracellular cadherin repeat domain 1, EC1), and a heavy chain constant region (Fc) of a human immunoglobulin (Ig) molecule; and optionally: a signal sequence, and/or a linker sequence between the extracellular region of CDH26 and the Fc region. an extracellular region of the human cadherin 26 protein comprising SEQ ID NO: 2 (extracellular cadherin repeat domain 1, EC1), and a heavy chain constant region (Fc) of a human immunoglobulin (Ig) molecule; and optionally: a signal sequence, and/or a linker sequence between the extracellular region of CDH26 and the Fc region.
A method for producing an orodispersible film, comprising the following steps: i) forming a suspension of a pharmaceutically acceptable solvent, a pharmaceutically acceptable matrix material, and a pharmaceutically acceptable binder, said solvent being selected such that the pharmaceutically acceptable matrix material substantially does not dissolve in it, so that the solubility of the pharmaceutically acceptable matrix material in the solvent is not more than 1 g/L at 23°C, whereas the pharmaceutically acceptable binder is dissolved in the solvent, ii) casting the suspension onto a neutral support, thereby forming a wet film, and iii) drying the wet film and obtaining a dry porous film, wherein the method further comprises a step of iv) applying a suspension or solution of a pharmaceutically active ingredient in a pharmaceutically acceptable solvent to the dry film obtained from step iii) and drying the film, an orodispersible dry film being obtained, the pores of which are filled at least is part with the pharmaceutical active ingredient. i) forming a suspension of a pharmaceutically acceptable solvent, a pharmaceutically acceptable matrix material, and a pharmaceutically acceptable binder, said solvent being selected such that the pharmaceutically acceptable matrix material substantially does not dissolve in it, so that the solubility of the pharmaceutically acceptable matrix material in the solvent is not more than 1 g/L at 23°C, whereas the pharmaceutically acceptable binder is dissolved in the solvent, ii) casting the suspension onto a neutral support, thereby forming a wet film, and iii) drying the wet film and obtaining a dry porous film, wherein the method further comprises a step of iv) applying a suspension or solution of a pharmaceutically active ingredient in a pharmaceutically acceptable solvent to the dry film obtained from step iii) and drying the film, an orodispersible dry film being obtained, the pores of which are filled at least is part with the pharmaceutical active ingredient.
Heat-shield element, in particular for cladding a combustion chamber wall, comprising a first wall having a hot side which can be exposed to a hot medium, a cold side opposite the hot side and a circumferential edge which extends on a first, a second and a third narrow side substantially up to a first height around the cold side of the first wall, characterized in that the circumferential edge extends up to a second height, smaller than the first height, on a fourth narrow side, and in that substantially at the second height a second wall lies opposite the cold side and extends over the breadth of the fourth narrow side from the fourth narrow side over part of the length of the narrow sides (20, 22) adjacent to the fourth narrow side, wherein the second wall has, at its end facing away from the fourth narrow side, an edge which extends up to the first height.
An ostomy appliance comprising an adhesive wafer for attachment to the body, the wafer comprises a central aperture for accommodating a stoma and a skin facing surface and a non skin-facing surface, the non skin-facing surface being provided with a backing layer, the skin facing surface of the wafer comprises 1) a central area comprising a substantially non-absorbent protective adhesive, the protective adhesive having a peel force from 3 to 20 N/25mm on steel, measured by the approved standard ASTM D6862-04, 2) an intermediate area surrounding the central area, said area comprising a substantially non-absorbent soft adhesive, the soft adhesive is having a peel force of 1 to 10 N/25mm on steel, measured by the approved standard ASTM D6862-04 and 3) an edge area surrounding the intermediate area, said edge area comprising a substantially non-absorbent protective adhesive, the protective adhesive having a peel force from 3 to 20 N/25mm on steel measured by the approved standard ASTM D6862-04. 1) a central area comprising a substantially non-absorbent protective adhesive, the protective adhesive having a peel force from 3 to 20 N/25mm on steel, measured by the approved standard ASTM D6862-04, 2) an intermediate area surrounding the central area, said area comprising a substantially non-absorbent soft adhesive, the soft adhesive is having a peel force of 1 to 10 N/25mm on steel, measured by the approved standard ASTM D6862-04 and 3) an edge area surrounding the intermediate area, said edge area comprising a substantially non-absorbent protective adhesive, the protective adhesive having a peel force from 3 to 20 N/25mm on steel measured by the approved standard ASTM D6862-04.
