mhurhangee/ep-ind-claims huggingface dataset:
A switch cabinet or rack with an installation device, comprising an installation space for vertical installation sections (10, 10') on the front that laterally limit user mounting units, with flat attachment sections on the front that are on a common installation plane, for the attachment of laterally protruding installation segments of the mounting units, and with components of a detection device to determine whether a mounting unit exists on a mounting position of the installation space, wherein the components of the detection device comprise an antenna strip with antenna elements arranged therein and transponder elements arranged extending vertically on the installation section, wherein the mounting section comprises a retainer at least partially adapted to the cross-section of the antenna strip, open to the front, and arranged laterally outside of the adjacent attachment section, with an abutting section that is recessed relative to the front plane of the mounting section by at least the depth of the cross-section of the antenna strip, and with a limiting boundary wall facing the retainer on its side facing the installation space, and which adjoins the outer side of the attachment section so that an inner boundary wall of the retainer adjoins on the attachment section to the outside for the antenna strip, wherein the inner boundary wall on its rear end at a distance from the front side transitions at a right angle into the abutting section facing outward, which is oriented parallel to the mounting plane, wherein one rear side of the antenna strip during insertion abuts on the abutting section, wherein the front side of the abutting section is recessed from the mounting plane at a distance such that the front side of the antenna strip does not project beyond the front plane of the attachment sections, and wherein the antenna strip lies in the mounting plane with its front end or is recessed relative to same by a maximum of 10 mm, wherein the respective transponder element is arranged ahead of the front side of the antenna strip and is attached to a support section of a retaining element overlapping the antenna strip.
An ion diffuser for generating ions, the ion diffuser comprising: a cavity arranged to receive a substance; the substance being located in the cavity; and a power source arranged to provide a current to the substance to cause the emission of ions from the substance; wherein the substance comprises an ionic gel, the ionic gel comprising an ionic liquid that is held by an inorganic or polymer matrix. a cavity arranged to receive a substance; the substance being located in the cavity; and a power source arranged to provide a current to the substance to cause the emission of ions from the substance; wherein the substance comprises an ionic gel, the ionic gel comprising an ionic liquid that is held by an inorganic or polymer matrix.
An ultrasonic diagnostic imaging system comprising: a probe configured act to transmit and receive signals from a region of the body where time of arrival of a contrast agent is characteristic of a disease state; a detector configured detect characteristic signals received from a contrast agent; an image processor responsive to the detector; a pixel classifier, responsive to the image processor, configured identify signals from the early wash-in of contrast agent, wherein the pixel classifier further comprises a time of arrival detector and a timer and is configured to classify pixel or voxel data received from a sequence of images by a threshold level and a time of reception so that the time of arrival detector is operative during a time interval when the timer is running, the timer being initiated the first time when a pixel or voxel value exceeds the threshold and times out before late arrival of the contrast agent; a parametric image processor responsive to the pixel classifier, which produces an ultrasound image in which an area of early contrast agent arrival is highlighted; and an image display for displaying the parametric image. a probe configured act to transmit and receive signals from a region of the body where time of arrival of a contrast agent is characteristic of a disease state; a detector configured detect characteristic signals received from a contrast agent; an image processor responsive to the detector; a pixel classifier, responsive to the image processor, configured identify signals from the early wash-in of contrast agent, wherein the pixel classifier further comprises a time of arrival detector and a timer and is configured to classify pixel or voxel data received from a sequence of images by a threshold level and a time of reception so that the time of arrival detector is operative during a time interval when the timer is running, the timer being initiated the first time when a pixel or voxel value exceeds the threshold and times out before late arrival of the contrast agent; a parametric image processor responsive to the pixel classifier, which produces an ultrasound image in which an area of early contrast agent arrival is highlighted; and an image display for displaying the parametric image.
A compression system for applying compression to a limb of a user comprising a sleeve for substantially covering a portion of the limb of a user, wherein the sleeve has an outer surface, an inner surface, an upper edge, a lower edge and two lateral side edges (9, 10), wherein in the transverse direction from the first lateral side edge to the second lateral side edge the sleeve comprises a first lateral side region, a central region and a second lateral side region, the first lateral side region of the sleeve being provided with a plurality of fastening bands in series between the upper and lower edges of the sleeve and the second lateral side region being trimmable, and wherein the system further comprises a secondary closure element, said closure element being releasably attachable to the second lateral side region, said closure element further being provided with either an single elongate pair of flaps extending lengthwise or a plurality of pairs of flaps (51, 52) extending lengthwise in series, said elongate pair of flaps or pairs of flaps, as applicable, each including an exterior flap overlying an interior flap, wherein at least the exterior flap is movable relative to the interior flap such that the exterior flap is capable of performing a hinge movement about a longitudinal or substantially longitudinal axis and relative to the interior flap and wherein the opposing inner surfaces of the interior and exterior flaps comprise mechanical fastening elements (61, 62) adapted to releasably engage the inner and outer surfaces (4, 3), respectively, of at least the second lateral side region of the sleeve and to secure the secondary closure element along the second lateral side region of the sleeve in a clamp-like fashion.
