mhurhangee/ep-ind-claims huggingface dataset:
Method for balancing a wheel, comprising at least the steps of: - extruding a profile of an uncured and/or non-vulcanized viscoelastic polymer comprising at least one filler resulting in a total density of more than 0.9 kg/dm 3, - cutting a section from an extruded profile of said polymer, wherein the length of the section correlates with the required mass for balancing, - applying the section, forming a balancing weight to the rim of the wheel, and - curing of the balancing weight at the wheel. - extruding a profile of an uncured and/or non-vulcanized viscoelastic polymer comprising at least one filler resulting in a total density of more than 0.9 kg/dm 3, - cutting a section from an extruded profile of said polymer, wherein the length of the section correlates with the required mass for balancing, - applying the section, forming a balancing weight to the rim of the wheel, and - curing of the balancing weight at the wheel.
A user equipment, UE (10, 20), comprising: a memory (12, 22); a transceiver (13, 23); and a processor (11, 21) coupled to the memory (12, 22) and the transceiver (13, 23); wherein the processor (11, 21) is configured to perform re-selection for a pre-selected resource indicated, by sidelink control information, SCI, for re-evaluation and to be re-selected within 31 slots from another pre-selected or re-selected resource, wherein the indication comprises a re-selected resource for the pre-selected resource indicated for re-evaluation, wherein the pre-selected resource is a resource of a selected sidelink grant which has not been identified by a prior SCI, wherein if a first pre-selected resource is to be re-selected from a candidate resource set, the first pre-selected resource to be re-selected is selected from an earlier resource of the candidate resource set; characterized in that the earlier resource is a resource from a first slot or an earliest resource of the candidate resource set. a memory (12, 22); a transceiver (13, 23); and a processor (11, 21) coupled to the memory (12, 22) and the transceiver (13, 23); wherein the processor (11, 21) is configured to perform re-selection for a pre-selected resource indicated, by sidelink control information, SCI, for re-evaluation and to be re-selected within 31 slots from another pre-selected or re-selected resource, wherein the indication comprises a re-selected resource for the pre-selected resource indicated for re-evaluation, wherein the pre-selected resource is a resource of a selected sidelink grant which has not been identified by a prior SCI, wherein if a first pre-selected resource is to be re-selected from a candidate resource set, the first pre-selected resource to be re-selected is selected from an earlier resource of the candidate resource set; characterized in that the earlier resource is a resource from a first slot or an earliest resource of the candidate resource set.
A uniflow scavenging 2-cycle engine comprising: a cylinder inside which a combustion chamber is formed; a piston which slides within the cylinder; scavenge ports which are provided on one end side in a stroke direction of the piston in the cylinder to suck an active gas into the combustion chamber in accordance with the sliding movement of the piston; and a fuel injection unit (126, 426) which includes injection ports (126e, 226e, 326e, 426f, 426g) which inject a fuel gas into the active gas to be suctioned into the scavenge ports and are provided on the outside of the cylinder rather than the inner circumferential surface, characterized in that circulation tubes (126d, 226d, 326d, 426d, 426e), through which the fuel gas flows and which are disposed in the stroke direction on a radially outer side of partition walls provided between the scavenge ports, are disposed in the fuel injection unit (126, 426), the injection ports (126e, 226e, 326e, 426f, 426g) are open toward the circumferential direction of the cylinder from the circulation tubes (126d, 226d, 326d, 426d, 426e), and an amount of the fuel gas injected by the injection ports (126, 226e, 326e, 426f, 426g) on the other end side in the stroke direction is larger than an amount of the fuel gas injected by the injection ports (126, 226e, 326e, 426f, 426g) on one end side in the stroke direction. a cylinder inside which a combustion chamber is formed; a piston which slides within the cylinder; scavenge ports which are provided on one end side in a stroke direction of the piston in the cylinder to suck an active gas into the combustion chamber in accordance with the sliding movement of the piston; and a fuel injection unit (126, 426) which includes injection ports (126e, 226e, 326e, 426f, 426g) which inject a fuel gas into the active gas to be suctioned into the scavenge ports and are provided on the outside of the cylinder rather than the inner circumferential surface, characterized in that circulation tubes (126d, 226d, 326d, 426d, 426e), through which the fuel gas flows and which are disposed in the stroke direction on a radially outer side of partition walls provided between the scavenge ports, are disposed in the fuel injection unit (126, 426), the injection ports (126e, 226e, 326e, 426f, 426g) are open toward the circumferential direction of the cylinder from the circulation tubes (126d, 226d, 326d, 426d, 426e), and an amount of the fuel gas injected by the injection ports (126, 226e, 326e, 426f, 426g) on the other end side in the stroke direction is larger than an amount of the fuel gas injected by the injection ports (126, 226e, 326e, 426f, 426g) on one end side in the stroke direction.
