mhurhangee/ep-ind-claims huggingface dataset:
Water treatment installation comprising: means for carrying water to be treated coagulated beforehand, a flocculation-decantation device provided with means for distributing at least one flocculant reagent, means for distributing at least one ballast, means for extracting decantation sludge, means for removing treated water, means for separating of said ballast contained in the ballasted sludge, and means for recycling of said ballast cleaned as such to said flocculation-decantation device, characterised in that: said flocculation-decantation device comprises a single tank in the lower portion of which a stirrer is arranged comprising blades rotatably mounted on a vertical axis and a cylindrical flow guide arranged around said blades; said single tank is provided in its upper portion with lamellae; said lamellae are separated from said stirrer by a distance "d" between the horizontal plane receiving the lower end of the lamellae and the horizontal plane receiving the upper portion of the cylindrical flow guide and comprised between about 0.5 metres and about 3 metres. means for carrying water to be treated coagulated beforehand, a flocculation-decantation device provided with means for distributing at least one flocculant reagent, means for distributing at least one ballast, means for extracting decantation sludge, means for removing treated water, means for separating of said ballast contained in the ballasted sludge, and means for recycling of said ballast cleaned as such to said flocculation-decantation device, characterised in that: said flocculation-decantation device comprises a single tank in the lower portion of which a stirrer is arranged comprising blades rotatably mounted on a vertical axis and a cylindrical flow guide arranged around said blades; said single tank is provided in its upper portion with lamellae; said lamellae are separated from said stirrer by a distance "d" between the horizontal plane receiving the lower end of the lamellae and the horizontal plane receiving the upper portion of the cylindrical flow guide and comprised between about 0.5 metres and about 3 metres. said flocculation-decantation device comprises a single tank in the lower portion of which a stirrer is arranged comprising blades rotatably mounted on a vertical axis and a cylindrical flow guide arranged around said blades; said single tank is provided in its upper portion with lamellae; said lamellae are separated from said stirrer by a distance "d" between the horizontal plane receiving the lower end of the lamellae and the horizontal plane receiving the upper portion of the cylindrical flow guide and comprised between about 0.5 metres and about 3 metres.
Use of an organic mesomeric compound as a charge injection layer, characterized in that the mesomeric compound is an oxocarbon, a pseudo-oxocarbon or a radialene compound with the following formula: in which n = 1-4; each X 1, X 2 and X 3 is respectively independently selected from the group consisting of C 2, (CF 3)C, (NO 2)C, C(halogen) 2, C(CF 3) 2, NCN, O, S, NR 1, wherein X 4 and X 5 are respectively independently selected from the group consisting of C 2, (CF 3)C, (NO 2)C, C(halogen) 2, C(CF 3) 2, NCN, O, S or NR 1, wherein Y = CN, NO 2, COR 1 or is perhalogenated alkyl; aryl, respectively Ar is a substituted or unsubstituted aromatic hydrocarbon or biaryl, or optionally polycyclic; hetaryl is a substituted or unsubstituted aromatic heterocyclic compound or biheteroaryl, preferably electron-deficient, optionally polynucleic or partially or completely hydrated or fluorinated; and R 1 -R 8 are independently selected from hydrogen, halogen, CN, NO 2, COR 1, alkyl, alkoxy, aryl and heteroaryl.
A method for transcribing a telephone conversation, comprising: receiving a transcription request from a mobile device at a server connected to the mobile device; receiving audio data from the telephone conversation at the server; monitoring packets of audio data to determine their origin; identifying an origin of the audio data, decrypting at least a portion of the audio data in the server, wherein the portion of the audio data decrypted is limited to audio data originating from a party other than the mobile device; transcribing the decrypted audio data into text data in the server; and transmitting at least a portion of the text data from the server to the mobile device. receiving a transcription request from a mobile device at a server connected to the mobile device; receiving audio data from the telephone conversation at the server; monitoring packets of audio data to determine their origin; identifying an origin of the audio data, decrypting at least a portion of the audio data in the server, wherein the portion of the audio data decrypted is limited to audio data originating from a party other than the mobile device; transcribing the decrypted audio data into text data in the server; and transmitting at least a portion of the text data from the server to the mobile device.