A dielectric waveguide filter (1; 2), comprising: a substrate (60; 65) comprising a core material having upper and lower surfaces, each formed with a conductor pattern; and a plurality of resonator groups (10, 20; 15, 16, 17) disposed on the substrate (60; 65), wherein each of the resonator groups (10, 20; 15, 16, 17) comprises one or more integrally-formed resonators (11, 12, 13; 21, 22, 23), each obtained by coating a dielectric body with a conductor film, wherein each resonator group in at least a set of resonator groups of the plurality of resonator groups (10, 20; 15, 16, 17) comprises a waveguide-side slot (51, 52) exposing the dielectric body in a bottom surface thereof, wherein the substrate comprises a cavity (90; 95, 96) surrounded by conductor patterns formed in the upper and lower surfaces, and by via holes (71a, 72a, 80a) connecting the conductor patterns in the upper and lower surfaces, wherein the cavity (90; 95, 96) comprises a set of substrate-side slots (81, 82) exposing the core material, the set of substrate-side slots (81, 82) being provided at a position to which the waveguide-side slots (51, 52) of the set of resonator groups are opposed, and wherein resonator groups in the set of resonator groups are coupled together via the cavity (90; 95, 96). a substrate (60; 65) comprising a core material having upper and lower surfaces, each formed with a conductor pattern; and a plurality of resonator groups (10, 20; 15, 16, 17) disposed on the substrate (60; 65), wherein each of the resonator groups (10, 20; 15, 16, 17) comprises one or more integrally-formed resonators (11, 12, 13; 21, 22, 23), each obtained by coating a dielectric body with a conductor film, wherein each resonator group in at least a set of resonator groups of the plurality of resonator groups (10, 20; 15, 16, 17) comprises a waveguide-side slot (51, 52) exposing the dielectric body in a bottom surface thereof, wherein the substrate comprises a cavity (90; 95, 96) surrounded by conductor patterns formed in the upper and lower surfaces, and by via holes (71a, 72a, 80a) connecting the conductor patterns in the upper and lower surfaces, wherein the cavity (90; 95, 96) comprises a set of substrate-side slots (81, 82) exposing the core material, the set of substrate-side slots (81, 82) being provided at a position to which the waveguide-side slots (51, 52) of the set of resonator groups are opposed, and wherein resonator groups in the set of resonator groups are coupled together via the cavity (90; 95, 96).
Bar lock for doors or sides of utility vehicle superstructures, with a housing, a bar composed of an engagement part serving for the form-fitting locking of the door or side and a bar stub guided longitudinally in a channel formed on the housing, a hand lever which is mounted pivotably on the housing, rests in its closed position in the housing and, in its open position, is pivoted in relation to the closed position, an articulated lever which is connected to the bar stub via a first rotary bearing and is connected to the hand lever via a second rotary bearing, and a mechanism arresting the hand lever in the maximum open position thereof, wherein part of the mechanism is a compression spring which is supported at its first end against the housing and at its second end against the articulated lever, characterized in that the spring support for the first end of the compression spring is located on a tab that is integrally formed on the base of the channel, and in that the tab has a first longitudinal portion, on which the spring support for the first end of the compression spring is located, and a second longitudinal portion which is narrower in comparison and extends in the inside along the compression spring.
A color-changing polymerizable dental composition for use in dental restorations, in which the composition comprises components (a)-(e) that form a homogenous mixture just prior to use, components (a)-(e) being: (a) one or more polymerizable monomers each having at least one ethylenically unsaturated group, (b) one or more fillers, (c) a reducing agent, (d) an oxidizing agent, and (e) a redox indicator, wherein the reducing agent (c) and the oxidizing agent (d) form a redox initiator system, and upon homogenously mixing (a)-(e), the mixed composition exhibits a noticeable color change (ΔE) from an initial first color of the redox indicator to a second color of the redox indicator during the curing of the mixed composition initiated by the redox initiator system wherein the color change (ΔE) for a 1mm thick specimen during the curing of the mixed composition is at least 20, wherein the color change (ΔE) is conducted using a spectrophotometer in reflectance mode against a white background with the color expressed as L*a*b* using the CIELAB scale where L* defines the lightness, a* denotes the red/green value, and b* the yellow/blue value, wherein the color change may then be calculated using the following equation: Δ E = L * 1 − L * 0 2 + a * 1 − a * 0 2 + b * 1 − b * 0 2 1 / 2 where L* 0, a* 0, and b* 0 are the initial color coordinates of initial color before color change (ΔE), and L* 1, a* 1, and b* 1 are the color coordinates after color change (ΔE); and wherein first and second parts are separated prior to mixing, and wherein the reducing agent is in the first part and the oxidizing agent is in the second part. (a) one or more polymerizable monomers each having at least one ethylenically unsaturated group, (b) one or more fillers, (c) a reducing agent, (d) an oxidizing agent, and (e) a redox indicator,
A method for producing a protective film, comprising providing a substrate having a three-dimensionally curved surface; groove-processing the three-dimensionally curved surface of the substrate using a cutting tool to form grooves and segments on the surface of the substrate separated by the grooves; and then depositing a protective film on the surface of the substrate with the grooves by means of a vapor phase deposition method and without using a mask or a mask material to thereby obtain the protective film divided into segments which are separated by spacing at and along the grooves, wherein the grooves are deeper than a film thickness, and wherein the protective film comprises any or a combination of diamond, diamond-like carbon, BN, W 2 C, CrN, HfN, VN, TiN, TiCN, AL 2 O 3, ZnO, and SiO 2 films. providing a substrate having a three-dimensionally curved surface; groove-processing the three-dimensionally curved surface of the substrate using a cutting tool to form grooves and segments on the surface of the substrate separated by the grooves; and then depositing a protective film on the surface of the substrate with the grooves by means of a vapor phase deposition method and without using a mask or a mask material to thereby obtain the protective film divided into segments which are separated by spacing at and along the grooves, wherein the grooves are deeper than a film thickness, and wherein the protective film comprises any or a combination of diamond, diamond-like carbon, BN, W 2 C, CrN, HfN, VN, TiN, TiCN, AL 2 O 3, ZnO, and SiO 2 films.
