mhurhangee/ep-ind-claims huggingface dataset:
An actuatable prosthesis device, having at least one drive, an electronic data processing device, and at least one sensor assembly for arrangement on a body part of a prosthesis wearer, wherein the at least one sensor assembly is designed to detect body signal patterns (X, Y, Z), and the electronic data processing device is designed to actuate the at least one drive depending on a detected body signal pattern (X, Y, Z) in such a way that the prosthesis device carries out a prosthesis movement assigned to the body signal pattern (X, Y, Z), wherein at least two sets (S1, S2) of body signal patterns (X, Y, Z) and prosthesis movements assigned to each body signal pattern are stored on the electronic data processing device, and at least one trigger signal which switches over between the sets (S1, S2) is assigned to the sets (S1, S2), characterized in that in a plurality of sets (S1, S2), preferably in every set (S1, S2), one or more body signal patterns (X, Y, Z) are each assigned the same prosthesis movements. at least one drive, an electronic data processing device, and at least one sensor assembly for arrangement on a body part of a prosthesis wearer, wherein the at least one sensor assembly is designed to detect body signal patterns (X, Y, Z), and the electronic data processing device is designed to actuate the at least one drive depending on a detected body signal pattern (X, Y, Z) in such a way that the prosthesis device carries out a prosthesis movement assigned to the body signal pattern (X, Y, Z), wherein at least two sets (S1, S2) of body signal patterns (X, Y, Z) and prosthesis movements assigned to each body signal pattern are stored on the electronic data processing device, and at least one trigger signal which switches over between the sets (S1, S2) is assigned to the sets (S1, S2), characterized in that in a plurality of sets (S1, S2), preferably in every set (S1, S2), one or more body signal patterns (X, Y, Z) are each assigned the same prosthesis movements.
A coupling apparatus for transferring energy to or from a flywheel, said coupling apparatus comprising first and second movable members (22, 24), each having one or more magnets (30, 34) arranged thereon, wherein the first movable member is arranged to be coupled to a flywheel, characterised in that the magnetic strength of a first magnet arranged on the first movable member exceeds the magnetic strength of a second magnet arranged on the second movable member.
A method comprising: a. attaching a forend onto a fixed forend carrier of a long gun by a tongue-and-groove arrangement (322a, 322b, 364a, 366a) in the carrier and forend; i. wherein the tongue-and-groove arrangement (322a, 322b, 364a, 366a) comprises two front protrusions on opposite sides of the carrier, near its front and two L-shaped pockets (322a, 322b) inside the forend at the leading edge of the forend; b. removably securing the forend, in place, to the carrier by a releasable lock comprising a spring-loaded latch, extending from the carrier, and a pocket in the forend, wherein the pocket stores an end of the latch when the forend and carrier are nested together; i. wherein the step of attaching the forend comprises: engaging the front protrusions in the forend's L-shaped pockets (322a, 322b); and sliding the forend rearwards and rotating upwards; and c. wherein steps (a.), (b.) and (b.i.) are performed without the use of tools by a user in the field. a. attaching a forend onto a fixed forend carrier of a long gun by a tongue-and-groove arrangement (322a, 322b, 364a, 366a) in the carrier and forend; i. wherein the tongue-and-groove arrangement (322a, 322b, 364a, 366a) comprises two front protrusions on opposite sides of the carrier, near its front and two L-shaped pockets (322a, 322b) inside the forend at the leading edge of the forend; i. wherein the tongue-and-groove arrangement (322a, 322b, 364a, 366a) comprises two front protrusions on opposite sides of the carrier, near its front and two L-shaped pockets (322a, 322b) inside the forend at the leading edge of the forend; b. removably securing the forend, in place, to the carrier by a releasable lock comprising a spring-loaded latch, extending from the carrier, and a pocket in the forend, wherein the pocket stores an end of the latch when the forend and carrier are nested together; i. wherein the step of attaching the forend comprises: engaging the front protrusions in the forend's L-shaped pockets (322a, 322b); and sliding the forend rearwards and rotating upwards; and i. wherein the step of attaching the forend comprises: engaging the front protrusions in the forend's L-shaped pockets (322a, 322b); and sliding the forend rearwards and rotating upwards; and c. wherein steps (a.), (b.) and (b.i.) are performed without the use of tools by a user in the field.
