mhurhangee/ep-ind-claims huggingface dataset:
A temple (23a, 23b) for a spectacle frame without nose pads, the temple (23a, 23b) comprising: an elongate body having a first end and a second end, the first end being configured to be connected to a front without nose pads, and the second end being configured to be mounted on a ear of a wearer; and a supporting part connected to the body, and configured to be mounted on a zygomatic region of the wearer, the body having an elongate through hole extending along a longitudinal direction of the body near the second end, the through hole laterally piercing through the body and levitation of the second end above the ear of the wearer being prevented by penetration of relatively short hair of the wearer through the through hole. an elongate body having a first end and a second end, the first end being configured to be connected to a front without nose pads, and the second end being configured to be mounted on a ear of a wearer; and a supporting part connected to the body, and configured to be mounted on a zygomatic region of the wearer, the body having an elongate through hole extending along a longitudinal direction of the body near the second end, the through hole laterally piercing through the body and levitation of the second end above the ear of the wearer being prevented by penetration of relatively short hair of the wearer through the through hole.
A high power tunable capacitor circuit comprising: a capacitor having a first terminal and a second terminal, the first terminal connected to an RF input signal terminal to receive an RF input signal, the capacitor generating a filtered input signal at the second terminal; a body contacted switch connected to the second terminal of the capacitor to receive the filtered input signal and generate a switched filtered signal, the body contacted switch having a body connected terminal connected to a bias supply voltage and receiving a body bias signal (Bb); and a floating body switch connected in series between the body contacted switch and a ground, the floating body switch configured to decouple the body bias signal (Bb) from the ground and configured to selectively couple the switched filtered signal to the ground. a capacitor having a first terminal and a second terminal, the first terminal connected to an RF input signal terminal to receive an RF input signal, the capacitor generating a filtered input signal at the second terminal; a body contacted switch connected to the second terminal of the capacitor to receive the filtered input signal and generate a switched filtered signal, the body contacted switch having a body connected terminal connected to a bias supply voltage and receiving a body bias signal (Bb); and a floating body switch connected in series between the body contacted switch and a ground, the floating body switch configured to decouple the body bias signal (Bb) from the ground and configured to selectively couple the switched filtered signal to the ground.
Marine or underwater vehicle designed to be secured to a recovery cable, said vehicle comprising contactless detection means capable of detecting the recovery cable and of guiding the vehicle towards the cable and means situated on the vehicle for coupling the cable, characterized in that the coupling means comprise at least one hook and at least one gripper (9a, 9b) that is able to rotate between a closed position in contact with the outer surface of the vehicle, an open position separating from the outer surface of the vehicle, and a coupling position in which the gripper (9a, 9b) interacts with the hook in order to allow a space to subsist for the passage of the cable between the gripper (9a, 9b) and the outer surface of the marine vehicle.
Drilling tool, in particular reamer, for drilling a workpiece core bore to a nominal diameter (d N) by means of a main cutting edge, formed on a drilling body, which has a radially outer cutting edge which extends longitudinally along a drilling body longitudinal axis onto a cutting nose disposed at the drilling tip, wherein in the drilling procedure the drilling tool can be driven into the workpiece core bore using rotational movement and advance movement, wherein the drilling tool has at least one groove cutter which is positioned upstream of the cutting nose of the main cutting edge in the tool rotational direction, wherein the groove cutter for generating the groove has at the drilling tip an end cutting edge, extending perpendicularly to the drilling body longitudinal axis, which at a cutting nose transitions into a groove floor cutting edge, extending along the drilling body longitudinal axis, which transitions at a cutting nose facing away from the drilling tip into a groove flank cutting edge extending perpendicularly to the drilling body longitudinal axis, and wherein on the end cutting edge a groove rake face and a main free surface formed on the drilling tip converge, wherein the rotational movement and the advance movement are designed such that in the drilling procedure the groove cutter a groove is generated in the inner wall of the core bore, in which groove the cutting nose of the main cutting edge is guided with at least reduced cutting load, characterised in that on the groove flank cutting edge facing away from the drilling tip and on the groove floor cutting edge the rake face transition into further free surfaces turned radially to the outside, which in the rotational direction adjoin on the cutting edges (31, 23) at a clearance angle, and that the cutting nose of the main cutting edge is spaced by a longitudinal offset (Δx) from the groove cutter.