A fermented food product or food supplement comprising a vegetable substrate obtained by a first fermentation step with L. rhamnosus followed by a second fermentation step with a blend consisting of Lactobacillus gasseri, and Bifidobacterium breve and by final inactivation of the bacterial cells by pasteurization.
An insulating glass unit comprising two spaced-apart panes bounding a between-pane space, wherein one of the panes has an interior surface that is exposed to an interior of a building and that bears a static-dissipative coating, and the film comprising titania comprising substoichiometric TiO x, where x is less than 2 but greater than 1.8, the static-dissipative coating including a film comprising titania over a base film, the film comprising titania being exposed so as to define an outermost face of the static-dissipative coating, the static-dissipative coating characterized by an indoor dust collection factor of less than 0.145, wherein the indoor dust collection factor is the dust collected in grams for a given sample as calculated in accordance with the Glass Dust Hazing test method specified in the IBR JN 16775 Protocol.
A patch for delivering a permeant via at least one artificial formed pathway through a biological membrane of a subject comprising: a) a matrix; b) at least one hydrophilic permeant disposed within the matrix, wherein at least a portion of the hydrophilic permeant can dissolve in biological moisture received from the at least one formed pathway through the biological membrane of the subject; and c) at least one permeability enhancer disposed within the matrix, wherein the permeability enhancer is a pH control agent that adjusts at least a portion of the received biological moisture to a non-physiological pH and maintains the solubility of the hydrophilic permeant, the non-physiological pH being in the range selected from the group consisting of the acidic pH range of from 2 to 6 and the basic pH range of from 8 to 10. a) a matrix; b) at least one hydrophilic permeant disposed within the matrix, wherein at least a portion of the hydrophilic permeant can dissolve in biological moisture received from the at least one formed pathway through the biological membrane of the subject; and c) at least one permeability enhancer disposed within the matrix, wherein the permeability enhancer is a pH control agent that adjusts at least a portion of the received biological moisture to a non-physiological pH and maintains the solubility of the hydrophilic permeant, the non-physiological pH being in the range selected from the group consisting of the acidic pH range of from 2 to 6 and the basic pH range of from 8 to 10.
Monochromatic display for visibly signalling different states of at least one device, comprising a visible display area having a selectable partial region, and separate light sources for backlighting the display area and the partial region, wherein the selectable partial region of the visible display area, for visibly signalling the respective device state by means of at least one LED (3, 30) as light source, is embodied as particularly highlightable by at least one selectable colour which clearly contrasts with the selectable colouration of the visible display area outside the partial region, wherein the two light sources, for illuminating the display area and the partial region, are embodied such that they are controllable separately from one another, wherein an optical waveguide for monochromatically backlighting the display area is arranged below the display area and wherein the light of the LED illuminates the highlightable partial region of the display area in a manner passing through the optical waveguide, characterized in that a common optical waveguide is provided for the visible display area and the selectable partial region, in that a semitransparent film is arranged on the lower surface of the optical waveguide, and in that the light of the LED (3, 30) can illuminate and diffusely highlight the highlightable partial region in a manner passing through the film and the optical waveguide, by virtue of the fact that the light emerging from the LED is scattered by the film, the optical waveguide and the display area.
A flexible substrate comprising a base substrate, wherein the base substrate comprises a bonding portion for bonding an electronic device (2, 3) thereon and an auxiliary bonding portion integrally formed with the bonding portion, the auxiliary bonding portion and the bonding portion are disposed back to back, and the bonding portion completely falls into a region where the auxiliary bonding portion is provided in an orthographic projection direction; wherein, the auxiliary bonding portion comprises a first sub-bonding portion; characterized in that a first bending line is disposed between the bonding portion and the auxiliary bonding portion, the area of the first sub-bonding portion is larger than or equal to an area of the bonding portion, and the first sub-bonding portion is bended and disposed onto the back side of the bonding portion along the first bending line; the auxiliary bonding portion further has a second sub-bonding portion having at least one stacked layer, a second bending line is disposed between the first sub-bonding portion and the second sub-bonding portion, and the second sub-bonding portion is bended and disposed onto the back side of the first sub-bonding portion along the second bending line.