mhurhangee/ep-ind-claims huggingface dataset:
An electrode assembly having a one directionally spiral-wound structure with a separator sheet interposed between a positive electrode sheet and a negative electrode sheet, wherein the electrode assembly has a horizontal length x which is a same direction to the electrode assembly being wound, and the vertical length y which is perpendicular to the horizontal length with respect to an electrode plate of the electrode assembly, wherein the spiral-winding is performed five times or less, and both side end portions of the electrode assembly are bent together in the same direction within the range of a curvature radius R satisfying the following Equation 1: S 1 / ln x / y * t = R wherein t is an average thickness (mm) of the spiral-wound electrode assembly, x is the horizontal length (mm) of the electrode assembly, and y is the vertical length (mm) of the electrode assembly, and S is a constant between 9 to 12, R is 5 mm to 20 mm, and ln(x/y) ≥ 1, a ratio of y to x (y:x) is from 1:3 to 1:20. wherein the electrode assembly has a horizontal length x which is a same direction to the electrode assembly being wound, and the vertical length y which is perpendicular to the horizontal length with respect to an electrode plate of the electrode assembly, wherein the spiral-winding is performed five times or less, and both side end portions of the electrode assembly are bent together in the same direction within the range of a curvature radius R satisfying the following Equation 1: S 1 / ln x / y * t = R wherein t is an average thickness (mm) of the spiral-wound electrode assembly, x is the horizontal length (mm) of the electrode assembly, and y is the vertical length (mm) of the electrode assembly, and S is a constant between 9 to 12, R is 5 mm to 20 mm, and ln(x/y) ≥ 1, a ratio of y to x (y:x) is from 1:3 to 1:20.
A blood pump, comprising a flexible drive shaft guided in a catheter, a conveying element connected to the drive shaft in a distal region of the drive shaft and a motor, wherein the motor comprises a stator and a rotor rotatably mounted in the stator, wherein the stator comprises a winding and the rotor comprises a rotor magnet, wherein the drive shaft is connected to the rotor at a proximal end of the drive shaft, wherein the stator and the rotor are non-detachably connected to one another and form a gap which is delimited by the rotor and the stator, wherein the gap has a minimum width of 0.05 mm, wherein the stator has a fluid-tight sleeve with a substantially annular cross-section, by which the gap is delimited.
A method of communicating between a first communication device and a second communication device using an instant messaging application, the method comprising: receiving, at the first communication device, contact information identifying the second communication device; determining, by the first communication device, a contact type for the second communication device from the contact information; responsive to determining that the contact type is a first contact type, storing the contact information in a first partition of a memory of the first communication device; responsive to determining that the contact type is a second contact type, storing the contact information in a second partition of the memory of the first communication device; and further comprising: responsive to determining that the contact type is a first contact type, communicating with the second communication device using a first security policy; and responsive to determining that the contact type is a second contact type, communicating with the second communication device using a second security policy. receiving, at the first communication device, contact information identifying the second communication device; determining, by the first communication device, a contact type for the second communication device from the contact information; responsive to determining that the contact type is a first contact type, storing the contact information in a first partition of a memory of the first communication device; responsive to determining that the contact type is a second contact type, storing the contact information in a second partition of the memory of the first communication device; and further comprising: responsive to determining that the contact type is a first contact type, communicating with the second communication device using a first security policy; and responsive to determining that the contact type is a second contact type, communicating with the second communication device using a second security policy. responsive to determining that the contact type is a first contact type, communicating with the second communication device using a first security policy; and responsive to determining that the contact type is a second contact type, communicating with the second communication device using a second security policy.
Process for moulding and coating a substrate in a mould having at least two cavities, comprising the following steps: (a) moulding of a substrate in a first cavity of a mould (b) introduction of the substrate produced according to step (a) into a second cavity of the mould (c) coating of the substrate produced according to step (a) in the second cavity with a lacquer, the coating being carried out under pressure, followed by the curing of the lacquer, where the pressure in the second cavity or in parts of the second cavity is maintained constant or maintained above a limiting pressure of 10 bar (10,000 hPa) in step (c) by heating the substrate and the lacquer during the coating and curing. (a) moulding of a substrate in a first cavity of a mould (b) introduction of the substrate produced according to step (a) into a second cavity of the mould (c) coating of the substrate produced according to step (a) in the second cavity with a lacquer, the coating being carried out under pressure, followed by the curing of the lacquer, where the pressure in the second cavity or in parts of the second cavity is maintained constant or maintained above a limiting pressure of 10 bar (10,000 hPa) in step (c) by heating the substrate and the lacquer during the coating and curing.
