mhurhangee/ep-ind-claims huggingface dataset:
Support structure (101, 201), in particular a secondary support structure, for supporting a film wrapping formed by a film (109, 209) or a membrane wrapping formed by a membrane, having at least a first support structure element (105, 205) and a second support structure element (105, 205), which are spaced apart in a defined manner and adjacent to one another with a gap (121, 221), wherein the support structure elements each have a film receptacle for fastening the film or membrane, such that the support structure elements are connected to each other by means of the film or membrane when the film or membrane is fastened, characterised in that the support structure elements are movably arranged in a movement receptacle of the support structure configured for the directional guidance of support structure movements and are coupled by means of a first spring element (107, 207), such that in the event of a support structure movement a film elongation or membrane elongation is distributed over the support structure elements.
A compound of Formula I or a stereoisomer, tautomer, racemic, salt, hydrate, or solvate thereof, Wherein R 1 is selected from hydrogen and C 1-20 alkyl; X 1 is hydrogen or halo; X 2 is -C(=O)-NH- or -NH-C(=O)-; Cy is an optionally substituted group selected from aryl and heteroaryl; X 3 is selected from the group consisting of -S-, -O-, and -NR 2 -; R 2 is hydrogen or C 1-6 alkyl; Het 1 2-oxotetrahydrofuranyl optionally substituted with one or more C 1-6 alkyl-; and A 1 and A 2 are each independently a direct bond or an optionally substituted C 1-6 alkylene. R 1 is selected from hydrogen and C 1-20 alkyl; X 1 is hydrogen or halo; X 2 is -C(=O)-NH- or -NH-C(=O)-; Cy is an optionally substituted group selected from aryl and heteroaryl; X 3 is selected from the group consisting of -S-, -O-, and -NR 2 -; R 2 is hydrogen or C 1-6 alkyl; Het 1 2-oxotetrahydrofuranyl optionally substituted with one or more C 1-6 alkyl-; and A 1 and A 2 are each independently a direct bond or an optionally substituted C 1-6 alkylene.
Polyamide composition with enhanced thermal stability and/or functional properties, characterized in that for stabilization and/or functionalization it comprises at least one stabilizing and/or functionalizing metal salt-organoligand complex compound as polymer additive, the organoligand being a 2-oxazoline derivative and the metal salt being a copper or copper acetate or a zinc, tin, cobalt, molybdenum, titanium or silver halide, nitrate, phosphate or acetate.
A method, comprising: transmitting, from a user equipment, a first message to a first evolved Node B (eNB), wherein the first message indicates a request to establish a sidelink communication; receiving, at the UE, a second message from the first eNB, wherein the second message indicates a frequency that is used by a secondary evolved Node B (SeNB); transmitting, from the UE, a measurement result to the first eNB; receiving, at the UE, sidelink configuration information from the first eNB, wherein the sidelink configuration information indicates: - sidelink resources managed by the secondary eNB; - whether the first eNB or the secondary eNB provides scheduling for the sidelink communication; - whether the first eNB or the secondary eNB provides synchronization for the sidelink communication; and configuring UE sidelink communication according to received sidelink configuration information. transmitting, from a user equipment, a first message to a first evolved Node B (eNB), wherein the first message indicates a request to establish a sidelink communication; receiving, at the UE, a second message from the first eNB, wherein the second message indicates a frequency that is used by a secondary evolved Node B (SeNB); transmitting, from the UE, a measurement result to the first eNB; receiving, at the UE, sidelink configuration information from the first eNB, wherein the sidelink configuration information indicates: - sidelink resources managed by the secondary eNB; - whether the first eNB or the secondary eNB provides scheduling for the sidelink communication; - whether the first eNB or the secondary eNB provides synchronization for the sidelink communication; and - sidelink resources managed by the secondary eNB; - whether the first eNB or the secondary eNB provides scheduling for the sidelink communication; - whether the first eNB or the secondary eNB provides synchronization for the sidelink communication; and configuring UE sidelink communication according to received sidelink configuration information.
