mhurhangee/ep-ind-claims huggingface dataset:
Cosmetic formulations comprising glass flakes comprising soda-lime glass, borosilicate glass, aluminosilicate glass, lead crystal glass, A, C or ECR glass, Duran glass, window glass or laboratory glass or mixtures thereof having a refractive index of 1.3-1.9 and having a thickness of < 1 μm and a particle size of 1-150 μm and additionally one or more fillers from the group synthetic organic polymers, polymethyl methacrylate, methyl methacrylate crosspolymer, natural and/or synthetic mica, nylon powder, pure or filled melamine resins, talc, SiO 2 glass powder, glass beads, kaolin, oxides or hydroxides of aluminium, magnesium, calcium, zinc, BiOCl, barium sulfate, calcium sulfate, calcium carbonate, magnesium carbonate, basic alkalineearth metal carbonates and carbon.
A storage facility for the storage of highly volatile hydrocarbons, comprising at least one vertical round container which serves as a storage container and is provided with a floating cover covering a liquid surface in the form of a floating roof or a floating cover, wherein an annular space formed between the cover and the container wall is sealed by means of flexible sealing elements and wherein fittings (12, 13) are integrated in the cover for the autonomous control of overpressure and negative pressure in a space underneath the cover, characterized in that the fittings (12, 13) of the at least one round container are connected to a vapor line which is led out of the container at an upper end and, in turn, is connected to a separate vapor equalization container with the round container and the vapor equalization container forming a closed system.
An apparatus for ultrasonically scanning a breast, comprising: an essentially planar radial scanning template configured to contact and compress the breast chestwardly, wherein the template has a rounded periphery and a nipple hole configured for a breast nipple to protrude therethrough, and the template has one or more elongated, slot-shaped openings [202; 506; 606; 706; 804; 904, 906; 1004, 1006, 1008, 1010, 1012] extending from the central hole toward a periphery of the template; one or more elongated ultrasound transducers each aligned with and radially extending along a respective one of the one or more slot-shaped openings; said template being configured to rotate over the breast while compressing the breast, and said one or more transducers being configured to rotate with the template to scan the breast ultrasonically through the respective one or more slot-shaped openings and to generate original 2D ultrasound images [1206, 1208; 1236, 1238] of the breast; and a computer-implemented image processing and display facility [1404, 1406, 1408, 1410] associated with the one or more transducers and configured to receive and process the original 2D images into images of slices of the breast that have selected thicknesses and orientations, and further configured to display, under operator control, at least one or more images selected from the slice images; characterised in that the template deviates from absolute planarity by an angle that is in a range of less than 2.5° to 0°. an essentially planar radial scanning template configured to contact and compress the breast chestwardly, wherein the template has a rounded periphery and a nipple hole configured for a breast nipple to protrude therethrough, and the template has one or more elongated, slot-shaped openings [202; 506; 606; 706; 804; 904, 906; 1004, 1006, 1008, 1010, 1012] extending from the central hole toward a periphery of the template; one or more elongated ultrasound transducers each aligned with and radially extending along a respective one of the one or more slot-shaped openings; said template being configured to rotate over the breast while compressing the breast, and said one or more transducers being configured to rotate with the template to scan the breast ultrasonically through the respective one or more slot-shaped openings and to generate original 2D ultrasound images [1206, 1208; 1236, 1238] of the breast; and a computer-implemented image processing and display facility [1404, 1406, 1408, 1410] associated with the one or more transducers and configured to receive and process the original 2D images into images of slices of the breast that have selected thicknesses and orientations, and further configured to display, under operator control, at least one or more images selected from the slice images; characterised in that the template deviates from absolute planarity by an angle that is in a range of less than 2.5° to 0°.
Method for determining the resistance of a microbial sample on an antibiotic or on an antibiotic with inhibitor, wherein the microbial sample and the antibiotic or the microbial sample and the antibiotic with the inhibitor are combined and incubated in a volume of liquid at a test site of a mass spectrometric sample support and analyzed by means of a mass spectrometric measurement at the test site to ascertain whether the antibiotic is enzymatically modified, wherein - the test site is coated with a dosed quantity of the antibiotic or the antibiotic with inhibitor together with at least one reference substance in the form of a dry layer before they are combined, and - it is determined that there is a decrease in the antibiotic by comparison with the mass signal of the (at least one) reference substance and/or the (at least one) reference substance is used to determine the quantitative change to the degradation products of the antibiotic. - the test site is coated with a dosed quantity of the antibiotic or the antibiotic with inhibitor together with at least one reference substance in the form of a dry layer before they are combined, and - it is determined that there is a decrease in the antibiotic by comparison with the mass signal of the (at least one) reference substance and/or the (at least one) reference substance is used to determine the quantitative change to the degradation products of the antibiotic.
