mhurhangee/patent-ind-claim-en huggingface dataset:
A coin handling apparatus comprising: a plurality of storing units (16aa-16ad, 16ba-16bd), each of which comprising an inclining disk that is rotatable about an axis that is inclined by a predetermined angle with respect to a horizontal direction; a withdrawal transport unit that is formed of a transport belt and that is configured to transport coins fed from the plurality of storing units (16aa-16ad, 16ba-16bd); and a controller configured to control the storing units (16aa-16ad, 16ba-16bd) and the withdrawal transport unit during a withdrawal process, wherein the plurality of storing units (16aa-16ad, 16ba-16bd) are disposed to form a plurality of rows along the withdrawal transport unit , and each of the plurality of rows comprises two or more storing units, and the plurality of the storing units are disposed so that surfaces of the inclining disks adjacent to each other in each of the plurality of rows face each other, and the controller is configured to cause the withdrawal transport unit to stop operating and to allow one of the rows of the storing units (16aa-16ad, 16ba-16bd) to feed a predetermined number of coins, and after the predetermined number of coins are fed from the one of the rows of the storing units (16aa-16ad, 16ba-16bd), the controller is configured to cause the withdrawal transport unit to move, to cause the withdrawal transport unit to stop operating again, and to allow another one of the rows of the storing units (16aa-16ad, 16ba-16bd) to feed a predetermined number of coins. a plurality of storing units (16aa-16ad, 16ba-16bd), each of which comprising an inclining disk that is rotatable about an axis that is inclined by a predetermined angle with respect to a horizontal direction; a withdrawal transport unit that is formed of a transport belt and that is configured to transport coins fed from the plurality of storing units (16aa-16ad, 16ba-16bd); and a controller configured to control the storing units (16aa-16ad, 16ba-16bd) and the withdrawal transport unit during a withdrawal process, wherein the plurality of storing units (16aa-16ad, 16ba-16bd) are disposed to form a plurality of rows along the withdrawal transport unit , and each of the plurality of rows comprises two or more storing units, and the plurality of the storing units are disposed so that surfaces of the inclining disks adjacent to each other in each of the plurality of rows face each other, and the controller is configured to cause the withdrawal transport unit to stop operating and to allow one of the rows of the storing units (16aa-16ad, 16ba-16bd) to feed a predetermined number of coins, and after the predetermined number of coins are fed from the one of the rows of the storing units (16aa-16ad, 16ba-16bd), the controller is configured to cause the withdrawal transport unit to move, to cause the withdrawal transport unit to stop operating again, and to allow another one of the rows of the storing units (16aa-16ad, 16ba-16bd) to feed a predetermined number of coins.
A composition comprising pyroglutamic acid and N-(n-butyl)-thiophosphoric triamide (NBPT), wherein the pyroglutamic acid is present in an amount from 11.4% w/w to 37.8% w/w of the composition; and the NBPT is present in an amount from 12.35% w/w to 42% w/w of the composition.
Legrest of an aircraft passenger seat having a device , wherein the device comprises a housing, wherein the housing has two housing halves , wherein the two housing halves are pivotably movably connected to one another, wherein the device is arranged between upholstered locations on the legrest, wherein the housing is designed in such a way that a lifejacket for an aircraft passenger can be stowed therein, wherein a seat cover of the aircraft passenger seat is arranged on a first housing half of the two housing halves , with the result that the device forms part of a useful surface of the legrest , wherein the device is arranged on a basic structure of the legrest , wherein the two housing halves are made from metal and/or a stable plastic, wherein each housing half has a main side element, wherein side elements protruding transversely in relation thereto are present on each of the main side elements, wherein two side elements of one housing half are spaced apart from one another and are formed opposite one another, wherein a spacing between the two spaced-apart and oppositely situated side elements of the first one of the two housing halves is greater than a spacing between the two spaced-apart and oppositely situated side elements of a second one of the two housing halves , such that the side elements of the first and the second housing half overlap in a closed position of the housing, wherein the main side element of the second housing half rests directly on the basic structure or the basic structure forms the main side element of the second housing half .
A method of making a radiopaque hydrogel bead, comprising: preforming hydrogel beads; and reacting functional groups on the preformed hydrogel beads with an aromatic iodine containing compound. preforming hydrogel beads; and reacting functional groups on the preformed hydrogel beads with an aromatic iodine containing compound.