A method of additive manufacturing an additive manufactured article comprising, (i) providing a mixture comprised of an organic reactive material and phase change material, (ii) dispensing said mixture through a nozzle to form an extrudate deposited on a base, (iii) moving the base, nozzle or combination thereof while dispensing the mixture so that there is horizontal displacement between the base and nozzle in a predetermined pattern to form an initial layer of the mixture on the base, (iv) repeating steps (ii) and (iii) to form a successive layer of the mixture adhered on the initial layer to form an additive manufactured part, and (v) allowing the organic reactive material to react forming a thermoset material having therein the phase change material to form the additive manufactured article, wherein the phase change material is from 1 % to 50% by volume of the additive manufactured article and steps (i) through (iv) are performed at a temperature less than a phase change temperature where the phase change material undergoes a phase change and the phase change temperature is less than a decomposition temperature where the thermoset material starts to decompose. (i) providing a mixture comprised of an organic reactive material and phase change material, (ii) dispensing said mixture through a nozzle to form an extrudate deposited on a base, (iii) moving the base, nozzle or combination thereof while dispensing the mixture so that there is horizontal displacement between the base and nozzle in a predetermined pattern to form an initial layer of the mixture on the base, (iv) repeating steps (ii) and (iii) to form a successive layer of the mixture adhered on the initial layer to form an additive manufactured part, and (v) allowing the organic reactive material to react forming a thermoset material having therein the phase change material to form the additive manufactured article, wherein the phase change material is from 1 % to 50% by volume of the additive manufactured article and steps (i) through (iv) are performed at a temperature less than a phase change temperature where the phase change material undergoes a phase change and the phase change temperature is less than a decomposition temperature where the thermoset material starts to decompose.
Method for recovering hydrate inhibitor from a fluid comprising water, hydrate inhibitor mineral salt ions and salt particles, wherein the method comprises - evaporating water and hydrate inhibitor from the fluid with an indirectly heated paddle dryer, thereby obtaining vapor and a dry solid salt residue; - recovering the hydrate inhibitor from the vapor. - evaporating water and hydrate inhibitor from the fluid with an indirectly heated paddle dryer, thereby obtaining vapor and a dry solid salt residue; - recovering the hydrate inhibitor from the vapor.
An electrical control cabinet comprising a cabinet body and an electrical control panel for connector terminals, wherein the electrical control panel for connector terminals comprises: a motherboard body; and a connector terminal body, wherein the connector terminal body is disposed on the motherboard body, wherein there is at least one connector terminal body, wherein a plurality of connection ports and control switches corresponding to the connection ports are disposed on the connector terminal body, the connection ports are connected to components of the motherboard body, and the control switches act to compress or loosen conducting wires; characterized in that the cabinet body has a holding cavity, a plurality of clamping blocks are disposed on an inner wall of the holding cavity, and the plurality of clamping blocks are distributed around the motherboard body and are fitted with the motherboard body such that the motherboard body is connected to the cabinet body; and wherein the clamping blocks comprise a first clamping block and a second clamping block located at opposite ends of the motherboard body, the clamping blocks have clamping slots, and side walls of the motherboard body are clamped inside the clamping slots; wherein sliding grooves are disposed on the inner wall of the holding cavity, the sliding grooves are distributed along an axis of the holding cavity, and the first clamping block is slidably connected inside the sliding grooves. a motherboard body; and a connector terminal body, wherein the connector terminal body is disposed on the motherboard body, wherein there is at least one connector terminal body, wherein a plurality of connection ports and control switches corresponding to the connection ports are disposed on the connector terminal body, the connection ports are connected to components of the motherboard body, and the control switches act to compress or loosen conducting wires; characterized in that the cabinet body has a holding cavity, a plurality of clamping blocks are disposed on an inner wall of the holding cavity, and the plurality of clamping blocks are distributed around the motherboard body and are fitted with the motherboard body such that the motherboard body is connected to the cabinet body; and wherein the clamping blocks comprise a first clamping block and a second clamping block located at opposite ends of the motherboard body, the clamping blocks have clamping slots, and side walls of the motherboard body are clamped inside the clamping slots; wherein sliding grooves are disposed on the inner wall of the holding cavity, the sliding grooves are distributed along an axis of the holding cavity, and the first clamping block is slidably connected inside the sliding grooves.