A method, comprising: providing at a first output (L1O) of a level shifter, a first logic state at a first output voltage level that selects a first negative regulation voltage level in response to the first logic state; generating a negative supply voltage (Vneg) that begins at a first supply voltage level and decreases to the first negative regulation voltage level; switching the first output of the level shifter from the first logic state to a second logic state in response to the negative supply voltage reaching the first negative regulation voltage level, wherein the second logic state is provided at a second output voltage level that selects a second negative regulation voltage level; adjusting the negative supply voltage from the first negative regulation voltage level to the second negative regulation voltage level in response to the switching. providing at a first output (L1O) of a level shifter, a first logic state at a first output voltage level that selects a first negative regulation voltage level in response to the first logic state; generating a negative supply voltage (Vneg) that begins at a first supply voltage level and decreases to the first negative regulation voltage level; switching the first output of the level shifter from the first logic state to a second logic state in response to the negative supply voltage reaching the first negative regulation voltage level, wherein the second logic state is provided at a second output voltage level that selects a second negative regulation voltage level; adjusting the negative supply voltage from the first negative regulation voltage level to the second negative regulation voltage level in response to the switching.
An extra-cardiovascular implantable cardiac device comprising: a high voltage therapy module including: a high voltage capacitor; a high voltage charging circuit that includes a transformer configured to charge the high voltage capacitor; switching circuitry configured to couple the high voltage capacitor across a pacing load that includes extra-cardiovascular electrodes; and a variable shunt resistance in parallel with the pacing load; and a control module coupled to the high voltage therapy module and configured to: apply an electrical current to enable the switching circuitry; set the variable shunt resistance to a value that keeps the switching circuitry enabled during delivery one or more pacing pulses to the pacing load; and control the high voltage therapy module to generate and deliver the one or more extra-cardiovascular pacing pulses via the extra-cardiovascular electrodes. a high voltage therapy module including: a high voltage capacitor; a high voltage charging circuit that includes a transformer configured to charge the high voltage capacitor; switching circuitry configured to couple the high voltage capacitor across a pacing load that includes extra-cardiovascular electrodes; and a variable shunt resistance in parallel with the pacing load; and a high voltage capacitor; a high voltage charging circuit that includes a transformer configured to charge the high voltage capacitor; switching circuitry configured to couple the high voltage capacitor across a pacing load that includes extra-cardiovascular electrodes; and a variable shunt resistance in parallel with the pacing load; and a control module coupled to the high voltage therapy module and configured to: apply an electrical current to enable the switching circuitry; set the variable shunt resistance to a value that keeps the switching circuitry enabled during delivery one or more pacing pulses to the pacing load; and control the high voltage therapy module to generate and deliver the one or more extra-cardiovascular pacing pulses via the extra-cardiovascular electrodes. apply an electrical current to enable the switching circuitry; set the variable shunt resistance to a value that keeps the switching circuitry enabled during delivery one or more pacing pulses to the pacing load; and control the high voltage therapy module to generate and deliver the one or more extra-cardiovascular pacing pulses via the extra-cardiovascular electrodes.
A method for producing nanoparticles containing tacrolimus or a salt thereof comprising the steps of: a) providing a solution of tacrolimus or a salt thereof in an organic solvent; b) providing a liquid non-solvent for tacrolimus or a salt thereof; c) precipitating nanoparticles containing tacrolimus or a salt thereof by colliding a stream of the organic solvent from a) with the non-solvent stream from b); and d) isolating the nanoparticles, wherein the nanoparticles have a size of from 10 to 400 nm, and preferably a polydispersity index of ≤ 0.4. a) providing a solution of tacrolimus or a salt thereof in an organic solvent; b) providing a liquid non-solvent for tacrolimus or a salt thereof; c) precipitating nanoparticles containing tacrolimus or a salt thereof by colliding a stream of the organic solvent from a) with the non-solvent stream from b); and d) isolating the nanoparticles, wherein the nanoparticles have a size of from 10 to 400 nm, and preferably a polydispersity index of ≤ 0.4.
Road gully top for a shaft comprising a round or angular closure element and frame, wherein the road gully is of a console form, a channel form or a trough form and the frame is produced in two parts from a cast holder for receiving the closure element and concrete supporting body, characterised in that on one side the concrete supporting body and the cast holder are connected to each other in a bonded and interlocking manner, the cast holder surmounts the concrete support body in the direction of the closure element and the concrete supporting body has an external side surface which tapers towards the bottom.