A robotic vehicle for a movable operation in a work area, the movable operation comprising a soil cultivation, the vehicle comprising a controller, the controller comprising a memory and a processor, the memory comprising instructions, wherein execution of the instructions by the processor causes the controller to control the vehicle to perform the movable operation with the soil cultivation at least in a sloped subarea of the work area following a scheduled movement trajectory covering the subarea, wherein the scheduled movement trajectory within the sloped subarea has a zigzag form comprising a plurality of sub-trajectories with mutually opposite directions of movement for climbing the slope of the subarea, wherein for each two sub-trajectories running directly adjacent to one another the direction of the movement of the vehicle is respectively opposite with one direction of movement comprising a forward movement of the vehicle and the other direction of the movement comprising a backward movement of the vehicle, wherein controlling the vehicle to follow the zigzag form of the scheduled movement trajectory comprises for each sub-trajectory controlling the vehicle to perform within a first end section of the respective sub-trajectory a first combined climbing operation, the first combined climbing operation combining a first varying climbing operation and a first constant climbing operation, the first varying climbing operation following a first curved subsection of the respective sub-trajectory, the first constant climbing operation following a first constant subsection of the respective sub-trajectory, a second endpoint of the first curved subsection coinciding with a first endpoint of the first constant subsection, wherein such a varying climbing operation comprises changing an orientation of the vehicle following a curved subsection (13, 17, 22, 24) of the respective sub-trajectory, wherein starting at a first end point of the respective curved subsection (13, 17, 22, 24) following the curved subsection (13, 17, 22, 24) to a second endpoint of the subsection a climbing angle continuously increases until a maximum climbing angle (α max, β max) is reached at the second end point, wherein the climbing angle is an angle between a tangent touching the curved subsection and a reference tangent touching the curved subsection at the first end point, wherein such a constant climbing operation comprises maintain a constant orientation of the vehicle following a constant subsection of the respective sub-trajectory, wherein for each two sub-trajectories running directly adjacent to one another the first end sections are located on opposite ends of the respective sub-trajectories.
Permanently excited synchronous machine which comprises a stator with a large number of electromagnetic poles and a rotor with a plurality of permanent magnetic poles, wherein at least one of the permanent magnetic poles of the rotor is formed from separate permanent magnetic segments which during their production have been provided with a particularly high field strength and which are arranged on the at least one permanent magnetic pole in the circumferential direction next to one another such that on rotation of the rotor in the electromagnetic poles of the stator a sinusoidal excitation results, characterised in that the permanent magnetic poles arranged next to one another of the at least one permanent magnetic pole are designed for generating the sinusoidal excitation with different magnitude.
A folding device, comprising two opposite connecting plates (7, 8) with edges hinged with each other, wherein opposite surfaces of the two connecting plates are both provided with at least one set of protruding teeth to form two toothed rows meshing with each other when the folding device is folded; meshing surfaces of the two toothed rows are oppositely provided with first toothed grooves and second toothed grooves meshing with each other when the folding device is folded; a hinge shaft configured to hinge the edges of the two connecting plates is parallel to the two toothed rows; characterized in that a pull rod penetrating through the protruding teeth of the two toothed rows of the two connecting plates when the folding device is folded is arranged in a direction perpendicular to the protruding teeth of the two toothed rows; an end portion of the pull rod is provided with a locking mechanism; when the two connecting plates are folded together, the first and second toothed grooves on the two toothed rows tightly engage with each other by locking the locking mechanism to tightly fix and connect the two connecting plates; a compression spring compressed between the two toothed rows is sleeved outside the hinge shaft of the two connecting plates. opposite surfaces of the two connecting plates are both provided with at least one set of protruding teeth to form two toothed rows meshing with each other when the folding device is folded; meshing surfaces of the two toothed rows are oppositely provided with first toothed grooves and second toothed grooves meshing with each other when the folding device is folded; a hinge shaft configured to hinge the edges of the two connecting plates is parallel to the two toothed rows; characterized in that a pull rod penetrating through the protruding teeth of the two toothed rows of the two connecting plates when the folding device is folded is arranged in a direction perpendicular to the protruding teeth of the two toothed rows; an end portion of the pull rod is provided with a locking mechanism; when the two connecting plates are folded together, the first and second toothed grooves on the two toothed rows tightly engage with each other by locking the locking mechanism to tightly fix and connect the two connecting plates; a compression spring compressed between the two toothed rows is sleeved outside the hinge shaft of the two connecting plates.
