mhurhangee/ep-ind-claims huggingface dataset:
A dog shoe, comprising a fastening strap, wherein the fastening strap is configured so that in a fastened state, the fastening strap exerts pulling forces towards the middle of the dog shoe at two side portions of the dog shoe, and the fastening strap is located between a position for placing a dog's dewclaw of the dog shoe and a position for placing the dog's phalangeal joints of the dog shoe; characterized in that an anti-drop cushion is disposed protruding on an inner wall of the counter of the dog shoe, and the anti-drop cushion is located at a position of the dog shoe corresponding to an indentation formed above the dog's sole pads, wherein extended lines in the directions of the pulling forces of the fastening strap are located below the anti-drop cushion or in that the counter of the dog shoe comprises a concave arc-shaped wall, and the concave arc-shaped wall is partially located at a position of the dog shoe corresponding to an indentation formed above the dog's sole pads, wherein the extended lines in the directions of the pulling forces of the fastening strap are located below the arc-shaped wall.
Process for the enhanced recovery of oil in a deposit owing to the introduction, into the deposit, of an alkaline aqueous solution of a water-soluble polymer containing a surfactant, characterized in that the aqueous solution of water-soluble polymer introduced is prepared with an aqueous solution initially containing Ca 2+ and Mg 2+ ions in which, prior to the introduction of the polymer and of the surfactant into the aqueous solution, an alkaline agent and a dispersant are incorporated, the incorporation of the dispersant and the alkaline agent being carried out so as to precipitate, under the action of the alkaline agent and of the CO 2 optionally dissolved in the aqueous solution, the Ca 2+ and Mg 2+ ions, and to disperse said precipitates owing to the dispersant, the nature and amount of which are chosen in order to limit the size of the precipitates formed, the dispersant being chosen from: - poly(meth)acrylates and copolymers with acrylamide, sodium acrylamidomethylpropane sulphonate, hydroxypropyl methacrylate, - vinyl polymers, - homopolymers or copolymers of maleic acid or of one of its derivatives, - phosphonates, and - lignosulphates, and being incorporated beforehand in the aqueous solution of water-soluble polymer introduced in an amount within the range extending from 30 to 500 ppm. - poly(meth)acrylates and copolymers with acrylamide, sodium acrylamidomethylpropane sulphonate, hydroxypropyl methacrylate, - vinyl polymers, - homopolymers or copolymers of maleic acid or of one of its derivatives, - phosphonates, and - lignosulphates,
A drying device for a mixture of a liquid and one or more solids, having a receiving container for the mixture, a rotor that is situated with one section of its circumference in the receiving container, and a drive device for rotatively driving the rotor, the rotor having a plurality of flat entrainment elements, whereby the entrainment elements have a radial orientation with respect to a rotational axis of the rotor, characterized in that at least some of the entrainment elements have a configuration in which relatively narrow entrainment elements alternate with relatively wide entrainment elements in the circumferential direction of the rotor, and/or at least some of the entrainment elements are provided with a plurality of through openings, whereby at least some of the through openings of the entrainment elements have an opening surface area of at least 800 mm 2,
A dressing for treating wounds, the dressing comprising: a base layer comprising a first aperture extending through the base layer; a first adhesive layer coupled to a first side of the base layer and comprising a second aperture extending through the first adhesive layer; a second adhesive layer coupled to a second side of the base layer and comprising a third aperture extending through the second adhesive layer; a channel layer comprising at least one member (76, 78) coupled to portions of the second adhesive layer; and a flexible top layer coupled to at least portions of the second adhesive layer and apposed to the channel layer, wherein a channel is formed between the channel layer and the top layer, the channel extending from the third aperture to an edge of the second adhesive layer; wherein the first aperture, second aperture, and third aperture are generally aligned to form a collection chamber that is in fluid communication with the channel; and wherein a valve is formed by the flexible top layer and the channel layer, having an open position that allows air, fluids and exudates to exit the wound, and a closed position in which the flexible top layer collapses against the channel layer to form a generally fluid- and airtight arrangement between the top layer and the channel layer. a base layer comprising a first aperture extending through the base layer; a first adhesive layer coupled to a first side of the base layer and comprising a second aperture extending through the first adhesive layer; a second adhesive layer coupled to a second side of the base layer and comprising a third aperture extending through the second adhesive layer; a channel layer comprising at least one member (76, 78) coupled to portions of the second adhesive layer; and a flexible top layer coupled to at least portions of the second adhesive layer and apposed to the channel layer, wherein a channel is formed between the channel layer and the top layer, the channel extending from the third aperture to an edge of the second adhesive layer; wherein the first aperture, second aperture, and third aperture are generally aligned to form a collection chamber that is in fluid communication with the channel; and wherein a valve is formed by the flexible top layer and the channel layer, having an open position that allows air, fluids and exudates to exit the wound, and a closed position in which the flexible top layer collapses against the channel layer to form a generally fluid- and airtight arrangement between the top layer and the channel layer.
