mhurhangee/patent-ind-claim-en huggingface dataset:
A method for starting an electric machine having a magnetically mounted rotor , in particular for rotating the spinning cup of an open-end spinning machine, wherein the magnetic bearing has permanent magnets , an actuator system for controlling the position in the axial direction and two axial limiting bearings , by means of which the axial end positions of the rotor are determined, the actuator system for controlling the position in the axial direction being actuated in such a way that it effects a lifting off from the first axial end position, a variable system parameter is compared with a reference value during the lift off from the first end position, the rotor is moved to the second end position, the actuator system for controlling the position in the axial direction is actuated in such a way as to cause a lifting off from the second axial end position, the variable system parameter is compared with a reference value when lifting off from the second end position, and an error signal is generated if the variable system parameter deviates in a predetermined manner from the reference values when lifting off from the first and/or second end position.
A valve cartridge for a paint spray gun, the valve cartridge comprising: a housing having a first end, a second end, a housing body extending between the first end and the second end, a cartridge outlet extending through the first end, a chamber within the housing , and at least one side port extending through the housing and in fluid communication with the chamber ; a valve disposed within the housing and configured to control the flow of paint from the chamber through the cartridge outlet ; a spring configured to bias a valve member of the valve towards a closed state; a slider disposed at least partially outside of the housing ; and a stem extending along an axis between the valve member and the slider ; wherein the valve member and the slider are fixed with respect to the stem such that the slider can actuate the valve member from the closed state to an open state via the stem ; the housing , the valve , the spring , the slider , and the stem form a discrete assembly configured to control spraying of paint; and a threaded portion is formed on the exterior of the housing between the first end of the housing and the at least one side port . a housing having a first end, a second end, a housing body extending between the first end and the second end, a cartridge outlet extending through the first end, a chamber within the housing , and at least one side port extending through the housing and in fluid communication with the chamber ; a valve disposed within the housing and configured to control the flow of paint from the chamber through the cartridge outlet ; a spring configured to bias a valve member of the valve towards a closed state; a slider disposed at least partially outside of the housing ; and a stem extending along an axis between the valve member and the slider ; wherein the valve member and the slider are fixed with respect to the stem such that the slider can actuate the valve member from the closed state to an open state via the stem ; the housing , the valve , the spring , the slider , and the stem form a discrete assembly configured to control spraying of paint; and a threaded portion is formed on the exterior of the housing between the first end of the housing and the at least one side port .
A Wireless Transmit Receive Unit, WTRU, for transmitting payload data to a wireless network comprising: a transmitter; a receiver; and a processor configured to generate payload data for uplink transmission to the network, the WTRU characterized in ; the processor further configured to select between transmitting the payload data to the network on a synchronous physical uplink channel or an asynchronous physical uplink channel and to transmit the payload data on the selected physical channel, wherein the synchronous physical uplink channel is a channel on which a timing alignment procedure is performed prior to transmitting the payload data and the asynchronous physical uplink channel is a channel on which a timing alignment procedure is not performed prior to transmitting the payload data. a transmitter; a receiver; and a processor configured to generate payload data for uplink transmission to the network, the WTRU characterized in ; the processor further configured to select between transmitting the payload data to the network on a synchronous physical uplink channel or an asynchronous physical uplink channel and to transmit the payload data on the selected physical channel, wherein the synchronous physical uplink channel is a channel on which a timing alignment procedure is performed prior to transmitting the payload data and the asynchronous physical uplink channel is a channel on which a timing alignment procedure is not performed prior to transmitting the payload data.
A composition of matter comprising: a powder comprising a plurality of beads, wherein each bead comprises: a primary matrix material comprising a zinc alkanethiolate polymer; and a population of quantum dot nanoparticles incorporated into the primary matrix material. a primary matrix material comprising a zinc alkanethiolate polymer; and a population of quantum dot nanoparticles incorporated into the primary matrix material.