Temperature sensor component for a metallurgical plant, comprising at least one sensor bore at a component section of the temperature sensor component and at least one temperature sensor arrangement, which is introduced at least partly into the sensor bore, for measuring a temperature of the component section, wherein the temperature sensor arrangement comprises at least one optical waveguide, at least one protective tube, which surrounds the optical waveguide with radial play in encircling manner and which together with the optical waveguide introduced thereinto is introducible into the sensor bore, and at least one fixing bolt introducible into the sensor bore, wherein the fixing bolt has at least one longitudinal side (10a, 10b, 10c, 10d) of planar form, characterised in that the fixing bolt is so constructed that the fixing bolt is mechanically positively introducible into the sensor bore in such a way that the longitudinal side faces a hot side of the component section, and that the longitudinal edges (13a, 13b) of the longitudinal side are disposed in continuous physical contact with a bore wall, which surrounds the sensor bore, of the component section, wherein an outer diameter of the protective tube and an outer contour, which extends in longitudinal direction of the fixing bolt, of the fixing bolt are matched to one another in such a way that the protective bolt introduced into the sensor bore is clamped in place between the longitudinal side and the bore wall when the fixing bolt is introduced into the sensor bore.
A layer system comprising an adhesion promoter layer for joining a high-temperature protective layer to a substrate, as well as a substrate, characterized by - a substrate comprising a ceramic composite comprising C/C, C/SiC, SiC/C-SiC or SiC/SiC, - a first layer of a first adhesion promoter material arranged on the substrate, - as well as a second layer arranged on the first layer, comprising a second adhesion promoter material with additionally introduced oxide dispersions, which is provided for joining a high-temperature protective layer, characterized in that the first and/or second adhesion promoter material comprises Si or an Si alloy. - a substrate comprising a ceramic composite comprising C/C, C/SiC, SiC/C-SiC or SiC/SiC, - a first layer of a first adhesion promoter material arranged on the substrate, - as well as a second layer arranged on the first layer, comprising a second adhesion promoter material with additionally introduced oxide dispersions, which is provided for joining a high-temperature protective layer, characterized in that
A light emitting device comprising: a light unit having at least one light source; and a light guide unit; said light guide unit comprising: a light input portion for receiving light from said light source, a light output portion; and a cylindrical light mixing portion arranged between the light input portion and the light output portion; said light output portion being funnel-shaped comprising: a base arranged to receive light from said light mixing portion; an upper surface which is convex; a lower surface which is concave; and a circumferential light output surface arranged substantially perpendicular to the light input portion; said light output surface arranged between said upper and lower surfaces; wherein said upper surface and said lower surface define a light guide path from said base to said circumferential light output surface to create a substantially toroidal intensity distribution. a light unit having at least one light source; and a light guide unit; said light guide unit comprising: a light input portion for receiving light from said light source, a light output portion; and a cylindrical light mixing portion arranged between the light input portion and the light output portion; a light input portion for receiving light from said light source, a light output portion; and a cylindrical light mixing portion arranged between the light input portion and the light output portion; said light output portion being funnel-shaped comprising: a base arranged to receive light from said light mixing portion; an upper surface which is convex; a lower surface which is concave; and a circumferential light output surface arranged substantially perpendicular to the light input portion; said light output surface arranged between said upper and lower surfaces;