A polyvinyl alcohol having a number-average molecular weight (Mn) from 4,400 to 440,000, a molecular weight distribution (Mw/Mn) from 1.05 to 1.70, a degree of saponification from 80 to 99.99 mol%, wherein the polyvinyl alcohol contains an end group represented by a formula below, and a molar ratio of the end group based on total monomer units and the number-average molecular weight (Mn) satisfy a formula below, in the formula, R 1 denotes an optionally substituted aromatic group having a carbon number from 6 to 20, and R 2 denotes a hydrogen atom, an alkyl group having a carbon number from 1 to 20, or an optionally substituted aromatic group having a carbon number from 6 to 20, X · Mn/44 ≥ 0.5 and wherein Mw/Mn, X and Mn are determined as described in the description. the polyvinyl alcohol contains an end group represented by a formula below, and a molar ratio of the end group based on total monomer units and the number-average molecular weight (Mn) satisfy a formula below, in the formula, R 1 denotes an optionally substituted aromatic group having a carbon number from 6 to 20, and R 2 denotes a hydrogen atom, an alkyl group having a carbon number from 1 to 20, or an optionally substituted aromatic group having a carbon number from 6 to 20, X · Mn/44 ≥ 0.5 and wherein Mw/Mn, X and Mn are determined as described in the description.
An electronic device comprising: an electronic element; and an interposer including an interposer base to which the electronic element is joined, and a plurality of post electrodes that are disposed inside and extend through one or more through holes formed in the interposer base and are connected to corresponding electrodes of the electronic element; wherein a surface of the electronic element and a surface of the interposer base are in direct contact with each other, and the post electrodes are formed directly on the corresponding electrodes of the electronic element; a rewiring layer formed directly on a top end of a plurality of the post electrodes in electrical connection therewith; and an external connection terminal formed on a top surface of an end of the rewiring layer opposite to an end of the rewiring layer connected to the post electrodes; an insulation layer formed on the surface of the interposer base facing away from the electronic element and in the through holes so as to be located between the interposer base and the post electrodes, the rewiring layer being located on the insulation layer formed on the surface of the interposer base facing away from the electronic element; characterized in that: the interposer has a cross sectional area in a plane parallel to an interface between the electronic element and the interposer which is larger than a cross sectional area of said electronic element in said plane. an electronic element; and an interposer including an interposer base to which the electronic element is joined, and a plurality of post electrodes that are disposed inside and extend through one or more through holes formed in the interposer base and are connected to corresponding electrodes of the electronic element; wherein a surface of the electronic element and a surface of the interposer base are in direct contact with each other, and the post electrodes are formed directly on the corresponding electrodes of the electronic element; a rewiring layer formed directly on a top end of a plurality of the post electrodes in electrical connection therewith; and an external connection terminal formed on a top surface of an end of the rewiring layer opposite to an end of the rewiring layer connected to the post electrodes; an insulation layer formed on the surface of the interposer base facing away from the electronic element and in the through holes so as to be located between the interposer base and the post electrodes, the rewiring layer being located on the insulation layer formed on the surface of the interposer base facing away from the electronic element; the interposer has a cross sectional area in a plane parallel to an interface between the electronic element and the interposer which is larger than a cross sectional area of said electronic element in said plane.
A method performed by a user equipment, UE, in wireless communication system, the method comprising: receiving, from a base station, system information, SI, for an initial access, the SI including information associated with one or more other SI; transmitting, to the base station, a preamble for a random access; receiving, from the base station, a random access response as a response to the preamble for the random access, the random access response including an uplink grant; transmitting, to the base station, an uplink message based on the uplink grant, wherein the uplink message includes information for indicating other SI, and the other SI is identified based on the information associated with one or more other SI included in the SI for the initial access; and receiving, from the base station, the other SI corresponding to the information for indicating other SI, wherein the other SI is different from the SI for the initial access. receiving, from a base station, system information, SI, for an initial access, the SI including information associated with one or more other SI; transmitting, to the base station, a preamble for a random access; receiving, from the base station, a random access response as a response to the preamble for the random access, the random access response including an uplink grant; transmitting, to the base station, an uplink message based on the uplink grant, wherein the uplink message includes information for indicating other SI, and the other SI is identified based on the information associated with one or more other SI included in the SI for the initial access; and receiving, from the base station, the other SI corresponding to the information for indicating other SI, wherein the other SI is different from the SI for the initial access.