A tire comprising a tread portion formed from a tread rubber composition, wherein the tread portion has a plurality of types of blocks or block pieces , and a sum of a length in a tire circumferential direction and a length in a tire axial direction of at least one type of the plurality of types of blocks and the block pieces is not less than 80 mm, and wherein the tread rubber composition contains a rubber component including an isoprene-based rubber, a butadiene rubber, and a styrene-butadiene rubber, and a carbon black having an average particle diameter not greater than 20 nm and/or a cetyltrimethylammonium bromide adsorption specific surface area not less than 130 m 2 /g, wherein an amount of the isoprene-based rubber in 100% by mass of the rubber component is not less than 56% by mass, and the rubber composition satisfies hardness (Hs) ≥ 72 and elongation at break (EB) ≥ 420%, wherein the hardness is measured at 25°C with a type A durometer according to "Rubber, vulcanized or thermoplastic - Determination of hardness - Part 3: Durometer method" in JIS K6253-3 , and wherein the elongation at break is measured by carrying out a tensile test at 23°C based on JIS K6251 using a No. 7 dumbbell type test piece as a test piece. the tread portion has a plurality of types of blocks or block pieces , and a sum of a length in a tire circumferential direction and a length in a tire axial direction of at least one type of the plurality of types of blocks and the block pieces is not less than 80 mm, and wherein the tread rubber composition contains a rubber component including an isoprene-based rubber, a butadiene rubber, and a styrene-butadiene rubber, and a carbon black having an average particle diameter not greater than 20 nm and/or a cetyltrimethylammonium bromide adsorption specific surface area not less than 130 m 2 /g, wherein an amount of the isoprene-based rubber in 100% by mass of the rubber component is not less than 56% by mass, and the rubber composition satisfies hardness (Hs) ≥ 72 and elongation at break (EB) ≥ 420%, wherein the hardness is measured at 25°C with a type A durometer according to "Rubber, vulcanized or thermoplastic - Determination of hardness - Part 3: Durometer method" in JIS K6253-3 , and wherein the elongation at break is measured by carrying out a tensile test at 23°C based on JIS K6251 using a No. 7 dumbbell type test piece as a test piece.
A magnetron sputtering cathode assembly consisting of a body, which has the form of a rectangular cuboid and comprises a base , of an extended flat target containing a material to be sputtered and fixed to the base of the body, as well as of a magnetic system and of a cooler in the form of coaxial toroids located between the base of the body and the flat target in the centre of the body, wherein the central region of the flat target is perforated with holes or slits along its extended side, and wherein the magnetron sputtering cathode assembly also comprises an additional gas distribution system installed at the centre of the body, characterized in that the magnetic system is mounted to the base on ferromagnetic supports , and in that the magnetron sputtering cathode assembly further comprises a Z-shaped heat-conducting shield installed between the inner surface of the target and the magnetic system , the Z-shaped heat-conducting shield being connected to the cooler made in the form of a of rectangular tube, and a casing having cooled walls, wherein the base is provided with a coaxial rotary feedthrough having a vacuum-sealed unit for cooling, power supply and gas supply lines.
Profile arrangement produced from a first profile (3, 3.1) and a second profile (2, 2.1) made of metal and connected to the first profile (3, 3.1) on the longitudinal sides by cold joining, said two profiles (2, 3; 2.1, 3.1) bearing complementary interlocking structures on their mutually facing longitudinal sides for the cold joining of the two profiles (2, 3; 2.1, 3.1) by means of a joining force taking effect in a vertical profile direction (z-direction), wherein the first profile (3, 3.1) has an interlocking structure in the form of an clamping head (8, 8.1) formed on a web and, by having a greater extension in the transverse direction (y-direction) of the profile in comparison with that of the web , forms a respective undercut on both sides of the web , and the complementary interlocking structure of the second profile (2, 2.1) has an clamping-head receptacle for receiving a portion of the clamping head (8, 8.1) of the first profile (3, 3.1) and also has an integrally formed engaging limb (11, 11.1) having a first profile arm (21, 21.1) which is in a projecting state prior to the cold-joining operation, and having a second profile arm (22, 22.1) which is formed at an angle on the first profile arm and the free end of which is intended for engaging behind the clamping head (8, 8.1), wherein, in the cold-joined interconnected-profile arrangement (1, 1.1), the free end of the engaging limb (11, 11.1) has been pressed into an interlocking pocket , engaging behind the clamping head (8, 8.1) of the other profile (3, 3.1), characterized in that the profiles (2, 3; 2.1, 3.1) connected to one another by cold-joining, in the vertical profile direction (z-direction) are brought into engagement with one another in a form-fitting manner (positive fit) by locking members which are additional to the interlocking structures, wherein the first profile (3, 3.1) carrying the clamping head (8, 8.1), comprises, on its side facing towards the second profile (2, 2.1) and on the side contacting this profile, a first locking member , and the second profile (2, 2.1) comprises, at the corresponding location, a complementary second locking member which engages with the first locking member , by means of which locking members , when brought into engagement, the two profiles (2, 3; 2.1, 3.1) are brought into form-fitting (positive) engagement with one another in the vertical profile direction (z-direction).