Method of production of a biological product, wherein a cell culture, comprising at least one mammalian cell from a cell line, is introduced into a nutrient medium and cultivated and the biological product is obtained from the cell culture and/or from the nutrient medium, wherein the nutrient medium contains succinic acid or salts or complexes of this acid, wherein the nutrient medium contains the succinic acid or salts or complexes of this acid at a concentration of 0.2 g/l or higher, wherein the nutrient medium contains glutamine at a concentration of less than 8 mmol/l and wherein the nutrient medium is protein-free.
A light-emitting module, comprising: a light-emitting structure comprising a substrate, a plurality of light-emitting elements, a circuit board, a solder pad, and a first positioning mark, wherein the plurality of light-emitting elements and the circuit board are disposed on the substrate, and at least one of the plurality of light-emitting elements is electrically connected to the circuit board via the solder pad; and a carrying substrate comprising a second positioning mark, wherein the light-emitting structure is fixed on the carrying substrate along a direction, and the first positioning mark and the second positioning mark overlap in the direction; wherein the at least one of the plurality of light-emitting elements covers a portion of the solder pad and exposes another portion of the solder pad, and the first positioning mark comprises the exposed another portion of the solder pad. a light-emitting structure comprising a substrate, a plurality of light-emitting elements, a circuit board, a solder pad, and a first positioning mark, wherein the plurality of light-emitting elements and the circuit board are disposed on the substrate, and at least one of the plurality of light-emitting elements is electrically connected to the circuit board via the solder pad; and a carrying substrate comprising a second positioning mark, wherein the light-emitting structure is fixed on the carrying substrate along a direction, and the first positioning mark and the second positioning mark overlap in the direction; wherein the at least one of the plurality of light-emitting elements covers a portion of the solder pad and exposes another portion of the solder pad, and the first positioning mark comprises the exposed another portion of the solder pad.
A battery comprising: an electrode body obtained by stacking a positive electrode plate and a negative electrode plate with a separator interposed therebetween; an exterior body having an opening and housing the electrode body; a sealing plate sealing the opening; and an external terminal (7,9) attached to the sealing plate, a tab (40,50) being provided at at least one of the positive electrode plate or the negative electrode plate and being electrically connected to the external terminal (7,9) via a current collector (6a,6b,8a,8b) between the electrode body and the sealing plate, the current collector (6a,6b,8a,8b) including a first current collector (6a,8a) and a second current collector (6b,8b), the first current collector (6a,8a) and the second current collector (6b,8b) being welded to each other at a welding point covered with a covering member (81,82), characterized in that the first current collector (6a,8a) has an overlapped portion to the second current collector (6b,8b), a thinner part (6c,8c) is disposed in the overlapped portion of the first current collector (6a,8a), any boundary of the thinner part (6c,8c) is disposed apart from any boundary of the first current collector (6a,8a), and the welding point is disposed at the thinner part. an electrode body obtained by stacking a positive electrode plate and a negative electrode plate with a separator interposed therebetween; an exterior body having an opening and housing the electrode body; a sealing plate sealing the opening; and an external terminal (7,9) attached to the sealing plate, a tab (40,50) being provided at at least one of the positive electrode plate or the negative electrode plate and being electrically connected to the external terminal (7,9) via a current collector (6a,6b,8a,8b) between the electrode body and the sealing plate, the current collector (6a,6b,8a,8b) including a first current collector (6a,8a) and a second current collector (6b,8b), the first current collector (6a,8a) and the second current collector (6b,8b) being welded to each other at a welding point covered with a covering member (81,82), characterized in that the first current collector (6a,8a) has an overlapped portion to the second current collector (6b,8b), a thinner part (6c,8c) is disposed in the overlapped portion of the first current collector (6a,8a), any boundary of the thinner part (6c,8c) is disposed apart from any boundary of the first current collector (6a,8a), and the welding point is disposed at the thinner part.