Reinforcing element for reinforcing structural elements in vehicles, said reinforcing element comprising: a support having at least one reservoir , wherein the reservoir has at least one outlet opening ; an adhesive , which is arranged in the reservoir ; and at least one dispensing element having a separating element and a propulsion element , wherein the separating element is arranged in the reservoir and separates the adhesive from the propulsion element , and wherein the separating element is arranged substantially opposite the outlet opening ; wherein, when the propulsion element is actuated, the separating element is moved through the reservoir , with the result that the adhesive is dispensed from the reservoir through the outlet opening . a support having at least one reservoir , wherein the reservoir has at least one outlet opening ; an adhesive , which is arranged in the reservoir ; and at least one dispensing element having a separating element and a propulsion element , wherein the separating element is arranged in the reservoir and separates the adhesive from the propulsion element , and wherein the separating element is arranged substantially opposite the outlet opening ; wherein, when the propulsion element is actuated, the separating element is moved through the reservoir , with the result that the adhesive is dispensed from the reservoir through the outlet opening .
A separating agent comprising a support and a ligand fixed to the surface of the support by physical adsorption, wherein the support is core/shell particles each formed of a core constituted of a nonporous inorganic substance and a porous shell, the shell having a pore diameter of 30 nm or larger, measured by the mercury intrusion method according to JIS R1655, the shell being constituted of a hydrolyzate of a polyalkoxysiloxane, and the ligand is selected from optically active poly(meth)acrylamides, optically active polyamides, or an optically inactive polyester, wherein the term "nonporous" mean s that when the specific surface area (m 2 /g) of the core particles determined by the BET method is expressed by A and the surface area (m 2 /g) thereof per unit weight is expressed by B, wherein the surface area is calculated as 4 × π × r 2 , with r representing the radius of the core particles, then the value of (A-B)/B×100 is less than 20, and the term "porous" means that the specific surface area of the surface of the shell, determined by the BET method, is 10 mm 2 /g or larger, wherein the optically active polyamide is selected from the group consisting of compounds represented by the formula (III) or (IV): wherein R is one or more groups selected from alkylene groups having 2-20 carbon atoms and optionally having a branched structure, groups having one or more aromatic groups having 6-10 carbon atoms, and groups having one or more alicyclic groups having 3-10 carbon atoms, and n is an integer of 50 to 100,000. wherein the support is core/shell particles each formed of a core constituted of a nonporous inorganic substance and a porous shell, the shell having a pore diameter of 30 nm or larger, measured by the mercury intrusion method according to JIS R1655, the shell being constituted of a hydrolyzate of a polyalkoxysiloxane, and the ligand is selected from optically active poly(meth)acrylamides, optically active polyamides, or an optically inactive polyester, wherein the term "nonporous" mean s that when the specific surface area (m 2 /g) of the core particles determined by the BET method is expressed by A and the surface area (m 2 /g) thereof per unit weight is expressed by B, wherein the surface area is calculated as 4 × π × r 2 , with r representing the radius of the core particles, then the value of (A-B)/B×100 is less than 20, and the term "porous" means that the specific surface area of the surface of the shell, determined by the BET method, is 10 mm 2 /g or larger, wherein the optically active polyamide is selected from the group consisting of compounds represented by the formula (III) or (IV): wherein R is one or more groups selected from alkylene groups having 2-20 carbon atoms and optionally having a branched structure, groups having one or more aromatic groups having 6-10 carbon atoms, and groups having one or more alicyclic groups having 3-10 carbon atoms, and n is an integer of 50 to 100,000.
A supply air device comprising: a nozzle channel structure being a duct system comprising at least one duct which comprises a plurality of nozzles , a supply air chamber , and a mixing chamber , wherein the nozzle channel structure is arranged in a distance from the bottom and a side of the supply air device so that a circulation space is formed between the bottom and the nozzle channel structure and between the side and the nozzle channel structure , and wherein the nozzle channel structure comprises one or more supply air openings via which primary air is led to the nozzle channel structure from the supply air chamber , further from the nozzle channel structure to the mixing chamber through the plurality of nozzles as primary air flows and wherein said primary air flows entrains secondary air from outside the supply air device to flow to the mixing chamber and wherein a part of said secondary air flows to the mixing chamber through the space between the bottom and the nozzle channel structure , characterized in that the plurality of nozzles configured to blow said primary air flows entraining said secondary air are provided as perforations without collars, and wherein a cross-section of the at least one duct is circular or oval. a nozzle channel structure being a duct system comprising at least one duct which comprises a plurality of nozzles , a supply air chamber , and a mixing chamber , wherein the nozzle channel structure is arranged in a distance from the bottom and a side of the supply air device so that a circulation space is formed between the bottom and the nozzle channel structure and between the side and the nozzle channel structure , and wherein the nozzle channel structure comprises one or more supply air openings via which primary air is led to the nozzle channel structure from the supply air chamber , further from the nozzle channel structure to the mixing chamber through the plurality of nozzles as primary air flows and wherein said primary air flows entrains secondary air from outside the supply air device to flow to the mixing chamber and wherein a part of said secondary air flows to the mixing chamber through the space between the bottom and the nozzle channel structure , characterized in that the plurality of nozzles configured to blow said primary air flows entraining said secondary air are provided as perforations without collars, and wherein a cross-section of the at least one duct is circular or oval.