A traveling route determination apparatus for determining a traveling route of a work machine in a work region (WR), characterized by comprising: obtaining means (S1062) for obtaining geographical information of the work region (WR); evaluating means (S 1062, S1063) for evaluating a height difference of the work region based on the geographical information; and determining means (S1064) for determining a traveling route of the work machine from a current position to a destination in the work region (WR) based on the height differences, wherein the geographical information contains coordinate information given to each of a plurality of regions obtained by virtually dividing the work region (WR), the evaluating means (S1062,S1063) evaluates a moving cost (C BA ) when the work machine moves between two adjacent regions of the plurality of regions, based on an inclination angle between the two adjacent regions obtained from the coordinate information, the determining means (S1064) determines a traveling route from the current position to the destination , by calculating a sum of the moving costs (C BA ) for each route passing some of the plurality of regions from the current position to the destination , and by selecting one route whose sum of the moving costs (C BA ) is minimized, based on the calculation result, and a region having an undulation, among the plurality of regions, is virtually divided into a smaller-sized one than the others. obtaining means (S1062) for obtaining geographical information of the work region (WR); evaluating means (S 1062, S1063) for evaluating a height difference of the work region based on the geographical information; and determining means (S1064) for determining a traveling route of the work machine from a current position to a destination in the work region (WR) based on the height differences, wherein the geographical information contains coordinate information given to each of a plurality of regions obtained by virtually dividing the work region (WR), the evaluating means (S1062,S1063) evaluates a moving cost (C BA ) when the work machine moves between two adjacent regions of the plurality of regions, based on an inclination angle between the two adjacent regions obtained from the coordinate information, the determining means (S1064) determines a traveling route from the current position to the destination , by calculating a sum of the moving costs (C BA ) for each route passing some of the plurality of regions from the current position to the destination , and by selecting one route whose sum of the moving costs (C BA ) is minimized, based on the calculation result, and a region having an undulation, among the plurality of regions, is virtually divided into a smaller-sized one than the others.
A tool kit for vehicles for dismounting, mounting and/or separating components associated with transmission assemblies or suspension assemblies, comprising: a tool yoke including: an elongated body extending along a first axis , a central through hole having a hole axis perpendicular to said first axis , wherein said central through hole is threaded, and two slits , one slit arranged on each side of said central through hole , each slit being enclosed within the elongated body and having a main extension along said first axis , wherein each of said slits is arranged to receive at least one threaded jaw fastener extending therethrough; and a pair of jaw units attachable to said tool yoke by means of said threaded jaw fasteners extending through the slits, said jaw units being securable to the the tool yoke at different positions along the first axis; characterised in that a pair of threaded securing holes arranged on a flank surface of each side of the tool yoke, said threaded securing holes having a central axis parallel to said first axis ; and wherein each of said threaded securing holes is arranged to receive a correspondingly threaded securing fastener having a bottom surface configured to abut against said jaw fastener within said slit , in order to block said jaw units from moving away from each other during operation of the tool kit. an elongated body extending along a first axis , a central through hole having a hole axis perpendicular to said first axis , wherein said central through hole is threaded, and two slits , one slit arranged on each side of said central through hole , each slit being enclosed within the elongated body and having a main extension along said first axis , wherein each of said slits is arranged to receive at least one threaded jaw fastener extending therethrough; and a pair of jaw units attachable to said tool yoke by means of said threaded jaw fasteners extending through the slits, said jaw units being securable to the the tool yoke at different positions along the first axis; characterised in that a pair of threaded securing holes arranged on a flank surface of each side of the tool yoke, said threaded securing holes having a central axis parallel to said first axis ; and wherein each of said threaded securing holes is arranged to receive a correspondingly threaded securing fastener having a bottom surface configured to abut against said jaw fastener within said slit , in order to block said jaw units from moving away from each other during operation of the tool kit.