A reflector array optical device comprising: two dihedral corner reflector array optical elements (6, 6a), each being composed of a substrate (60, 60a) and a plurality of prism bodies (50, 50a) arranged regularly on and each protruding from one main surface of the substrate (60, 60a), wherein the prism bodies (50, 50a) and the substrate (60, 60a) are integrally formed of a transparent material, each of the prism bodies (50, 50a) including two sides of orthogonal planes (61a, 61b) which are perpendicular to each other to constitute a dihedral corner reflector perpendicular to the one main surface of the substrate (60, 60a), wherein each of the prism bodies (50, 50a) has a frustum shape having a taper side surface (62a, 62b), a top face and a base plane on the substrate (60, 60a), the base plane having an area which is greater than that of the top face; wherein the two dihedral corner reflector array optical elements (6, 6a) are joined to one another so that top faces of the prism bodies (50, 50a) are directly confronted respectively so as to make two coplanar planes in which the two orthogonal planes (61a, 61b) exist respectively between the substrates (60, 60a) of the two dihedral corner reflector array optical elements (6, 6a). two dihedral corner reflector array optical elements (6, 6a), each being composed of a substrate (60, 60a) and a plurality of prism bodies (50, 50a) arranged regularly on and each protruding from one main surface of the substrate (60, 60a), wherein the prism bodies (50, 50a) and the substrate (60, 60a) are integrally formed of a transparent material, each of the prism bodies (50, 50a) including two sides of orthogonal planes (61a, 61b) which are perpendicular to each other to constitute a dihedral corner reflector perpendicular to the one main surface of the substrate (60, 60a), wherein each of the prism bodies (50, 50a) has a frustum shape having a taper side surface (62a, 62b), a top face and a base plane on the substrate (60, 60a), the base plane having an area which is greater than that of the top face; a substrate (60, 60a) and a plurality of prism bodies (50, 50a) arranged regularly on and each protruding from one main surface of the substrate (60, 60a), wherein the prism bodies (50, 50a) and the substrate (60, 60a) are integrally formed of a transparent material, each of the prism bodies (50, 50a) including two sides of orthogonal planes (61a, 61b) which are perpendicular to each other to constitute a dihedral corner reflector perpendicular to the one main surface of the substrate (60, 60a), wherein each of the prism bodies (50, 50a) has a frustum shape having a taper side surface (62a, 62b), a top face and a base plane on the substrate (60, 60a), the base plane having an area which is greater than that of the top face; wherein the two dihedral corner reflector array optical elements (6, 6a) are joined to one another so that top faces of the prism bodies (50, 50a) are directly confronted respectively so as to make two coplanar planes in which the two orthogonal planes (61a, 61b) exist respectively between the substrates (60, 60a) of the two dihedral corner reflector array optical elements (6, 6a).
A non-transitory computer-readable medium having processor-executable instructions for adjusting stimulation parameters of an electrical stimulation system (100, 400) including a control module (102, 402) implanted in a patient, the processor-executable instructions when installed onto a device enable the device to perform actions, the actions comprising: obtaining at least two different biosignals of the patient, wherein the two different biosignals are the same type of biosignal measured at two different locations on the patient's body or two different types of biosignals measured at the same or different locations on the patient's body; determining a coherence, correlation, or association between the at least two different biosignals; and altering at least one stimulation parameter of the electrical stimulation system (100, 400) in response to the coherence, correlation, or association between the at least two different biosignals. obtaining at least two different biosignals of the patient, wherein the two different biosignals are the same type of biosignal measured at two different locations on the patient's body or two different types of biosignals measured at the same or different locations on the patient's body; determining a coherence, correlation, or association between the at least two different biosignals; and altering at least one stimulation parameter of the electrical stimulation system (100, 400) in response to the coherence, correlation, or association between the at least two different biosignals.