An extended-range spray applicator comprising: (a) an air supply means, for providing a flow of air through the spray applicator; wherein the air supply means is configured to connect to (b) a head assembly, configured to attach to the air supply means; wherein the assembly comprises: (i) an air supply means adaptor, for connecting the head assembly to the air supply means; (ii) a primary air guide shroud, to guide the flow of air coming from the air supply means; (iii) a liquid atomizer means, for transforming liquid into sub-millimeter-sized droplets; wherein the atomizer is situated centrally within the shroud; (iv) a mounting means, for attaching the atomizer to the head assembly; (v) a motor, mechanically connected to the atomizer; and optionally (vi) a battery receptacle, for holding a battery, which is electrically connected to the motor; wherein the head assembly, already equipped with the primary air guide shroud, is configured to reversibly attach to a secondary shroud. (a) an air supply means, for providing a flow of air through the spray applicator; wherein the air supply means is configured to connect to (b) a head assembly, configured to attach to the air supply means; wherein the assembly comprises: (i) an air supply means adaptor, for connecting the head assembly to the air supply means; (ii) a primary air guide shroud, to guide the flow of air coming from the air supply means; (iii) a liquid atomizer means, for transforming liquid into sub-millimeter-sized droplets; wherein the atomizer is situated centrally within the shroud; (iv) a mounting means, for attaching the atomizer to the head assembly; (v) a motor, mechanically connected to the atomizer; and optionally (vi) a battery receptacle, for holding a battery, which is electrically connected to the motor; wherein the head assembly, already equipped with the primary air guide shroud, is configured to reversibly attach to a secondary shroud. (i) an air supply means adaptor, for connecting the head assembly to the air supply means; (ii) a primary air guide shroud, to guide the flow of air coming from the air supply means; (iii) a liquid atomizer means, for transforming liquid into sub-millimeter-sized droplets; wherein the atomizer is situated centrally within the shroud; (iv) a mounting means, for attaching the atomizer to the head assembly; (v) a motor, mechanically connected to the atomizer; and optionally (vi) a battery receptacle, for holding a battery, which is electrically connected to the motor;
A knitting method for knitting a spacer fabric having a front knitted fabric, a rear knitted fabric, and a connecting yarn (22, 24) that connects the front knitted fabric and the rear knitted fabric, using a knitting machine provided with at least a pair of needle beds (FB, BB) each having a plurality of needles, and a carriage, the method characterized by, in order to knit the spacer fabric in which one side of the space fabric (4, 6) is convex and the other side is flat or both the front and rear knitted fabrics (4, 6) alternately have convexities: a step (a) of repeatedly forming tuck stitches with the connecting yarn (22, 24) alternately on stitches in the front knitted fabric caught on the needles and stitches in the rear knitted fabric caught on the needles such that the tuck stitches are formed at a pitch of a plurality of stitches along the needle beds (FB,BB) both on the front knitted fabric and on the rear knitted fabric but are not formed on mutually opposing stitches, while changing stitches to be tucked such that the tuck stitches are formed on each stitch of the front knitted fabric and the rear knitted fabric; a step (b) of knitting next stitches at a pitch of a plurality of stitches on the stitches of the front knitted fabric on which the tuck stitches have been formed; and a step (c) of knitting next stitches at a pitch of a plurality of stitches on the stitches of the rear knitted fabric on which the tuck stitches have been formed; wherein the next stitches are knitted on each stitch of the front knitted fabric and the rear knitted fabric on the stitches where the tuck stitches have been formed on, by repeating the step (b) and the step (c), while changing stitches for forming the next stitches, and in the step (b) and the step (c), the next stitches are knitted firstly on the knitted fabric on the side that is to be made flat, and the next stitches are knitted lastly on the tuck stitches in the knitted fabric to be made convex, which are connected via the connecting yarn (22, 24) to the tuck stitches on which the next stitches have been firstly knitted. a step (a) of repeatedly forming tuck stitches with the connecting yarn (22, 24) alternately on stitches in the front knitted fabric caught on the needles and stitches in the rear knitted fabric caught on the needles such that the tuck stitches are formed at a pitch of a plurality of stitches along the needle beds (FB,BB) both on the front knitted fabric and on the rear knitted fabric but are not formed on mutually opposing stitches, while changing stitches to be tucked such that the tuck stitches are formed on each stitch of the front knitted fabric and the rear knitted fabric; a step (b) of knitting next stitches at a pitch of a plurality of stitches on the stitches of the front knitted fabric on which the tuck stitches have been formed; and a step (c) of knitting next stitches at a pitch of a plurality of stitches on the stitches of the rear knitted fabric on which the tuck stitches have been formed;