A method for controlling uplink transmission power, comprising: receiving, by a User Equipment, UE, configuration information, and determining a power control, PC, parameter corresponding to a Transmission Time Interval, TTI, length of a first type and a PC parameter corresponding to a TTI length of a second type in accordance with the configuration information; and characterized by determining, by the UE, transmission power of a channel which is transmitted using the TTI length of the first type in accordance with the PC parameter corresponding to the TTI length of the first type, and transmission power of a channel which is transmitted using the TTI length of the second type in accordance with the PC parameter corresponding to the TTI length of the second type. receiving, by a User Equipment, UE, configuration information, and determining a power control, PC, parameter corresponding to a Transmission Time Interval, TTI, length of a first type and a PC parameter corresponding to a TTI length of a second type in accordance with the configuration information; and characterized by determining, by the UE, transmission power of a channel which is transmitted using the TTI length of the first type in accordance with the PC parameter corresponding to the TTI length of the first type, and transmission power of a channel which is transmitted using the TTI length of the second type in accordance with the PC parameter corresponding to the TTI length of the second type.
An inflatable air mattress comprising: a top panel; a bottom panel; one or more side panels attached to the top panel and the bottom panel to form a substantially airtight enclosure; an internal support structure; and an air valve assembly (100, 200) configured to control ingress and egress of air from the substantially airtight enclosure, the air valve assembly comprising: a base (140, 235) configured to attach to a portion of the inflatable air mattress, a middle valve (115, 220) configured to attach to the base (140, 235) and having a first diameter, the middle valve comprising: (i) a first end having a first threaded portion and (ii) a second end having a second threaded portion, a diaphragm member (130, 225) configured to attach to the middle valve (115, 220), an adapter (120, 210) (i) having a portion with a second diameter that is smaller than the first diameter and (ii) configured to detachably attach to the middle valve portion such that when it is attached, a user may use an inflation device with a smaller dimensioned output, and a cap (105, 205) configured to removably couple to a portion of the air valve. a top panel; a bottom panel; one or more side panels attached to the top panel and the bottom panel to form a substantially airtight enclosure; an internal support structure; and an air valve assembly (100, 200) configured to control ingress and egress of air from the substantially airtight enclosure, the air valve assembly comprising: a base (140, 235) configured to attach to a portion of the inflatable air mattress, a middle valve (115, 220) configured to attach to the base (140, 235) and having a first diameter, the middle valve comprising: (i) a first end having a first threaded portion and (ii) a second end having a second threaded portion, a diaphragm member (130, 225) configured to attach to the middle valve (115, 220), an adapter (120, 210) (i) having a portion with a second diameter that is smaller than the first diameter and (ii) configured to detachably attach to the middle valve portion such that when it is attached, a user may use an inflation device with a smaller dimensioned output, and a cap (105, 205) configured to removably couple to a portion of the air valve. a base (140, 235) configured to attach to a portion of the inflatable air mattress, a middle valve (115, 220) configured to attach to the base (140, 235) and having a first diameter, the middle valve comprising: (i) a first end having a first threaded portion and (ii) a second end having a second threaded portion, a diaphragm member (130, 225) configured to attach to the middle valve (115, 220), an adapter (120, 210) (i) having a portion with a second diameter that is smaller than the first diameter and (ii) configured to detachably attach to the middle valve portion such that when it is attached, a user may use an inflation device with a smaller dimensioned output, and a cap (105, 205) configured to removably couple to a portion of the air valve.
A computer-implemented method for searching for a compound having a strong interaction with a target molecule, the method comprising growing a base fragment molecule and obtaining a grown molecule by performing molecular dynamics calculation using a reactive force field and bonding an atom to the base fragment molecule at a binding site of the target molecule wherein the growing includes the steps of: a primary growth process for growing the base fragment molecule and obtaining a grown primary molecule, by bonding an atom to the base fragment molecule located at the binding site of the target molecule; and a secondary growth process for growing the primary molecule and obtaining a grown secondary molecule, by bonding an atom to the primary molecule located at the binding site of the target molecule, wherein the method further includes extracting a candidate compound that is a candidate for the compound, using a molecule created by the said growing with an appearance frequency obtained by creating a plurality of grown molecules obtained from the said growing steps, wherein the appearance frequency corresponds to a number of times each grown molecule has been obtained; and an atom density distribution formed by superimposing the grown molecules obtained in the plurality of the said growing steps a primary growth process for growing the base fragment molecule and obtaining a grown primary molecule, by bonding an atom to the base fragment molecule located at the binding site of the target molecule; and a secondary growth process for growing the primary molecule and obtaining a grown secondary molecule, by bonding an atom to the primary molecule located at the binding site of the target molecule, wherein the method further includes extracting a candidate compound that is a candidate for the compound, using a molecule created by the said growing with an appearance frequency obtained by creating a plurality of grown molecules obtained from the said growing steps, wherein the appearance frequency corresponds to a number of times each grown molecule has been obtained; and an atom density distribution formed by superimposing the grown molecules obtained in the plurality of the said growing steps