High volume nematode breeding and life cycle synchronization system comprising at least one breeding reactor, the at least one breeding reactor having at least one inlet arranged to receive fluids, and at least one outlet for removing nematodes, incorporated in the system, such as in the reactor, at least one micro filter with filter openings having a mesh size, a first space between the MF and at least one outlet of the reactor system arranged to receive nematodes, at least one first fluid recirculation connection for collecting fluid from the breeding reactor and replenishing fluid to the reactor, the recirculation connection preferably comprising a nematode harvest micro filter with a mesh size smaller than the mesh size of the MF, wherein the nematode harvest filter is preferably removably attached to the recirculation connection, wherein the recirculation connection comprises at least one valve (QC1,QC2) arranged for opening and closing a connection, such as the recirculation connection, preferably a nutrient feedstock container in fluid connection with the breeding reactor, at least one oxygen supply in fluid connection with the breeding reactor, and a controller for regulation and controlling operation, such as fluid flow, temperature of the reactor, pH level, impellor speed, valve opening and closing, and on/off switching.
A pneumatic tyre comprising: a ply having a plurality of cords each having an average cord diameter D; and a sidewall rubber having a loss tangent tanδ, as measured in accordance with the provisions of JIS-K-6394 and under the conditions specified in the description, wherein the plurality of cords each comprises a plurality of filaments twisted together, the plurality of filaments each having an outer diameter d, characterized in that the plurality of cords each has a ratio D/d of the average cord diameter D to the outer diameter d being equal to or more than 28, and the ratio D/d and the loss tangent tanδ of the sidewall rubber satisfy the following formula; tanδ / D / d * 1000 ≤ 5.5 a ply having a plurality of cords each having an average cord diameter D; and a sidewall rubber having a loss tangent tanδ, as measured in accordance with the provisions of JIS-K-6394 and under the conditions specified in the description, wherein the plurality of cords each comprises a plurality of filaments twisted together, the plurality of filaments each having an outer diameter d, characterized in that the plurality of cords each has a ratio D/d of the average cord diameter D to the outer diameter d being equal to or more than 28, and the ratio D/d and the loss tangent tanδ of the sidewall rubber satisfy the following formula; tanδ / D / d * 1000 ≤ 5.5
A microfluidic device, comprising: a subject fluid channel; one or more continuous fluid channels; an interconnected region where the subject fluid channel and the one or more continuous fluid channels meet, wherein the subject fluid channel, the one or more continuous fluid channels, and the interconnected region are constructed and arranged so as to have the ability to form a droplet of subject fluid provided by the subject fluid channel within continuous fluid provided by the one or more continuous fluid channels without the need to change a cross-sectional dimension of the subject fluid channel, the one or more continuous fluid channels, or the interconnected region; a main channel adjacent and downstream of the interconnected region; characterised by one or more valves constructed and arranged to change a cross-sectional dimension of the subject fluid channel, the one or more continuous fluid channels, the interconnected region, and/or the main channel, whereby droplets of subject fluid of varying size can be produced based on the position of the one or more valves.