A prosthesis for implantation into a living body in the form of a magnetic artificial joint, particularly in an artificial shoulder joint, comprising: a) a first prosthesis member comprising a socket member , b) a second prosthesis member comprising a head member , c) one of the socket member and the head member is at least partially composed as a permanent magnet and the other one of the socket member and the head member is at least partially composed of a magnetic material, or the socket member and the head member are both at least partially composed as a permanent magnet, d) the socket member comprises a recess on a surface side to be coupled with the head member , the recess comprising a concavely contoured contact surface , e) the head member comprises a projection on a surface side to be coupled with the socket member , the projection comprising a convexly contoured contact surface , f) the convexly contoured contact surface is adapted to the concavely contoured contact surface , such that the head member can be coupled in a rotatably jointed manner to the socket member in the nature of a ball/ball-socket joint characterized in that g) the convexly contoured contact surface is globular or ellipsoidal shaped and comprises on its outer surface an additional spherical member which modifies the globular or ellipsoidal shaped contour of the convexly contoured contact surface , and the convexly contoured contact surface comprising the additional spherical member can perform a generally slip-fee rolling motion or a combined slipping and rolling motion on the concavely contoured contact surface in reaction to a change of an angle between the first and the second prosthesis member , and the convexly contoured contact surface comprising the additional spherical member can be shifted across the concavely contoured contact surface within a shifting area . a) a first prosthesis member comprising a socket member , b) a second prosthesis member comprising a head member , c) one of the socket member and the head member is at least partially composed as a permanent magnet and the other one of the socket member and the head member is at least partially composed of a magnetic material, or the socket member and the head member are both at least partially composed as a permanent magnet, d) the socket member comprises a recess on a surface side to be coupled with the head member , the recess comprising a concavely contoured contact surface , e) the head member comprises a projection on a surface side to be coupled with the socket member , the projection comprising a convexly contoured contact surface , f) the convexly contoured contact surface is adapted to the concavely contoured contact surface , such that the head member can be coupled in a rotatably jointed manner to the socket member in the nature of a ball/ball-socket joint characterized in that g) the convexly contoured contact surface is globular or ellipsoidal shaped and comprises on its outer surface an additional spherical member which modifies the globular or ellipsoidal shaped contour of the convexly contoured contact surface ,
A range hood, provided with the housing assembly, wherein the housing assembly comprises a housing member, and characterized by further comprising a telescopic member, wherein the telescopic member is provided with a camera ; the housing member is provided with an accommodation chamber, and the telescopic member is fixed in the accommodation chamber; the telescopic member is set to be capable of switching between an extension location and a contraction location; when the telescopic member is located at the extension location, the camera is placed out of the accommodation chamber; when the telescopic member is located at the contraction location, the camera is hidden in the accommodation chamber; wherein the telescopic member comprises an end head , and the end head is in a shape of a column; a side wall of the end head is provided with an accommodation hole; and the camera is disposed in the accommodation hole; wherein the telescopic member further comprises a rebounder ; wherein the telescopic member further comprises a bouncing rod ; one end of the bouncing rod cooperates with the rebounder , and the other end is connected to an end head ; and one of the other end of the bouncing rod and the end head is provided with an expansion head , and the other one is provided with a narrow-mouthed accommodation groove cooperating with the expansion head .