A control method of an electronic device comprising the steps of: displaying a user interface, UI, including a secure indicator indicating that the electronic device operates in a secure mode; determining whether or not the secure indicator is forged by comparing the secure indicator and a reference secure indicator; and notifying that the secure indicator is a forged secure indicator based on the result of the determination; wherein the step of determining includes the step of: detecting data of a first frame buffer (910, 1110), among a plurality of frame buffers, corresponding to an uppermost layer and data of a second frame buffer (930, 1130), among the plurality of frame buffers, corresponding to a layer used in a currently executing application, wherein the plurality of frame buffers includes more than two frame buffers; and determining whether or not the secure indicator is forged by comparing the detected data and data of the reference secure indicator. displaying a user interface, UI, including a secure indicator indicating that the electronic device operates in a secure mode; determining whether or not the secure indicator is forged by comparing the secure indicator and a reference secure indicator; and notifying that the secure indicator is a forged secure indicator based on the result of the determination; wherein the step of determining includes the step of: detecting data of a first frame buffer (910, 1110), among a plurality of frame buffers, corresponding to an uppermost layer and data of a second frame buffer (930, 1130), among the plurality of frame buffers, corresponding to a layer used in a currently executing application, wherein the plurality of frame buffers includes more than two frame buffers; and determining whether or not the secure indicator is forged by comparing the detected data and data of the reference secure indicator. detecting data of a first frame buffer (910, 1110), among a plurality of frame buffers, corresponding to an uppermost layer and data of a second frame buffer (930, 1130), among the plurality of frame buffers, corresponding to a layer used in a currently executing application, wherein the plurality of frame buffers includes more than two frame buffers; and determining whether or not the secure indicator is forged by comparing the detected data and data of the reference secure indicator.
A method for the determination of the CO 2 emission factor in flare gas plants comprising the steps of: a) measuring the speed of sound ( SoS m) in the flare gas; b) detecting known proportions ( f N 2, f H 2 O, f CO 2) of N 2, CO 2 and H 2 O of the flare gas; c1) calculating a maximum speed of sound ( SoS ( f high = 0)) of the flare gas under the assumption that the hydrocarbon proportion ( f CH) of the flare gas only consists of alkanes having a chain length i; c2) calculating a minimal speed of sound ( SoS ( f low = 0)) under the assumption that the hydrocarbon proportion ( f CH) of the flare gas only consists of alkanes having a chain length i+1; c3) varying the chain length i for so long until the measured speed of sound ( SoS m) lies between the calculated minimal speed of sound and the calculated maximum speed of sound; d) varying the proportions ( f low and f high) of the alkanes having the chain length i and the chain length i+1 determined in steps c1) to c3) for so long until the speed of sound ( SoS) calculated with these proportions ( f low and f high) lies within a predefined difference (ε) from the measured speed of sound ( SoS m); e) calculating the equivalent chain length (n); and f) calculating the emission factor (e) from the molar masses of the flare gas and from the equivalent chain length according to e * Ω = M CO 2 M Flare ∗ nf CH wherein Ω is an oxydization factor, M CO2 the molar mass of CO 2 und M Flare is the molar mass of the flare gas. a) measuring the speed of sound ( SoS m) in the flare gas; b) detecting known proportions ( f N 2, f H 2 O, f CO 2) of N 2, CO 2 and H 2 O of the flare gas; c1) calculating a maximum speed of sound ( SoS ( f high = 0)) of the flare gas under the assumption that the hydrocarbon proportion ( f CH) of the flare gas only consists of alkanes having a chain length i; c2) calculating a minimal speed of sound ( SoS ( f low = 0)) under the assumption that the hydrocarbon proportion ( f CH) of the flare gas only consists of alkanes having a chain length i+1; c3) varying the chain length i for so long until the measured speed of sound ( SoS m) lies between the calculated minimal speed of sound and the calculated maximum speed of sound; d) varying the proportions ( f low and f high) of the alkanes having the chain length i and the chain length i+1 determined in steps c1) to c3) for so long until the speed of sound ( SoS) calculated with these proportions ( f low and f high) lies within a predefined difference (ε) from the measured speed of sound ( SoS m); e) calculating the equivalent chain length (n); and f) calculating the emission factor (e) from the molar masses of the flare gas and from the equivalent chain length according to e * Ω = M CO 2 M Flare ∗ nf CH wherein Ω is an oxydization factor, M CO2 the molar mass of CO 2 und M Flare is the molar mass of the flare gas.