A reinforcing material comprising a buttress, wherein the reinforcing material comprises a polymer selected from the group consisting of glycolic acid, lactic acid, glycolide, lactide, dioxanone, trimethylene carbonate, caprolactone, and combinations thereof and characterised in that the buttress comprises etched portions (12, 32, 32' 34, 34', 36) wherein said etched portions (12, 32, 32') form a pattern at least on the tissue contacting surface (34, 34'), wherein said pattern increases the surface area of the reinforcing material.
A method for obtaining one or more oral images using an imaging device, comprising: obtaining, using an imager of the imaging device, an oral image; determining, by a sensor of the imaging device, an orientation of the imaging device; extracting, by a controller of the imaging device, one or more features from the obtained oral image, wherein the extracted one or more features comprises at least an image quality feature and an object recognition feature; determining, by the controller, whether the one or more extracted features satisfy a predetermined feature threshold; calculating, by the controller if the one or more extracted features does not satisfy the predetermined feature threshold, a physical adjustment of the imaging device required to satisfy the predetermined feature threshold, wherein the calculation of the required physical adjustment is based on the one or more extracted features and the determined orientation of the imaging device; and providing, via a user interface of the imaging device, feedback to a user regarding the obtained oral image if the one or more extracted features does not satisfy the predetermined feature threshold, wherein the feedback comprises instructions to implement the calculated physical adjustment of the imaging device required to satisfy the predetermined feature threshold. obtaining, using an imager of the imaging device, an oral image; determining, by a sensor of the imaging device, an orientation of the imaging device; extracting, by a controller of the imaging device, one or more features from the obtained oral image, wherein the extracted one or more features comprises at least an image quality feature and an object recognition feature; determining, by the controller, whether the one or more extracted features satisfy a predetermined feature threshold; calculating, by the controller if the one or more extracted features does not satisfy the predetermined feature threshold, a physical adjustment of the imaging device required to satisfy the predetermined feature threshold, wherein the calculation of the required physical adjustment is based on the one or more extracted features and the determined orientation of the imaging device; and providing, via a user interface of the imaging device, feedback to a user regarding the obtained oral image if the one or more extracted features does not satisfy the predetermined feature threshold, wherein the feedback comprises instructions to implement the calculated physical adjustment of the imaging device required to satisfy the predetermined feature threshold.
A zirconium hydride composition comprising a plurality of solid spherical nanoparticles that are characterized by a number-average particle diameter from about 10 nanometers to about 1000 nanometers, wherein said nanoparticles include zirconium hydride nanoparticles and optionally zirconium nanoparticles, and wherein said nanoparticles contain, on average, at least 50 atom% hydrogen that is chemically bonded with said zirconium as ZrH x, wherein x is about 1.5 to 2.
A cooking device for a microwave oven, the cooking device comprising an assembly including a micro-wave heatable cooking element and two handles made of a thermo-insulating material transparent to microwaves removably attached to opposite end sections of the cooking element, the cooking element comprising: a sheet metal plate defining a cooking surface on a first side thereof and a heat absorbing surface on an opposite second side thereof; and an induction layer made of a microwave-absorbing material laid on the heat absorbing surface of the sheet metal plate in thermal contact therewith, characterized in that: the sheet metal plate of the cooking element has a smooth continuous perimetral edge with no vertexes and a shaped perimetral region adjacent to the perimetral edge, the shaped perimetral region being bent towards one side of the sheet metal plate. a sheet metal plate defining a cooking surface on a first side thereof and a heat absorbing surface on an opposite second side thereof; and an induction layer made of a microwave-absorbing material laid on the heat absorbing surface of the sheet metal plate in thermal contact therewith, characterized in that: the sheet metal plate of the cooking element has a smooth continuous perimetral edge with no vertexes and a shaped perimetral region adjacent to the perimetral edge, the shaped perimetral region being bent towards one side of the sheet metal plate.
Spar cap of a rotor blade of a wind turbine comprising at least two pultrudate or RodPack layers, each consisting of pultrudate layers adhesively attached onto a carrier medium and at least one woven and/or nonwoven layer, which is arranged between the at least two pultrudate or RodPack layers and/or which is arranged as an extension of the pultrudate or RodPack layers at a tip-side end of the pultrudate or RodPack layers, the at least two pultrudate or RodPack layers and the at least one woven or nonwoven layer being connected to one another by a cured resin compound.