A photosensitive optoelectronic device comprising: a first subcell comprising a first photoactive region comprising at least one acceptor material, wherein the at least one acceptor material has a Lowest Unoccupied Molecular Orbital energy level (LUMO Acc) and a Highest Occupied Molecular Orbital energy level (HOMO Acc); a second subcell comprising a second photoactive region; and an exciton-blocking electron filter disposed between the first subcell and the second subcell, wherein the exciton-blocking electron filter comprises a mixed layer of: at least one cathode side wide energy gap material; and at least one electron conducting material; wherein the at least one cathode-side wide energy gap material has: - a Lowest Unoccupied Molecular Orbital energy level (LUMO CS-WG) smaller than or equal to the LUMO Acc; - a Highest Occupied Molecular Orbital energy level (HOMO CS-WG) larger than, equal to, or within 0.3 eV smaller than the HOMO Acc; and - a HOMO CS-WG -LUMO CS-WG energy gap wider than a HOMO Acc -LUMO Acc energy gap; and wherein the at least one electron conducting material has a Lowest Unoccupied Molecular Orbital energy level (LUMO EC) larger than, equal to, or within 0.3 eV smaller than the LUMO Acc; wherein a first HOMO or LUMO energy level is "smaller than" a second HOMO or LUMO energy level if the first HOMO or LUMO energy level is closer to the vacuum level than the second HOMO or LUMO energy level and a first HOMO or LUMO energy level is "larger than" a second HOMO or LUMO energy level if the first HOMO or LUMO energy level is further from the vacuum level than the second HOMO or LUMO energy level; and wherein the exciton-blocking electron filter comprises the cathode-side wide energy gap material and the electron conducting material at a ratio ranging from 10:1 to 1:10 by volume. a first subcell comprising a first photoactive region comprising at least one acceptor material, wherein the at least one acceptor material has a Lowest Unoccupied Molecular Orbital energy level (LUMO Acc) and a Highest Occupied Molecular Orbital energy level (HOMO Acc); a second subcell comprising a second photoactive region; and an exciton-blocking electron filter disposed between the first subcell and the second subcell, wherein the exciton-blocking electron filter comprises a mixed layer of: at least one cathode side wide energy gap material; and at least one electron conducting material; at least one cathode side wide energy gap material; and at least one electron conducting material; - a Lowest Unoccupied Molecular Orbital energy level (LUMO CS-WG) smaller than or equal to the LUMO Acc; - a Highest Occupied Molecular Orbital energy level (HOMO CS-WG) larger than, equal to, or within 0.3 eV smaller than the HOMO Acc; and - a HOMO CS-WG -LUMO CS-WG energy gap wider than a HOMO Acc -LUMO Acc energy gap; and
An optical anti-counterfeiting component comprising:- a substrate; a sub-wavelength surface micro-structure and an optical reflection facet, both of which are formed on the upper surface of said substrate; wherein at least part of the upper surface of the substrate is covered by the sub-wavelength surface micro-structure and the optical reflection facet; and a multi-layer structured coating formed on the sub-wavelength surface micro-structure and the optical reflection facet, wherein the multi-layer structured coating covering the sub-wavelength surface micro-structure and the multi-layer structured coating covering the optical reflection facet are the same multi-layer structured coating which is formed in the same process. a substrate; a sub-wavelength surface micro-structure and an optical reflection facet, both of which are formed on the upper surface of said substrate; wherein at least part of the upper surface of the substrate is covered by the sub-wavelength surface micro-structure and the optical reflection facet; and a multi-layer structured coating formed on the sub-wavelength surface micro-structure and the optical reflection facet, wherein the multi-layer structured coating covering the sub-wavelength surface micro-structure and the multi-layer structured coating covering the optical reflection facet are the same multi-layer structured coating which is formed in the same process.
A beverage comprising: between 5% and 90% by weight juice; added water; at least one non-nutritive sweetener; and at least one flavor; and a co-product from juice extraction, wherein the co-product comprises a number average particle size of between 0.1 and 2000 microns, a total polyphenol content of at least 2500 parts per million, a moisture content of between 70% and 85% by weight, and a combined peel and seed content between 0.01% and 80% by weight; wherein the beverage comprises between 2% and 30% by weight of the co-product; and wherein the beverage comprises a brix of between 5 brix and 9 brix. between 5% and 90% by weight juice; added water; at least one non-nutritive sweetener; and at least one flavor; and a co-product from juice extraction, wherein the co-product comprises a number average particle size of between 0.1 and 2000 microns, a total polyphenol content of at least 2500 parts per million, a moisture content of between 70% and 85% by weight, and a combined peel and seed content between 0.01% and 80% by weight; wherein the beverage comprises between 2% and 30% by weight of the co-product; and wherein the beverage comprises a brix of between 5 brix and 9 brix.