A method of verifying the accuracy of a pick and place machine comprising: picking a component with a pick and place nozzle of a pick and place machine, the component including a first magnetic element; and placing the component on a surface of a test device with the pick and place nozzle, the test device including a second magnetic element, wherein a vacuum holding force of the pick and place nozzle when holding the component exceeds a force of magnetic attraction between the first magnetic element and the second magnetic element after the component is placed on the surface, inspecting the placed component on the surface with a vision detection system of the pick and place machine; and verifying the accuracy of the placement of the component on the surface with the pick and place machine. picking a component with a pick and place nozzle of a pick and place machine, the component including a first magnetic element; and placing the component on a surface of a test device with the pick and place nozzle, the test device including a second magnetic element, wherein a vacuum holding force of the pick and place nozzle when holding the component exceeds a force of magnetic attraction between the first magnetic element and the second magnetic element after the component is placed on the surface, inspecting the placed component on the surface with a vision detection system of the pick and place machine; and verifying the accuracy of the placement of the component on the surface with the pick and place machine.
A wound dressing for wound treatment in a moist or moist/wet environment, with a fibre nonwoven-based suction/rinsing body in which superabsorbent material is incorporated in a distributed manner, a saline aqueous solution, especially Ringer's solution, which preferably contains a substance with antimicrobial action, having been applied to the suction/rinsing body by the manufacturer, and with a cover forming the outer visual sides of the wound dressing, the cover comprising on the wound-facing side of the wound dressing a layer composed of a textile planar material, especially composed of a weft-knitted fabric, warp-knitted fabric or woven fabric, the layer composed of a textile planar material having on the wound-facing side an atraumatically acting coating, preferably composed of silicone, which has been applied on the outer side in a partial and structured manner, having a degree of coverage of at most 70%, characterized in that the cover comprises a fibre nonwoven layer on the side of the wound dressing that faces away from the wound, which fibre nonwoven layer forms the outer visual side of the wound dressing that faces away from the wound, and in that a fluid-impermeable plastics film layer is arranged on the wound-facing side of said fibre nowoven layer, and in that the fibre nonwoven layer, the plastics film layer, the suction/rinsing body and the layer composed of textile planar material are not joined to another in a planar manner, but are in contact with one another via their planar sides in a loose and slidable manner, the fibre nowoven layer, the plastics film layer, the suction/rinsing body and the layer composed of textile planar material being joined to one another only along their peripheral edge by means of a joint.
Method for process monitoring in a mechanical joining process, the method comprising: receiving a plurality of measured values f i (x i) during the performance of the mechanical joining process, wherein the measured values each relate at least 2 process variables f i, x i, where i = 1... n, to one another, performing a Fourier transform, wherein a number of Fourier coefficients (φ 1, φ 2,...φ n, A 1, A 2,...A n) are determined for the measured values f i (x i), reducing the number of Fourier coefficients to an at least 2-dimensional subspace, thereby obtaining a measuring point (φ k, φ l,....), (φ k, A l,....) or (A k, A l,....) (214, 216), comparing the measuring point (φk, φl,.....), (φ k, Al,...) or (A k, A l,...) (214, 216) with at least one reference point (R k, R l,...), (R k, S l,...) or (S k, S l,...) in the at least 2-dimensional subspace, and determining a monitoring outcome on the basis of the comparison with the reference point. receiving a plurality of measured values f i (x i) during the performance of the mechanical joining process, wherein the measured values each relate at least 2 process variables f i, x i, where i = 1... n, to one another, performing a Fourier transform, wherein a number of Fourier coefficients (φ 1, φ 2,...φ n, A 1, A 2,...A n) are determined for the measured values f i (x i), reducing the number of Fourier coefficients to an at least 2-dimensional subspace, thereby obtaining a measuring point (φ k, φ l,....), (φ k, A l,....) or (A k, A l,....) (214, 216), comparing the measuring point (φk, φl,.....), (φ k, Al,...) or (A k, A l,...) (214, 216) with at least one reference point (R k, R l,...), (R k, S l,...) or (S k, S l,...) in the at least 2-dimensional subspace, and determining a monitoring outcome on the basis of the comparison with the reference point.