A device for manufacturing pellets by compression, comprising: - a support in which there is arranged a plurality of dies passing through the support, each die comprising a first and a second opening (17, 16) substantially opposite to each other; - a plurality of first compression tools (25, 26), each one of the first tools (25, 26) being disposed opposite to the first opening of a die and presenting a section that is complementary to the section of said die and slightly smaller, so as to be able to be engaged, at least in part, in the die by the first opening of said die; - a plurality of second compression tools (20, 22), each one of the second tools (20, 22) presenting a section having dimensions larger than those of the second opening of said die so as to be able to close said second opening; - means for driving each one of the second tools (20, 22) able to cause a displacement of the end face of each one of said second tools (20, 22) located opposite to the support, with respect to said support, along a plane substantially parallel to the plane of the second opening of the die opposite to which said second tool (20, 22) is disposed; characterized in that each one of the second tools (20, 22) is disposed opposite to the second opening of a die and in that the driving means are arranged to cause a rotation of the second tool (20, 22) about an axis substantially perpendicular to the plane of the second opening, in order to create a relative movement between the end face of the second tool (20, 22) and the pellet being formed. - a support in which there is arranged a plurality of dies passing through the support, each die comprising a first and a second opening (17, 16) substantially opposite to each other; - a plurality of first compression tools (25, 26), each one of the first tools (25, 26) being disposed opposite to the first opening of a die and presenting a section that is complementary to the section of said die and slightly smaller, so as to be able to be engaged, at least in part, in the die by the first opening of said die; - a plurality of second compression tools (20, 22), each one of the second tools (20, 22) presenting a section having dimensions larger than those of the second opening of said die so as to be able to close said second opening; - means for driving each one of the second tools (20, 22) able to cause a displacement of the end face of each one of said second tools (20, 22) located opposite to the support, with respect to said support, along a plane substantially parallel to the plane of the second opening of the die opposite to which said second tool (20, 22) is disposed;
A method for processing depth images in a sequence of video images, wherein each video image I(x, y) has an associated depth image having a depth value d for each pixel location ( x, y), the depth images being of reduced depth resolution is obtained by down-sampling the depth images, comprising: scaling up, by up-sampling, each down-sampled depth image to produce a corresponding up-scaled depth image; and applying the following processing steps (820, 830, 840, 850) to each up-scaled depth image, executed in the following order to produce a corresponding filtered up-sampled depth image: image dilation to each up-scaled depth image to produce a corresponding dilated image; median filtering to each dilated image to produce a corresponding median image; image erosion to each median image to produce a corresponding eroded image; and min-max filtering to each eroded image to produce said corresponding filtered up-sampled depth image, wherein the min-max filter assigns a minimum depth of the pixels in a window as a depth of a center pixel in the window when an absolute value of a difference between a minimum depth of the pixels in the window and the depth at the center pixel of the window is less than an absolute value of a difference between a maximum depth in the window and the depth at the center pixel of the window. scaling up, by up-sampling, each down-sampled depth image to produce a corresponding up-scaled depth image; and applying the following processing steps (820, 830, 840, 850) to each up-scaled depth image, executed in the following order to produce a corresponding filtered up-sampled depth image: image dilation to each up-scaled depth image to produce a corresponding dilated image; median filtering to each dilated image to produce a corresponding median image; image erosion to each median image to produce a corresponding eroded image; and min-max filtering to each eroded image to produce said corresponding filtered up-sampled depth image, image dilation to each up-scaled depth image to produce a corresponding dilated image; median filtering to each dilated image to produce a corresponding median image; image erosion to each median image to produce a corresponding eroded image; and min-max filtering to each eroded image to produce said corresponding filtered up-sampled depth image,
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, random access configuration including information of a physical random access channel, PRACH-configuration index indicating a preamble format among a plurality of formats; setting a target power based on an initial power, a delta-preamble value, a power ramping step configured, and a power ramping counter; and transmitting, to the base station, a random access preamble based on the target power, wherein the delta-preamble value is associated with the preamble format and a subcarrier spacing. receiving, from a base station, random access configuration including information of a physical random access channel, PRACH-configuration index indicating a preamble format among a plurality of formats; setting a target power based on an initial power, a delta-preamble value, a power ramping step configured, and a power ramping counter; and transmitting, to the base station, a random access preamble based on the target power, wherein the delta-preamble value is associated with the preamble format and a subcarrier spacing.