Drive device (2, 10, 20) for driving the rollers or rolls of the strip guide, wherein the drive device (2, 10, 20) comprises a drive motor (11, 24), a transmission unit (13, 23), a clutch (17, 25) and optionally further housing parts and/or protective hoods as components of the drive device (2, 10, 20), wherein the drive motor (11, 24) is connected by means of the clutch (17, 25) with the transmission unit (13, 23) for transmission of torque and the components of the device are connected with a base plate, characterised in that the drive motor (11, 24), the transmission unit (13, 23), the clutch (17, 25) and the optional further housing parts and/or protective hoods as components of the drive device form a module and that only one of the components of the module is connected with the base plate and the other components (24, 25) of the module are directly or indirectly connected with the one component and are supported by it and that the drive device (2, 10, 20) is arranged on steps of the strip guide, wherein the base plate is secured on the foundation by means of screws.
Compression device (1, 2, 3) for application circumferentially around a patient's limb, the limb defining axial, radial and circumferential directions, wherein the compression device comprises a) a first band portion and a second band portion, both band portions being arrangeable along at least a part of the circumference of the limb for creating radial pressure on the limb, b) a rigid spine element, - extending in axial direction when the compression device is applied around the limb, - wherein a material of the spine element is chosen for which the elasticity modulus for bending the spine element in a direction perpendicular to its long direction is higher than 1500 N/mm2, as measured according to DIN 53457, and - comprising a first guide opening and a second guide opening for guiding the first and the second band portions, respectively, wherein the guide openings overlap in axial direction, and the guide openings being arranged offset in axial direction with respect to each other such that, when the first band portion is arranged along at least a part of the circumference of the limb and guided through the first guide opening, and the second band portion is arranged along at least a part of the circumference of the limb, parallel to the first band portion, and guided through the second guide opening, the first band portion and the second band portion overlap in an axial direction. a) a first band portion and a second band portion, both band portions being arrangeable along at least a part of the circumference of the limb for creating radial pressure on the limb, b) a rigid spine element, - extending in axial direction when the compression device is applied around the limb, - wherein a material of the spine element is chosen for which the elasticity modulus for bending the spine element in a direction perpendicular to its long direction is higher than 1500 N/mm2, as measured according to DIN 53457, and - comprising a first guide opening and a second guide opening for guiding the first and the second band portions, respectively, wherein the guide openings overlap in axial direction, and the guide openings being arranged offset in axial direction with respect to each other such that, when the first band portion is arranged along at least a part of the circumference of the limb and guided through the first guide opening, and the second band portion is arranged along at least a part of the circumference of the limb, parallel to the first band portion, and guided through the second guide opening, the first band portion and the second band portion overlap in an axial direction. - extending in axial direction when the compression device is applied around the limb, - wherein a material of the spine element is chosen for which the elasticity modulus for bending the spine element in a direction perpendicular to its long direction is higher than 1500 N/mm2, as measured according to DIN 53457, and - comprising a first guide opening and a second guide opening for guiding the first and the second band portions, respectively, wherein the guide openings overlap in axial direction, and
A panel transportation device comprising a panel grasp portion for grasping a panel, a link mechanism for moving the panel grasp portion in a panel transportation direction; and a slide mechanism for operating the link mechanism so as to move the panel grasp portion in the panel transportation direction and moving the entire link mechanism, wherein the slide mechanism is constituted of a first slide mechanism and a second slide mechanism provided closer to a transportation line downstream side than the first slide mechanism the first slide mechanism has a first slide block connected to the link mechanism, and is configured to linearly drive the first slide block in a direction inclined with respect to a horizontal plane so that the first slide block is at a high position on a transportation line upstream side and at a low position on the transportation line downstream side within a driving region of the first slide block; and the second slide mechanism has a second slide block is connected to the link mechanism, and is configured to linearly drive the second slide block in a direction inclined with respect to the horizontal plane so that the second slide block is at a low position on the transportation line upstream side and at a high position on the transportation line downstream side within a driving region of the second slide block; and the link mechanism is constructed such that the first slide block and the second slide block are connected to the panel grasp portion and the panel grasp portion is moved in the panel transportation direction by individually and linearly driving the first slide block and the second slide block, the link mechanism comprises a first link whose one end is pivotally connected to an output member, which is connected to the panel grasp portion, and whose other end is pivotally connected to the first slide block, wherein the first link comprises two arms (7a, 7b), and each of the two arms (7a, 7b) has one end pivotally connected to the output member and the other end pivotally connected to the first link mechanism characterized by a second link whose one end is pivotally connected to the output member and whose other end is pivotally connected to the second slide block, and that the first slide block comprises two slide blocks (4a, 4b) and the first slide mechanism comprises two driving means (11a, 11b) for individually driving the two slide blocks (4a, 4b), wherein the other ends of the two arms (7a, 7b) are pivotally connected to the two slide blocks (4a, 4b), and relative positions of the two slide blocks (4a, 4b) are changed to tilt the panel grasp portion connected to the output member.