A catheter , comprising: an elongated body ; at least one electrode disposed on an intermediate portion of the elongate body ; and at least one contact force sensor assembly operably connected to the at least one electrode, wherein the contact force sensor assembly comprises: an elongated strain gauge attached to an interior wall of the at least one electrode, the elongated strain gauge comprising: a circuit , at least one wire configured to electrically link the circuit to a system controller, a first attachment portion configured to connect the strain gauge to the at least one wire, and a second attachment portion configured to secure the strain gauge to the interior wall of the at least one electrode, and a detent operably attached to the strain gauge and disposed within a correspondingly shaped opening in a wall of the at least one electrode . an elongated body ; at least one electrode disposed on an intermediate portion of the elongate body ; and at least one contact force sensor assembly operably connected to the at least one electrode, wherein the contact force sensor assembly comprises: an elongated strain gauge attached to an interior wall of the at least one electrode, the elongated strain gauge comprising: a circuit , at least one wire configured to electrically link the circuit to a system controller, a first attachment portion configured to connect the strain gauge to the at least one wire, and a second attachment portion configured to secure the strain gauge to the interior wall of the at least one electrode, and a detent operably attached to the strain gauge and disposed within a correspondingly shaped opening in a wall of the at least one electrode . an elongated strain gauge attached to an interior wall of the at least one electrode, the elongated strain gauge comprising: a circuit , at least one wire configured to electrically link the circuit to a system controller, a first attachment portion configured to connect the strain gauge to the at least one wire, and a second attachment portion configured to secure the strain gauge to the interior wall of the at least one electrode, and a circuit , at least one wire configured to electrically link the circuit to a system controller, a first attachment portion configured to connect the strain gauge to the at least one wire, and a second attachment portion configured to secure the strain gauge to the interior wall of the at least one electrode, and a detent operably attached to the strain gauge and disposed within a correspondingly shaped opening in a wall of the at least one electrode .
A composition comprising amniotic membrane and a hydrogel scaffold comprising a biopolymer and a synthetic polymer for use in a method of inducing wound healing and tissue regeneration in a subject, wherein the composition is to be administered to a treatment site in the subject, wherein the biopolymer is selected from the group consisting of hyaluronan and gelatin; wherein the synthetic polymer is selected from the group consisting of (meth)acrylate-oligolactide-PEO-oligolactide-(meth)acrylate, poly(ethylene glycol) (PEO), poly(propylene glycol) (PPO), PEO-PPO-PEO copolymers, poly(phosphazene), poly(methacrylates), poly(N-vinylpyrrolidone), PL(G)A-PEO-PL(G)A copolymers, poly(ethylene imine), and poly(ethyl glycol) diacrylate; wherein the amniotic membrane is prepared by: a) cutting amniotic membrane from a mammal into pieces, b) washing the cut pieces with sterile saline, c) washing the cut pieces with sterile water, d) freezing the cut pieces, e) lyophilizing the pieces so frozen to form lyophilized amniotic membrane pieces, f) grinding the lyophilized amniotic membrane pieces to form an amniotic membrane powder, and optionally forming solubilized amniotic membrane (SAM) by co-incubating the amniotic membrane powder with pepsin in a solution, centrifuging the digest and removing the supernatant as SAM, wherein the amniotic membrane is incorporated into the scaffold. wherein the biopolymer is selected from the group consisting of hyaluronan and gelatin; wherein the synthetic polymer is selected from the group consisting of (meth)acrylate-oligolactide-PEO-oligolactide-(meth)acrylate, poly(ethylene glycol) (PEO), poly(propylene glycol) (PPO), PEO-PPO-PEO copolymers, poly(phosphazene), poly(methacrylates), poly(N-vinylpyrrolidone), PL(G)A-PEO-PL(G)A copolymers, poly(ethylene imine), and poly(ethyl glycol) diacrylate; wherein the amniotic membrane is prepared by: a) cutting amniotic membrane from a mammal into pieces, b) washing the cut pieces with sterile saline, c) washing the cut pieces with sterile water, d) freezing the cut pieces, e) lyophilizing the pieces so frozen to form lyophilized amniotic membrane pieces, f) grinding the lyophilized amniotic membrane pieces to form an amniotic membrane powder, and optionally forming solubilized amniotic membrane (SAM) by co-incubating the amniotic membrane powder with pepsin in a solution, centrifuging the digest and removing the supernatant as SAM, a) cutting amniotic membrane from a mammal into pieces, b) washing the cut pieces with sterile saline, c) washing the cut pieces with sterile water, d) freezing the cut pieces, e) lyophilizing the pieces so frozen to form lyophilized amniotic membrane pieces, f) grinding the lyophilized amniotic membrane pieces to form an amniotic membrane powder, and optionally forming solubilized amniotic membrane (SAM) by co-incubating the amniotic membrane powder with pepsin in a solution, centrifuging the digest and removing the supernatant as SAM,