An electrophotographic photosensitive member comprising: a support member; an electroconductive layer; and a photosensitive layer in this order, wherein the electroconductive layer contains a binder and particles having a core containing titanium oxide, and a coating layer coating the core and containing titanium oxide doped with niobium or tantalum. a support member; an electroconductive layer; and a photosensitive layer in this order, wherein the electroconductive layer contains a binder and particles having a core containing titanium oxide, and a coating layer coating the core and containing titanium oxide doped with niobium or tantalum. a binder and particles having a core containing titanium oxide, and a coating layer coating the core and containing titanium oxide doped with niobium or tantalum.
Housing for a flowmeter designed to measure the mass flow or volume flow of a medium in a measuring tube, comprising: a housing body with a housing wall and a housing chamber; wherein the housing wall has a first wall element and a second wall element, the housing chamber being formed by the first wall element and the second wall element, wherein the housing chamber is designed to receive the measuring tube, wherein the housing wall has a first opening and a second opening, said openings being provided to support the measuring tube at a first end of the measuring tube (13.1) and at a second end of the measuring tube (13.2), wherein the first wall element has a first wing (11.1) and a second wing (11.2), and wherein the second wall element has a third wing (12.1) and a fourth wing (12.2), wherein the first wing features the first opening and the second wing features the second opening, characterized in that the first wall element and the second wall element are each made from a metal sheet and mesh together in a flush manner, wherein the first wing and the second wing, as well as the third wing and the fourth wing, sit flush with one another. a housing body with a housing wall and a housing chamber; wherein the housing wall has a first wall element and a second wall element, the housing chamber being formed by the first wall element and the second wall element, wherein the housing chamber is designed to receive the measuring tube, wherein the housing wall has a first opening and a second opening, said openings being provided to support the measuring tube at a first end of the measuring tube (13.1) and at a second end of the measuring tube (13.2), wherein the first wall element has a first wing (11.1) and a second wing (11.2), and wherein the second wall element has a third wing (12.1) and a fourth wing (12.2), wherein the first wing features the first opening and the second wing features the second opening, characterized in that the first wall element and the second wall element are each made from a metal sheet and mesh together in a flush manner, wherein the first wing and the second wing, as well as the third wing and the fourth wing, sit flush with one another.
A method for isomerizing a 1,4-cyclohexanediamine, comprising a step of: isomerizing the 1,4-cyclohexanediamine in the presence of an imine compound and at least one selected from the group consisting of an alkali metal, an alkali metal hydride, an alkali metal amide, an alkali metal basic oxide, an alkali metal alkoxide, an alkaline earth metal and an alkaline earth metal hydride, wherein the imine compound comprises a compound represented by following general formula and/or a compound represented by the following general formula: wherein R 1 and R 2 each independently represent a hydrogen atom or an unsubstituted hydrocarbon group having 1 to 20 carbon atoms. isomerizing the 1,4-cyclohexanediamine in the presence of an imine compound and at least one selected from the group consisting of an alkali metal, an alkali metal hydride, an alkali metal amide, an alkali metal basic oxide, an alkali metal alkoxide, an alkaline earth metal and an alkaline earth metal hydride, wherein the imine compound comprises a compound represented by following general formula and/or a compound represented by the following general formula: wherein R 1 and R 2 each independently represent a hydrogen atom or an unsubstituted hydrocarbon group having 1 to 20 carbon atoms.
Animation arrangement for a vehicle, comprising: a display device, configured to display an animation based on an instruction set; a storage device, configured to store a first instruction set and a second instruction set for displaying the same animation on the display device; a calculating device comprising a central processing unit and a graphics processing unit, the calculating device being configured to select one of the first and second instruction sets for displaying an animation on the display device; wherein the calculating device is configured to select one of the first and second instruction sets for displaying an animation on the display device based on a load parameter of the central processing unit or the graphics processing unit of the calculating device. a display device, configured to display an animation based on an instruction set; a storage device, configured to store a first instruction set and a second instruction set for displaying the same animation on the display device; a calculating device comprising a central processing unit and a graphics processing unit, the calculating device being configured to select one of the first and second instruction sets for displaying an animation on the display device; wherein the calculating device is configured to select one of the first and second instruction sets for displaying an animation on the display device based on a load parameter of the central processing unit or the graphics processing unit of the calculating device.