A crystalline 3-phenyl-4-propyl-1-(pyridin-2-yl)-1 H -pyrazol-5-ol hydrochloride represented by the following Formula 1, having a maximum endothermic temperature, measured with a differential scanning calorimeter, of 134.25 ± 3°C wherein the crystalline 3-phenyl-4-propyl-1- (pyridin-2-yl)-1 H -pyrazol-5-ol hydrochloride has 2θ diffraction angles (2θ ± 0.2°) having a relative intensity of 15% or higher, obtained through X-ray powder diffraction analysis, of 7.15, 10.72, 13.36, 15.99, 16.39, 16.71, 17.14, 19.61, 21.50, 21.82, 23.46, 24.08, 25.91 and 27.36.
A process for dehydrating wet acetic acid, comprising contacting wet acetic acid and acetyl chloride wherein the contacting results in a total water conversion of from 10 to 99 weight % of the water in the wet acetic acid.
A light control film, comprising in this order: a first substrate including a first transparent electrode layer; a light control layer configured to change a scattered state of transmitted light based on a presence or absence of application of a voltage; and a second substrate including a second transparent electrode layer, the light control film being configured to be switchable between a non-scattering mode and a scattering mode based on the scattered state of the transmitted light, wherein a ratio of a haze value of the light control film in the scattering mode to a haze value of the light control film in the non-scattering mode (the haze value in the scattering mode/the haze value in the non-scattering mode) is 8.0 or more, and wherein the light control film has a light transmittance of 80% or more in the non-scattering mode; and wherein the light control layer comprises a polymer-dispersed liquid crystal layer and characterized in that the transparent electrode layers contain crystal grains, wherein the area occupancy ratio of the crystal grains is 30%. a first substrate including a first transparent electrode layer; a light control layer configured to change a scattered state of transmitted light based on a presence or absence of application of a voltage; and a second substrate including a second transparent electrode layer, the light control film being configured to be switchable between a non-scattering mode and a scattering mode based on the scattered state of the transmitted light, wherein a ratio of a haze value of the light control film in the scattering mode to a haze value of the light control film in the non-scattering mode (the haze value in the scattering mode/the haze value in the non-scattering mode) is 8.0 or more, and wherein the light control film has a light transmittance of 80% or more in the non-scattering mode; and wherein the light control layer comprises a polymer-dispersed liquid crystal layer and characterized in that the transparent electrode layers contain crystal grains, wherein the area occupancy ratio of the crystal grains is 30%.
A method for fabricating a porous structure comprising the steps of: creating a model of a porous structure, wherein the model defines at least one strut (200, 502) of the porous structure, wherein the at least one strut (200, 502) comprises a first node (202, 508), a second node (204, 510), and a body (206, 512) between the first node (202, 508) and the second node (204, 510); assigning a local coordinate system (208, 514) to the at least one strut (200, 502), wherein the local coordinate system (208, 514) is different from a machine system (210, 516) that defines a build plane of the machine; the method further comprising modifying a dimension of the at least one strut (200, 502) in a direction perpendicular to the build plane, wherein the modifying step does not affect any changes in the build plane; and fabricating the porous structure according to the model having the modified at least one strut by exposing fusible material to an energy source. creating a model of a porous structure, wherein the model defines at least one strut (200, 502) of the porous structure, wherein the at least one strut (200, 502) comprises a first node (202, 508), a second node (204, 510), and a body (206, 512) between the first node (202, 508) and the second node (204, 510); assigning a local coordinate system (208, 514) to the at least one strut (200, 502), wherein the local coordinate system (208, 514) is different from a machine system (210, 516) that defines a build plane of the machine; the method further comprising modifying a dimension of the at least one strut (200, 502) in a direction perpendicular to the build plane, wherein the modifying step does not affect any changes in the build plane; and fabricating the porous structure according to the model having the modified at least one strut by exposing fusible material to an energy source.