A binder composition, comprising: at least one unsaturated monomer; and more than one polyphenolic compound selected from a lignin, a tannin, a novolac resin, a modified phenol formaldehyde resin, bis-phenol A, and humic acid, wherein the binder composition comprises 0.1 wt% to 10 wt% of the unsaturated monomer, based on a solids weight of the more than one polyphenolic compound. at least one unsaturated monomer; and more than one polyphenolic compound selected from a lignin, a tannin, a novolac resin, a modified phenol formaldehyde resin, bis-phenol A, and humic acid, wherein the binder composition comprises 0.1 wt% to 10 wt% of the unsaturated monomer, based on a solids weight of the more than one polyphenolic compound.
A system comprising: a cartridge (150, 250) and a measuring unit, wherein the cartridge is configured to engage with a docking portion of a testing apparatus and adapted to be brought into engagement with the testing apparatus; the cartridge (150, 250) comprising a receiving portion (12; 12'; 12"; 12′′′) for receiving a liquid to be tested, the receiving portion (12; 12'; 12"; 12′′′) being formed as a double-open-ended tube structure, at least one first electrode (21; 21'; 21"; 21′′′) reaching into the receiving portion (12; 12'; 12"; 12′′′), a second electrode (22; 22'; 22"; 22′′′) reaching into the receiving portion (12; 12'; 12"; 12′′′), at least one ultrasound transducer positioned to emit ultrasound waves towards the receiving portion (12; 12'; 12"; 12′′′), and a voltage application unit adapted to apply an electrical voltage between the first electrode (21; 21'; 21"; 21′′′) and the second electrode (22; 22'; 22"; 22′′′); wherein the measuring unit is electrically coupled to the first electrode (21; 21'; 21"; 21′′′) and the second electrode (22; 22'; 22"; 22′′′), and wherein the measuring unit is configured to detect resistance or impedance of a fluid in the receiving portion (12; 12'; 12"; 12′′′) to a direct or alternating current between the at least one first electrode (21; 21'; 21"; 21′′′) and the second electrode (22; 22'; 22"; 22′′′) through the liquid in the receiving portion (12; 12'; 12"; 12′′′). a cartridge (150, 250) and a measuring unit, wherein the cartridge is configured to engage with a docking portion of a testing apparatus and adapted to be brought into engagement with the testing apparatus; the cartridge (150, 250) comprising a receiving portion (12; 12'; 12"; 12′′′) for receiving a liquid to be tested, the receiving portion (12; 12'; 12"; 12′′′) being formed as a double-open-ended tube structure, at least one first electrode (21; 21'; 21"; 21′′′) reaching into the receiving portion (12; 12'; 12"; 12′′′), a second electrode (22; 22'; 22"; 22′′′) reaching into the receiving portion (12; 12'; 12"; 12′′′), at least one ultrasound transducer positioned to emit ultrasound waves towards the receiving portion (12; 12'; 12"; 12′′′), and a voltage application unit adapted to apply an electrical voltage between the first electrode (21; 21'; 21"; 21′′′) and the second electrode (22; 22'; 22"; 22′′′); wherein the measuring unit is electrically coupled to the first electrode (21; 21'; 21"; 21′′′) and the second electrode (22; 22'; 22"; 22′′′), and wherein the measuring unit is configured to detect resistance or impedance of a fluid in the receiving portion (12; 12'; 12"; 12′′′) to a direct or alternating current between the at least one first electrode (21; 21'; 21"; 21′′′) and the second electrode (22; 22'; 22"; 22′′′) through the liquid in the receiving portion (12; 12'; 12"; 12′′′).