A method of making an LED device, the method comprising: providing a substrate (208, 802, 804, 002, 004,1202,1204, 1302, 304); forming a plurality of LEDs (202, 810, 1016, 1312) on the substrate; and creating a random pattern on the LEDs (202, 810, 1016, 1312) and/or in one or more layers of the LEDs (202, 810, 1016, 1312), the random pattern having a light scattering effect on light produced by the LEDs (202, 810, 1016, 1312), characterized in that the creating of the random pattern comprises: generating a fractal pattern, the fractal pattern being a random fractal pattern or having randomness introduced thereto; and transferring the generated fractal pattern onto one or more layers of the LEDs (202, 810, 1016, 1312), wherein the fractal pattern is generated in a template, the template being transferred onto one or more layers of the LEDs (202, 810, 1016, 1312) during the transferring. providing a substrate (208, 802, 804, 002, 004,1202,1204, 1302, 304); forming a plurality of LEDs (202, 810, 1016, 1312) on the substrate; and creating a random pattern on the LEDs (202, 810, 1016, 1312) and/or in one or more layers of the LEDs (202, 810, 1016, 1312), the random pattern having a light scattering effect on light produced by the LEDs (202, 810, 1016, 1312), generating a fractal pattern, the fractal pattern being a random fractal pattern or having randomness introduced thereto; and transferring the generated fractal pattern onto one or more layers of the LEDs (202, 810, 1016, 1312), wherein the fractal pattern is generated in a template, the template being transferred onto one or more layers of the LEDs (202, 810, 1016, 1312) during the transferring.
A method for growing and maintaining living cells, comprising: providing a fluid source in a fluidic system; providing a microfluidic fluid path in the fluidic system; providing a fluid displacement apparatus capable of providing at least one of positive and negative displacement of the fluid and configured to indirectly displace the fluid to establish a fluid flow within the fluid path of the system; providing an in-line flow sensor configured to directly measure the fluid flow; providing a feed-back control, comprising a process signal speed faster than about 1 second, in communication with the apparatus and the in-line flow sensor, wherein the feed-back control is configured to continuously control the fluid flow in response to the flow sensor measurements; establishing a desired fluid flow rate within the fluid path by determining the differences between the desired set point and the measured flow rate and adjusting the fluid displacement apparatus in response to the feed-back control to maintain the fluid flow at a constant velocity with pulsing less than from about 0.01 % to about 20% of the set point for the desired fluid flow rate, wherein the feedback control mechanism communicates with the fluid displacement apparatus to adjust the fluid flow by (a) changing the motor rotational speed or (b) adjusting the pressure regulation component, relative to the feedback from the sensor; exposing living cells to the fluid flow within the fluid path. providing a fluid source in a fluidic system; providing a microfluidic fluid path in the fluidic system; providing a fluid displacement apparatus capable of providing at least one of positive and negative displacement of the fluid and configured to indirectly displace the fluid to establish a fluid flow within the fluid path of the system; providing an in-line flow sensor configured to directly measure the fluid flow; providing a feed-back control, comprising a process signal speed faster than about 1 second, in communication with the apparatus and the in-line flow sensor, wherein the feed-back control is configured to continuously control the fluid flow in response to the flow sensor measurements; establishing a desired fluid flow rate within the fluid path by determining the differences between the desired set point and the measured flow rate and adjusting the fluid displacement apparatus in response to the feed-back control to maintain the fluid flow at a constant velocity with pulsing less than from about 0.01 % to about 20% of the set point for the desired fluid flow rate, wherein the feedback control mechanism communicates with the fluid displacement apparatus to adjust the fluid flow by (a) changing the motor rotational speed or (b) adjusting the pressure regulation component, relative to the feedback from the sensor; exposing living cells to the fluid flow within the fluid path.
A method comprising: providing a plurality of wireless sensors of a security system that detects threats within a secured geographic area; displaying a list of at least some of the plurality of wireless sensors on a portable wireless device within the secured geographic area based upon a relative distance between the portable wireless device and each of the at least some of the plurality of wireless sensors; the portable wireless device transmitting a sensor-executable instruction to one of the at least some of the plurality of wireless sensors based upon a location of the one of the at least some of the plurality of wireless sensors within the list; the one of the at least some of the plurality of wireless sensors confirming the sensor-executable instruction via a control panel of the security system; and the one of the at least some of the plurality of wireless sensors executing the sensor-executable instruction, wherein the sensor-executable instruction comprises bypassing only the one of the at least some of the plurality of wireless sensors. providing a plurality of wireless sensors of a security system that detects threats within a secured geographic area; displaying a list of at least some of the plurality of wireless sensors on a portable wireless device within the secured geographic area based upon a relative distance between the portable wireless device and each of the at least some of the plurality of wireless sensors; the portable wireless device transmitting a sensor-executable instruction to one of the at least some of the plurality of wireless sensors based upon a location of the one of the at least some of the plurality of wireless sensors within the list; the one of the at least some of the plurality of wireless sensors confirming the sensor-executable instruction via a control panel of the security system; and the one of the at least some of the plurality of wireless sensors executing the sensor-executable instruction, wherein the sensor-executable instruction comprises bypassing only the one of the at least some of the plurality of wireless sensors.