A laminate comprising: (i) a substrate; (ii) a primer layer disposed on the substrate and containing inorganic particles having an average particle size of ≥ 3 μm and a heat-resistant resin, but not containing a fluororesin; (iii) an intermediate layer disposed on the primer layer and containing a fluororesin (b) and a heat-resistant resin (b); and (iv) a top coat layer disposed on the intermediate layer and containing a fluororesin (c) and inorganic particles (c) with an average particle size of ≥ 14 μm, wherein the inorganic particles (c) are particles of at least one selected from inorganic nitrides, carbides, borides, and oxides, and the heat-resistant resin and the heat resistant resin (b) are at least one selected from polyamide-imides (PAIs), polyimides (PIs), polyethersulfones (PESs), polyetherimide, polyether ether ketone, aromatic polyesters and polyarylene sulfides. (i) a substrate; (ii) a primer layer disposed on the substrate and containing inorganic particles having an average particle size of ≥ 3 μm and a heat-resistant resin, but not containing a fluororesin; (iii) an intermediate layer disposed on the primer layer and containing a fluororesin (b) and a heat-resistant resin (b); and (iv) a top coat layer disposed on the intermediate layer and containing a fluororesin (c) and inorganic particles (c) with an average particle size of ≥ 14 μm,
Connection device, comprising at least one connection element for connecting a conductor to a busbar and an insulating material housing surrounding the connection element, wherein the connection element has a conductor terminal and a busbar terminal, which is electrically connected to the conductor terminal, wherein the connection device can be plugged onto at least one busbar, which runs approximately parallel to a direction of extent, by means of a movement in a plugging-on direction, wherein the insulating material housing has a plug-on groove which is suitable for receiving a subsection of the busbar, wherein the busbar terminal has at least one limb which projects into the plug-on groove and is suitable for being placed in contact with the subsection, characterized in that the connection device is designed to be secured to a connection strip and/or to a securing apparatus and/or to a further connection device and/or to a wall of a housing of a distributor device, and wherein the connection device comprises at least one connecting element which is received in a depression formed by juxtaposition of a first cutout, made in a side wall of the insulating material housing, and a second cutout, made in the securing apparatus and/or in an insulating material housing of the further connection device and/or in the connection strip and/or in the wall of the housing of the distributor device, in order to connect the connection device to the securing apparatus and/or to the connection strip and/or to the further connection device and/or to the wall of the housing of the distributor device.
A rotary compressor comprising: a cylinder having opposite end surfaces and a vane groove defined therein; a main bearing and an auxiliary bearing secured to the opposite end surfaces of the cylinder, respectively, to define a cylinder chamber; a shaft having an eccentric portion formed between the main bearing and the auxiliary bearing, the shaft having a main shaft inserted in the main bearing and an auxiliary shaft inserted in the auxiliary bearing; a piston mounted on the eccentric portion of the shaft; and a vane loosely inserted in the vane groove for a reciprocating motion thereof, the vane partitioning the cylinder chamber into a suction chamber and a compression chamber and having a distal end hingedly connected to the piston; characterised in that an outer peripheral surface of the eccentric portion of the shaft on a side adjacent to a center of the shaft is located radially inwardly of an outer peripheral surface of the main shaft and that of the auxiliary shaft; and wherein the piston has a back clearance means defined in an inner peripheral surface thereof and the eccentric portion of the shaft similarly has a back clearance means defined therein, both the back clearance means of the piston and the back clearance means of the eccentric portion being used in mounting the piston on the shaft. a cylinder having opposite end surfaces and a vane groove defined therein; a main bearing and an auxiliary bearing secured to the opposite end surfaces of the cylinder, respectively, to define a cylinder chamber; a shaft having an eccentric portion formed between the main bearing and the auxiliary bearing, the shaft having a main shaft inserted in the main bearing and an auxiliary shaft inserted in the auxiliary bearing; a piston mounted on the eccentric portion of the shaft; and a vane loosely inserted in the vane groove for a reciprocating motion thereof, the vane partitioning the cylinder chamber into a suction chamber and a compression chamber and having a distal end hingedly connected to the piston;
An absorbent article comprising: a) a topsheet; b) a backsheet joined with the topsheet; c) an absorbent core interposed between the topsheet and backsheet; and d) an article element; wherein the article element comprises a slow recovery stretch laminate exhibiting an unload force at 37°C of 0.16 N/(g/m) or greater and a percent of initial strain after 15 seconds of recovery at 22°C of 10% or greater; wherein the slow recovery stretch laminate comprises an elastic member comprising an hydrogenated styrene-olefin-styrene block copolymer elastomer comprising at least one soft block and at least two hard blocks; wherein the elastic member exhibits an order-disorder temperature of greater than 135 °C; and characterized in that said elastic member comprises both of the following: a) a hard phase having a glass transition temperature of greater than 60 °C; and b) one or more hard block associating ingredients that increase the glass transition temperature of the hard block polymer, wherein the one or more hard block associating ingredients comprises poly(2,6-dimethyl-1,4-phenylene oxide) or tetramethyl bisphenol-A polycarbonate (TMBAPC), optionally modified with benzyl end groups (mTMBAPC). a) a topsheet; b) a backsheet joined with the topsheet; c) an absorbent core interposed between the topsheet and backsheet; and d) an article element; a) a hard phase having a glass transition temperature of greater than 60 °C; and b) one or more hard block associating ingredients that increase the glass transition temperature of the hard block polymer, wherein the one or more hard block associating ingredients comprises poly(2,6-dimethyl-1,4-phenylene oxide) or tetramethyl bisphenol-A polycarbonate (TMBAPC), optionally modified with benzyl end groups (mTMBAPC).