Folding fin system, comprising: - a fin base, - a fin upper portion rotatably mounted on the fin base by means of an axle, - wherein the fin base encompasses a first axle holder with at least one axle holder element and the fin upper portion encompasses a second axle holder with at least one second axle holder element, the axle being disposed inside the first axle holder and the second axle holder, - wherein the fin upper portion can be moved relative to the fin base between a folded and an unfolded position, and - wherein the fin upper portion and the fin base are reciprocally lockable by means of a tongue- and-groove system (13, 14) when the fin upper portion is in the unfolded position, - wherein a second axle holder element is assigned to each first axle holder element, the first axle holder element having a groove and the associated second axle holder element having a corresponding tongue, wherein the groove and the tongue have a tapering region with conically converging flanks and an end region with flanks aligned at least sectionwise in parallel, or wherein the first axle holder element has a tongue and the associated second axle holder element has a corresponding groove, with the groove and the tongue having a tapering region with conically converging flanks and an end region with flanks aligned parallel at least in sections. - a fin base, - a fin upper portion rotatably mounted on the fin base by means of an axle, - wherein the fin base encompasses a first axle holder with at least one axle holder element and the fin upper portion encompasses a second axle holder with at least one second axle holder element, the axle being disposed inside the first axle holder and the second axle holder, - wherein the fin upper portion can be moved relative to the fin base between a folded and an unfolded position, and - wherein the fin upper portion and the fin base are reciprocally lockable by means of a tongue- and-groove system (13, 14) when the fin upper portion is in the unfolded position, - wherein a second axle holder element is assigned to each first axle holder element, the first axle holder element having a groove and the associated second axle holder element having a corresponding tongue, wherein the groove and the tongue have a tapering region with conically converging flanks and an end region with flanks aligned at least sectionwise in parallel,
A rechargeable battery comprising: an electrode assembly comprising a first electrode tab protruding at a first end of the electrode assembly from a first electrode plate, and a second electrode tab protruding at a second end of the electrode assembly from a second electrode plate; a case having an open side and receiving the electrode assembly; a cap assembly comprising a cap plate covering the open side of the case, a first current collecting member coupled to a lower side of the cap plate and electrically connected to the first electrode tab, and a second current collecting member coupled to the lower side of the cap plate; and a safety member arranged on an outer surface of the electrode assembly, wherein the first electrode tab protrudes at the first end toward the cap plate, the second electrode tab protrudes at the second end away from the cap plate, and the second electrode tab is electrically connected to the second current collecting member through the safety member wherein the safety member comprises two unit safety portions arranged to be symmetrical to each other with respect to the electrode assembly. an electrode assembly comprising a first electrode tab protruding at a first end of the electrode assembly from a first electrode plate, and a second electrode tab protruding at a second end of the electrode assembly from a second electrode plate; a case having an open side and receiving the electrode assembly; a cap assembly comprising a cap plate covering the open side of the case, a first current collecting member coupled to a lower side of the cap plate and electrically connected to the first electrode tab, and a second current collecting member coupled to the lower side of the cap plate; and a safety member arranged on an outer surface of the electrode assembly, wherein the first electrode tab protrudes at the first end toward the cap plate, the second electrode tab protrudes at the second end away from the cap plate, and the second electrode tab is electrically connected to the second current collecting member through the safety member wherein the safety member comprises two unit safety portions arranged to be symmetrical to each other with respect to the electrode assembly.