An installation cabinet, especially a distribution box, with at least one fastening opening, comprising a fastening device, by means of which the installation cabinet can be fastened in a wall shell opening built into a wall shell, wherein the fastening device further comprises at least one fastening element having a first side, able to be faced away from a rear side of the wall shell, and a second side, able to be faced towards the rear side of the wall shell, wherein the fastening element comprises a gripping arm having a first end and a gripping portion which is arranged adjacent to the first end on the second side, wherein the gripping portion is suitable to engage on the rear side, wherein the installation cabinet has an inner side facing an interior space, an outer side facing an exterior space, a cabinet base and the at least one fastening opening, wherein the fastening element is guided at least partially through the fastening opening from the interior space to the exterior space with the first end located in front, in a direction running parallel to the cabinet base in order to bring the gripping portion into contact with the rear side of the wall shell, wherein the first side comprises a first bearing portion which rests on a first bearing region, arranged adjacent to the fastening opening, of the installation cabinet, in order to form a hinge point, and wherein the second side comprises a second bearing portion which rests on a second bearing region, arranged adjacent to the fastening opening of the installation cabinet, in order to counteract a pivoting movement of the gripping arm away from the rear side.
A recombinant Exiguobacterium α-amylase having α-amylase activity and comprising an amino acid sequence having at least 96% amino acid sequence identity to the amino acid sequence of SEQ ID NO: 4 or having at least 93% amino acid sequence identity to the amino acid sequence of SEQ ID NO: 5, wherein the alpha-amylase comprises a deletion of one of more residues corresponding to R179, G180, T181, or G182, and/or one or more substitutions selected from G242Q, T242Q, D188P, N188P, and G477K, referring to SEQ ID NO: 4 or SEQ ID NO: 5 for numbering.
A method for measuring a meandering amount of a strip during conveyance thereof, characterized in that an imaging means is arranged in one side of the strip at a state of tilting an optical axis thereof to a pass line plane of the strip, and a lighting is arranged in the other side of the strip so as to irradiate light to the strip from the back of the strip viewing from the imaging means, and the strip is shot by the imaging means from an obliquely side so as to include both edges of the strip, and the edges of the strip are detected with an image shot by the imaging means and a meandering amount of the strip is calculated based on the detected edge position information of the strip from a standard position. an imaging means is arranged in one side of the strip at a state of tilting an optical axis thereof to a pass line plane of the strip, and a lighting is arranged in the other side of the strip so as to irradiate light to the strip from the back of the strip viewing from the imaging means, and the strip is shot by the imaging means from an obliquely side so as to include both edges of the strip, and the edges of the strip are detected with an image shot by the imaging means and a meandering amount of the strip is calculated based on the detected edge position information of the strip from a standard position.
A system for medical imaging comprising: an acquisition unit comprising a radiation source configured to emit X-rays and an X-ray detector configured to receive X-rays having passed through an object to be imaged and produce numerical values representative of the received X-rays, the acquisition unit movable about the object to be imaged to acquire a plurality of projection images, each at a different angle relative to the object to be imaged; and characterized by: an image processing unit that receives an input of a focal point for a synthetic projection image, selects a first projection image (P i) and a second projection image (P i+1) adjacent to the focal point from the plurality of projection images, and for each pixel of the synthetic projection image: identifies a first set of object locations in the first projection image and a second set of object locations in the second projection image that contribute to a pixel of the synthetic projection image; and calculates a value for the pixel of the synthetic projection image from pixels of the first set of object locations and the second set of object locations; wherein the image processing unit creates an interpolated synthetic projection image (P s) from the calculated values of each pixel of the synthetic projection image. an acquisition unit comprising a radiation source configured to emit X-rays and an X-ray detector configured to receive X-rays having passed through an object to be imaged and produce numerical values representative of the received X-rays, the acquisition unit movable about the object to be imaged to acquire a plurality of projection images, each at a different angle relative to the object to be imaged; and characterized by: an image processing unit that receives an input of a focal point for a synthetic projection image, selects a first projection image (P i) and a second projection image (P i+1) adjacent to the focal point from the plurality of projection images, and for each pixel of the synthetic projection image: identifies a first set of object locations in the first projection image and a second set of object locations in the second projection image that contribute to a pixel of the synthetic projection image; and calculates a value for the pixel of the synthetic projection image from pixels of the first set of object locations and the second set of object locations; wherein the image processing unit creates an interpolated synthetic projection image (P s) from the calculated values of each pixel of the synthetic projection image. identifies a first set of object locations in the first projection image and a second set of object locations in the second projection image that contribute to a pixel of the synthetic projection image; and calculates a value for the pixel of the synthetic projection image from pixels of the first set of object locations and the second set of object locations; wherein the image processing unit creates an interpolated synthetic projection image (P s) from the calculated values of each pixel of the synthetic projection image.