Granule comprising: - between 0.5% and 30%, preferably between 0.5% and 20%, more preferably between 2% and 5% by weight of bitumen; and - between 70% and 99.5%, preferably between 80% and 99.5%, more preferably between 95% and 98% by weight of a vulcanizing composition comprising a vulcanizing agent; said granules containing no flyash, silicas, silica-based materials or mixtures thereof. - between 0.5% and 30%, preferably between 0.5% and 20%, more preferably between 2% and 5% by weight of bitumen; and - between 70% and 99.5%, preferably between 80% and 99.5%, more preferably between 95% and 98% by weight of a vulcanizing composition comprising a vulcanizing agent;
An electric toothbrush having a grip portion and a brush portion with an axis (X4) of the brush portion being angled or inclined at a predetermined angle (θ) with respect to an axis (X2) of the grip portion , said electric toothbrush comprising: a stem accommodated in the brush portion , said stem having a cavity for installing a vibration generator, a first screw groove formed at a bottom of the stem, and a first engagement member formed adjacent the first screw groove ; a cylindrical body included in the grip portion and having a receiving opening ; and a stem joint arrangement including a stem joint for connecting the brush portion and the grip portion , wherein said stem joint having an upper cylindrical portion and a lower cylindrical portion , with an axis (X4) of the upper cylindrical portion being inclined a predetermined angle (θ) with respect to an axis (X2) of the lower cylindrical portion , and wherein the upper cylindrical portion is formed with a second screw groove , and a second engagement member adjacent the second screw groove , whereby the lower cylindrical portion is connected to the grip portion by inserting it in the receiving opening formed in the cylindrical body , and the first screw groove engages with the second screw groove in a screwing manner, and the first engagement member engages with the second engagement member . a stem accommodated in the brush portion , said stem having a cavity for installing a vibration generator, a first screw groove formed at a bottom of the stem, and a first engagement member formed adjacent the first screw groove ; a cylindrical body included in the grip portion and having a receiving opening ; and a stem joint arrangement including a stem joint for connecting the brush portion and the grip portion , wherein said stem joint having an upper cylindrical portion and a lower cylindrical portion , with an axis (X4) of the upper cylindrical portion being inclined a predetermined angle (θ) with respect to an axis (X2) of the lower cylindrical portion , and wherein the upper cylindrical portion is formed with a second screw groove , and a second engagement member adjacent the second screw groove , whereby the lower cylindrical portion is connected to the grip portion by inserting it in the receiving opening formed in the cylindrical body , and the first screw groove engages with the second screw groove in a screwing manner, and the first engagement member engages with the second engagement member .
A syringe attachment/detachment mechanism for a discharge device to which a syringe including an attachment part and an upper connection part is attached through screwing, wherein the attachment part includes an inner cylindrical portion having a small-diameter opening , an outer cylindrical portion surrounding the inner cylindrical portion , and a screw portion , the attachment/detachment mechanism includes a support member including a cylindrical insertion portion into which the inner cylindrical portion is inserted, and having a channel formed therein for communication between the small-diameter opening and a nozzle of the discharge device, characterised in that a rotation member including a screw portion engaging with the screw portion of the attachment part is provided to be rotatably fitted over the insertion portion , and the syringe is attached with rotation of the rotation member .
A front-end system for a radio device, the front-end system comprising: a low-noise amplifier (LNA), arranged for receiving an input signal (RF IN ) and for outputting an amplified signal (RF OUT ), and a mixer (MIX) arranged for down-converting said amplified signal (RF OUT ) provided by said low-noise amplifier (LNA) to a baseband signal (BB), by multiplying the amplified signal (RF OUT ) with a local oscillator (LO) frequency tone); the low-noise amplifier (LNA) comprising: a first amplification stage; a second amplification stage; a transformer (TR2) configured for inductively coupling said second amplification stage to said first amplification stage; a resistive shunt feedback circuit; and a neutralization circuit comprising a cross-coupled capacitor (C N ); and wherein said mixer (MIX) is inductively coupled to said low-noise amplifier (LNA) via a second transformer (TR3). a low-noise amplifier (LNA), arranged for receiving an input signal (RF IN ) and for outputting an amplified signal (RF OUT ), and a mixer (MIX) arranged for down-converting said amplified signal (RF OUT ) provided by said low-noise amplifier (LNA) to a baseband signal (BB), by multiplying the amplified signal (RF OUT ) with a local oscillator (LO) frequency tone); the low-noise amplifier (LNA) comprising: a first amplification stage; a second amplification stage; a transformer (TR2) configured for inductively coupling said second amplification stage to said first amplification stage; a resistive shunt feedback circuit; and a neutralization circuit comprising a cross-coupled capacitor (C N ); and wherein said mixer (MIX) is inductively coupled to said low-noise amplifier (LNA) via a second transformer (TR3). a first amplification stage; a second amplification stage; a transformer (TR2) configured for inductively coupling said second amplification stage to said first amplification stage; a resistive shunt feedback circuit; and a neutralization circuit comprising a cross-coupled capacitor (C N ); and wherein said mixer (MIX) is inductively coupled to said low-noise amplifier (LNA) via a second transformer (TR3).