A planetary gear reducer comprising: a planetary gear having a revolution center located inside the planetary gear and provided with a plurality of engaging holes passing therethrough in an axial direction; a carrier (4, 8); and a plurality of pins secured to the carrier (4, 8) and passing through the engaging holes for operating the carrier (4, 8) together with rotation movement of the planetary gear through engagements with the engaging holes; wherein: the carrier (4, 8) comprises a first side plate that is formed to a disc plate shape and that fixes the pins thereto to protrude the pins from one end surface in the axial direction; the outside diameter of the first side plate is formed to be a small diameter on one side in the axial direction and a large diameter on the other side in the axial direction; and the first side plate is provided with press-fitting hole portions with the pins press-fitted thereinto; characterized in that the first side plate is further provided with small-diameter side concavities that arse concentrically formed with the press-fitting hole portions on the one side in the axial direction, that open to the one end surface in the axial direction of the first side plate and that have internal surfaces being out of contact with the pins at at least parts thereof. a planetary gear having a revolution center located inside the planetary gear and provided with a plurality of engaging holes passing therethrough in an axial direction; a carrier (4, 8); and a plurality of pins secured to the carrier (4, 8) and passing through the engaging holes for operating the carrier (4, 8) together with rotation movement of the planetary gear through engagements with the engaging holes; wherein: a plurality of pins secured to the carrier (4, 8) and passing through the engaging holes for operating the carrier (4, 8) together with rotation movement of the planetary gear through engagements with the engaging holes; wherein: the carrier (4, 8) comprises a first side plate that is formed to a disc plate shape and that fixes the pins thereto to protrude the pins from one end surface in the axial direction; the outside diameter of the first side plate is formed to be a small diameter on one side in the axial direction and a large diameter on the other side in the axial direction; and the first side plate is provided with press-fitting hole portions with the pins press-fitted thereinto; characterized in that the first side plate is further provided with small-diameter side concavities that arse concentrically formed with the press-fitting hole portions on the one side in the axial direction, that open to the one end surface in the axial direction of the first side plate and that have internal surfaces being out of contact with the pins at at least parts thereof.
Powder for use in a layer-by-layer process for producing mouldings by selectively melting regions of the respective powder layer through introduction of electromagnetic energy, comprising composite particles which are produced from core particles completely or partially coated with a precipitated first polymer, where the core particles comprise a second polymer or have been manufactured from a second polymer which differs from the precipitated first polymer and where the ratio of the dso median diameter of the composite particles to the d 50 median diameter of the core particles, determined in each case by means of laser scattering as disclosed in the description, is 1.5 or greater, characterized in that the precipitated first polymer has been selected from polyolefins, polyethylene, polypropylene, polyvinyl chloride, polyacetal, polystyrene, polyimides, polysulphones, poly(N-methylmethacrylimides) (PMMI), polymethyl methacrylate (PMMA), polyvinylidene fluorides (PVDF), ionomer, polyether ketones, polyaryl ether ketones, polyamide, copolyamide or a mixture thereof, in that the core particles, which comprise a second polymer or are composed thereof, have a d 50 median diameter of 1 μm or greater, and the second polymer has been selected from polycarbonate, polymethyl methacrylate, polypropylene, polybutylene terephthalate, polyethylene terephthalate, polyether ether ketone and polyphthalamide.