An ultrasonic diagnostic apparatus comprising: an ultrasound probe provided with an array having at least one transducer; a display configured to display an image captured by the array; a body provided with a controller configured to, when at least one image is selected by a user among a plurality of images captured according to a rotation angle of the array, control a rotation angle of the array to allow the selected image to be displayed on the display, characterised in that the controller sequentially displays the plurality of images, which are captured according to the rotation angle of the array, and the image selected by the user, together with each other on the display. an ultrasound probe provided with an array having at least one transducer; a display configured to display an image captured by the array; a body provided with a controller configured to, when at least one image is selected by a user among a plurality of images captured according to a rotation angle of the array, control a rotation angle of the array to allow the selected image to be displayed on the display, characterised in that the controller sequentially displays the plurality of images, which are captured according to the rotation angle of the array, and the image selected by the user, together with each other on the display.
A radome, comprising: a substrate formed of moisture permeable material, wherein the substrate is a slip cast fused silica, SCFS, substrate; and a coating disposed on a surface of the SCFS substrate, the coating including a layer of inorganic material disposed adjacent to at least one layer (30,50) of organic material, wherein the at least one layer (30,50) of organic material are each about 0.5-1.5 μm thick and the layer of inorganic material is about 0.15-0.25 μm thick, and wherein the coating consists of: a first nano-laminate layer including organic material disposed on a surface of the SCFS substrate; a second nano-laminate layer including inorganic material disposed on a surface of the first nano-laminate layer; and a third nano-laminate layer including organic material disposed on a surface of the second nano-laminate layer. a substrate formed of moisture permeable material, wherein the substrate is a slip cast fused silica, SCFS, substrate; and a coating disposed on a surface of the SCFS substrate, the coating including a layer of inorganic material disposed adjacent to at least one layer (30,50) of organic material, wherein the at least one layer (30,50) of organic material are each about 0.5-1.5 μm thick and the layer of inorganic material is about 0.15-0.25 μm thick, and wherein the coating consists of: a first nano-laminate layer including organic material disposed on a surface of the SCFS substrate; a second nano-laminate layer including inorganic material disposed on a surface of the first nano-laminate layer; and a third nano-laminate layer including organic material disposed on a surface of the second nano-laminate layer. a first nano-laminate layer including organic material disposed on a surface of the SCFS substrate; a second nano-laminate layer including inorganic material disposed on a surface of the first nano-laminate layer; and a third nano-laminate layer including organic material disposed on a surface of the second nano-laminate layer.
Method for breeding and collecting larvae, preferably neonate larvae, comprising the following steps: a) placing insects in a cage, provided with material for the female insects to deposit eggs; b) ushering larvae, hatched from the deposited eggs, by means of a guiding device, placed under the cage, under the influence of gravity to a conveyor belt placed under the guiding device; c) moving the larvae by means of the conveyor belt to a recipient placed at the end of the conveyor belt; d) counting the number of larvae on the conveyor belt before collection in the recipient; e) collecting the larvae of the conveyor belt in the recipient until a predetermined number of larvae has been reached. a) placing insects in a cage, provided with material for the female insects to deposit eggs; b) ushering larvae, hatched from the deposited eggs, by means of a guiding device, placed under the cage, under the influence of gravity to a conveyor belt placed under the guiding device; c) moving the larvae by means of the conveyor belt to a recipient placed at the end of the conveyor belt; d) counting the number of larvae on the conveyor belt before collection in the recipient; e) collecting the larvae of the conveyor belt in the recipient until a predetermined number of larvae has been reached.
Method for the production of phosphor particles of an Si-containing and/or Al-containing phosphor with a protective layer, comprising the method steps: A) Treatment of the Si-containing and/or Al-containing phosphor with an acid solution, wherein the pH value of the acid solution is maintained within a range of pH 3.5 to 7 for a period of at least 1 h and wherein an Si-containing layer is formed on the phosphor particles, which layer has a higher content of Si on the surface than the phosphor particles, and/or an Al-containing layer is formed on the phosphor particles, which layer has a modified content of aluminum on the surface compared with the phosphor particles, B) Tempering of the treated phosphor particles at a temperature between 250°C and 400 °C with production of the protective layer. A) Treatment of the Si-containing and/or Al-containing phosphor with an acid solution, wherein the pH value of the acid solution is maintained within a range of pH 3.5 to 7 for a period of at least 1 h and wherein an Si-containing layer is formed on the phosphor particles, which layer has a higher content of Si on the surface than the phosphor particles, and/or an Al-containing layer is formed on the phosphor particles, which layer has a modified content of aluminum on the surface compared with the phosphor particles, B) Tempering of the treated phosphor particles at a temperature between 250°C and 400 °C with production of the protective layer.