A heat transfer plate comprising a first end portion, a center portion and a second end portion arranged in succession along a longitudinal center axis of the heat transfer plate, the first end portion comprising a first and a second port hole (10, 12) and a first distribution area provided with a first distribution pattern, the second end portion comprising a third and a fourth port hole (18, 20) and a second distribution area provided with a second distribution pattern, and the center portion comprising a heat transfer area provided with a heat transfer pattern differing from the first and second distribution patterns, the first end portion adjoining the center portion along a first borderline and the second end portion adjoining the center portion along a second borderline, wherein the first and second distribution patterns comprise distribution ridges and distribution valleys (50, 52), a respective top portion of the distribution ridges extending in a first plane and a respective bottom portion of the distribution valleys extending in a second plane, which first and second planes (38, 40) are parallel to each other, the distribution ridges longitudinally extending along a number of separated imaginary ridge lines extending from the first borderline towards the first port hole in the first distribution area, and from the second borderline towards the third port hole in the second distribution area, the distribution ridge along each one of the imaginary ridge lines arranged closest to the center portion forming an end ridge, and the distribution valleys longitudinally extending along a number of separated imaginary valley lines extending from the first borderline towards the second port hole in the first distribution area, and from the second borderline towards the fourth port hole in the second distribution area, the distribution valley along each one of the imaginary valley lines arranged closest to the center portion forming an end valley, wherein the imaginary ridge lines and the imaginary valley lines form a grid within each of the first and second distribution areas (14, 22), wherein the distribution valleys and distribution ridges defining each mesh of the grids enclose an area within which the heat transfer plate extends at a distance > 0 from the first plane and a distance > 0 from the second plane, wherein a width of the top portion of the distribution ridges and the bottom portion of the distribution valleys is measured perpendicular to the imaginary ridge lines and valley lines (54, 56), characterized in that the top portion of at least a plurality of the end ridges, along at least part of its longitudinal extension, has a second width exceeding a first width of the top portion of the rest of the distribution ridges, and the bottom portion of at least a plurality of the end valleys, along at least part of its longitudinal extension, has a fourth width exceeding a third width of the bottom portion of the rest of the distribution valleys.
An adhesive tape cartridge comprising: a housing; and an adhesive tape roll that is disposed in said housing and winds a double-faced adhesive tape, said double-faced adhesive tape comprising: a base material layer; a first adhesive layer (162; 162A; 162B) that is disposed on one side of said base material layer in a thickness direction and comprises an adhesive with a first pigment added; a second adhesive layer (161; 161B) that is disposed on the one side of said first adhesive layer (162; 162A, 162B) in the thickness direction and comprises an adhesive with a second pigment added; a third adhesive layer that is disposed on the other side of said base material layer in the thickness direction and comprises an adhesive; and a separation material layer that is disposed on said other side of said third adhesive layer in the thickness direction; a volume ratio of said first pigment in said first adhesive layer (162; 162A; 162B) being greater than a volume ratio of said second pigment in said second adhesive layer (161; 161B). a housing; and an adhesive tape roll that is disposed in said housing and winds a double-faced adhesive tape, said double-faced adhesive tape comprising: a base material layer; a first adhesive layer (162; 162A; 162B) that is disposed on one side of said base material layer in a thickness direction and comprises an adhesive with a first pigment added; a second adhesive layer (161; 161B) that is disposed on the one side of said first adhesive layer (162; 162A, 162B) in the thickness direction and comprises an adhesive with a second pigment added; a third adhesive layer that is disposed on the other side of said base material layer in the thickness direction and comprises an adhesive; and a separation material layer that is disposed on said other side of said third adhesive layer in the thickness direction; a volume ratio of said first pigment in said first adhesive layer (162; 162A; 162B) being greater than a volume ratio of said second pigment in said second adhesive layer (161; 161B). a base material layer; a first adhesive layer (162; 162A; 162B) that is disposed on one side of said base material layer in a thickness direction and comprises an adhesive with a first pigment added; a second adhesive layer (161; 161B) that is disposed on the one side of said first adhesive layer (162; 162A, 162B) in the thickness direction and comprises an adhesive with a second pigment added; a third adhesive layer that is disposed on the other side of said base material layer in the thickness direction and comprises an adhesive; and a separation material layer that is disposed on said other side of said third adhesive layer in the thickness direction; a volume ratio of said first pigment in said first adhesive layer (162; 162A; 162B) being greater than a volume ratio of said second pigment in said second adhesive layer (161; 161B).