A garden tool, comprising a main body, a walking wheel mounted on the main body and a control panel disposed on the main body, wherein the control panel comprises a main blade control assembly, the main blade control assembly comprising a main blade button and a main blade pull rod, wherein the garden tool is configured to start by performing two actions; operating the main blade button and operating the main blade pull rod, which can be operated at different points in time, but need to be completed within a predetermined period of time, characterized in that said control panel is further provided with a self-propelled control assembly, and said self-propelled control assembly comprises a self-propelled start paddle and a speed regulating button, and wherein, after the self-propelled start paddle has been turned on, the self-propelled start paddle is releasable during a self-propelling process of the garden tool, the speed regulating button is adjustable in a short time, preferably 1.5s, and when the self-propelled start paddle is re-pressed after an adjustment of the speed regulating button the garden tool can continue the self-propelling process.
A method for producing a lube basestock, comprising: providing a process train including a first catalyst that is a hydroprocessing catalyst, and a second catalyst that is a dewaxing catalyst, wherein the dewaxing catalyst includes at least one non-dealuminated, unidimensional 10-member ring pore zeolite and at least one Group VIII metal; processing a first feedstock in the process train at first hydroprocessing conditions and first catalytic dewaxing conditions to produce a lube basestock having a pour point less than -15°C and a total liquid product 700°+F (371°C) yield of at least 75 wt%, the first catalytic dewaxing conditions including a temperature of 400°C or less, the first feedstock having a first sulfur content when exposed to the dewaxing catalyst of 1000 wppm or less on a total sulfur basis; processing a second feedstock in the same process train at second hydroprocessing conditions and second catalytic dewaxing conditions, the second feedstock having a sulfur content when exposed to the dewaxing catalyst of greater than 1000 wppm on a total sulfur basis, to produce a second lube basestock having a pour point less than -15°C and a total liquid product yield of at least 75 wt%; wherein the second catalytic dewaxing conditions include a temperature of 400°C or less with the second catalytic dewaxing temperature being from 20 to 50°C greater than first catalytic dewaxing temperature, wherein the dewaxing catalyst includes at least one low surface area metal oxide refractory binder having a surface area of 100 m 2 /g or less, wherein the dewaxing catalyst comprises a micropore surface area to total surface area ratio of greater than or equal to 25%, where the total surface area equals the micropore surface area plus the external surface area and where both the binder and zeolite contribute to the value of the external surface area; wherein the micropore surface area corresponds to the surface area from the unidimensional pores of the zeolite; and wherein the processing of the first feedstock and the processing of the second feedstock are alternated in any sequence as a function of time.
An ultraviolet scattering agent characterized by comprising at least one type of elliptical or needle-like polymer particle A, wherein a projected two-dimensional image obtained by irradiating the particle with light from a direction perpendicular to a long axis of the particle has a length the average (L AV) of which is 0.1 to 80 μm, a projected two-dimensional image obtained by irradiating the particle with light from a direction perpendicular to a long axis of the particle has a breadth the average (D AV) of which is 0.05 to 40 μm, and the average (P AV) of the aspect ratio (L/D) calculated from the length and breadth is from 2 to 30; and characterized in that the ultraviolet scattering agent further comprises at least one type of particle B which has a shape differing from that of polymer particle A and a volume mean particle size (MV B) that satisfies the condition 1/5 × D AV ≤ MV B ≤ L AV. a projected two-dimensional image obtained by irradiating the particle with light from a direction perpendicular to a long axis of the particle has a length the average (L AV) of which is 0.1 to 80 μm, a projected two-dimensional image obtained by irradiating the particle with light from a direction perpendicular to a long axis of the particle has a breadth the average (D AV) of which is 0.05 to 40 μm, and the average (P AV) of the aspect ratio (L/D) calculated from the length and breadth is from 2 to 30; and characterized in that the ultraviolet scattering agent further comprises at least one type of particle B which has a shape differing from that of polymer particle A and a volume mean particle size (MV B) that satisfies the condition 1/5 × D AV ≤ MV B ≤ L AV.