An ink used for an inkjet recording method for discharging the ink from a recording head by an action of thermal energy, wherein the ink contains self-dispersing carbon black, a polyurethane polymer, and an acryl polymer, wherein an acid value of the polyurethane polymer is 40 mg KOH/g or more, wherein a weight average molecular weight of the polyurethane polymer is 30,000 or more and 150,000 or less, and wherein an acid value of the acryl polymer is 100 mg KOH/g or more and 200 mg KOH/g or less. wherein the ink contains self-dispersing carbon black, a polyurethane polymer, and an acryl polymer, wherein an acid value of the polyurethane polymer is 40 mg KOH/g or more, wherein a weight average molecular weight of the polyurethane polymer is 30,000 or more and 150,000 or less, and wherein an acid value of the acryl polymer is 100 mg KOH/g or more and 200 mg KOH/g or less.
A stainless steel weld joint comprised of a weld joint made of ferritic stainless steel and austenitic stainless steel and a weld metal, wherein said ferritic stainless steel comprises, by mass%, C: 0.001 to 0.03%, Si: 0.01 to 3.0%, Mn: 0.01 to 2.0%, P≤0.040%, S≤0.010%, Cr: 11.0 to 19.5%, Ni≤3.0%, N: 0.001 to 0.06%, Al: 0.001 to 5.5%, Ti: 0.001 to 0.25%, and Nb: 0.001 to 0.60%, and optionally one type or two types or more of Cu: 0.001 to 0.6%, Mo: 0.001 to 2.1%, Sn: 0.001 to 0.3%, W: 0.001 to 0.30%, Co: 0.001 to 0.30%, V: 0.01 to 0.2%, Zr: 0.001 to 0.03%, B≤0.002%, Mg≤0.002%, Ca≤0.002%, REM≤0.01%, Sb: 0.001 to 0.30%, Ga: 0.001 to 0.10%, and Ta: 0.001 to 0.10%, has a relationship of Ti, Nb, C, and N satisfying the following formula, and has a balance of Fe and unavoidable impurities; wherein said austenitic stainless steel comprises, by mass%, C: 0.001 to 0.1%, Si: 0.01 to 4.0%, Mn: 0.01 to 4.0%, P≤0. 040%, S≤0.004%, Cr: 15.0 to 26.0%, Ni: 7.0 to 23.0%, N: 0.001 to 0.25%, and Al≤0.05%, and optionally one type or two types or more of Cu: 0.001 to 2.5%, Mo: 0.001 to 2.4%, Sn: 0.001 to 0.03%, W: 0.001 to 0.30%, Co: 0.001 to 1.0%, V: 0.01 to 0.2%, Zr: 0.001 to 0.03%, B≤0.002%, Mg≤0.001%, Ca≤0.002%, REM≤0.01%, Sb: 0.001 to 0.30%, Ga: 0.001 to 0.10%, Ta: 0.001 to 0.10%, Ti: 0.03 to 0.35%, and Nb: 0.03 to 0.30%, and has a balance of Fe and unavoidable impurities; and the weld joint has a chemical composition comprising, by mass%, C: 0.1% or less, Si: 3% or less, Mn: 3% or less, Cr: 17 to 25%, Ni: 7 to 20%, and N: 0.1% or less and having a balance of Fe and unavoidable impurities and the weld joint has a surface hardness of Hv250 or less; Ti / 48 + Nb / 93 ≥ 2 C / 12 + N / 14 wherein the austenitic stainless steel has a steel structure in which 90% or more of the steel structure is occupied by austenite phase, and wherein the ferritic stainless steel has a steel structure in which 90% or more of the structure is occupied by ferrite phase; wherein the weld joint is defined as including, in the measured surface, the region of the weld metal and the region in the heat affected zone HAZ adjacent to the weld metal and accounting for 20% or less in area ratio.