A delaminatable container, having a main body portion and an opening portion, wherein the opening portion is located closer to an opening of the delaminatable container than the main body portion located thereto, an accommodation space of the delaminatable container is formed by a body inner surface of the main body portion and an opening inner surface of the opening portion, and the delaminatable container comprises: a first layer comprising a first tightly-attached section; and a second layer, wherein at the main body portion, the first layer is located closer to the body inner surface than the second layer located thereto and is exposed on the body inner surface, the second layer comprises a second tightly-attached section, and the first tightly-attached section and the second tightly-attached section are tightly attached to each other; wherein the first tightly-attached section and the second tightly-attached section are both located at the opening portion of the delaminatable container; characterized in that the second tightly-attached section comprises a second opening segment, and the second opening segment is exposed on the opening inner surface and extended along a direction from the opening towards the main body portion, the first tightly-attached section comprises a sandwiched segment, the second tightly-attached section further comprises an inner tightly-attached segment, the sandwiched segment and at least one part of the inner tightly-attached segment are tightly attached to each other, the sandwiched segment is not exposed on the opening inner surface, and the second opening segment is connected to the inner tightly-attached segment. a first layer comprising a first tightly-attached section; and a second layer, wherein at the main body portion, the first layer is located closer to the body inner surface than the second layer located thereto and is exposed on the body inner surface, the second layer comprises a second tightly-attached section, and the first tightly-attached section and the second tightly-attached section are tightly attached to each other; wherein the first tightly-attached section and the second tightly-attached section are both located at the opening portion of the delaminatable container; characterized in that the second tightly-attached section comprises a second opening segment, and the second opening segment is exposed on the opening inner surface and extended along a direction from the opening towards the main body portion, the first tightly-attached section comprises a sandwiched segment, the second tightly-attached section further comprises an inner tightly-attached segment, the sandwiched segment and at least one part of the inner tightly-attached segment are tightly attached to each other, the sandwiched segment is not exposed on the opening inner surface, and the second opening segment is connected to the inner tightly-attached segment.
A method for managing network components in a network, comprising a request subnet with request network components (A1, A2,..., An) and a select subnet with select network components (B1, B2,..., Bm), wherein the requesting network component out of the request network components (A1, A2,..., An) of the request subnet transmits a registration request to a selected network component out of the select network components (B1, B2,..., Bm) of the select subnet and receives, in response to the registration request, from the selected network component information concerning the configuration of the select subnet at the time of registration request, and further receives, in response to the registration request, from the selected network component further information concerning the configuration of the select subnet at a later point in time which is chronologically following the registration request, characterized in that, when the requesting network component in the request subnet has been switched off and is switched back on again, it is searched in permanent records of the request network component if they contain registration requests from the past for registering the requesting network component in another subnet, and if affirmative, it is checked if the requesting network component now is in a different subnet, by comparing the network address of the requesting network component with the network address found in the permanent records, and if the requesting network component is still in the same subnet, it is verified if the registration request from the past is still not outdated by requesting information about past registrations from other network components in the request subnet, and wherein the registration of the selected network component in the select subnet is made again, if the verification of the registration request from the past is positive.
Unit for the reduction of exhaust gases for an IC engine, comprising: - a cylindrical housing having a gas inlet opening, a gas outlet opening and an injector for a reducing substance; - a helicoid coaxially arranged inside the housing; - a channel aimed at conveying the exhaust gases and having a substantially quadrangular cross-section, said channel helicoidally developing inside the unit; wherein the helix generated by the intersection between the inner surface of the housing and the helicoid has an inclination angle (β) relative to the planes perpendicular to the generatrices of the cylindrical housing ranging from 0° to 30°, the unit further comprising a coaxial sleeve for stiffening and stabilization, said sleeve being located at the center of the helicoid and passing axially throughout the helicoid and axially extending over a length at least equal to the axial length of the helicoid, said sleeve cooperating with the inner surface of the housing and with the opposite surfaces of the helicoid in order to define the helicoidal channel for conveying the exhaust gases, characterized in that the sleeve is open at its both ends and defines a by-pass conduit with respect to the helicoidal channel. - a cylindrical housing having a gas inlet opening, a gas outlet opening and an injector for a reducing substance; - a helicoid coaxially arranged inside the housing; - a channel aimed at conveying the exhaust gases and having a substantially quadrangular cross-section, said channel helicoidally developing inside the unit; wherein the helix generated by the intersection between the inner surface of the housing and the helicoid has an inclination angle (β) relative to the planes perpendicular to the generatrices of the cylindrical housing ranging from 0° to 30°, the unit further comprising a coaxial sleeve for stiffening and stabilization, said sleeve being located at the center of the helicoid and passing axially throughout the helicoid and axially extending over a length at least equal to the axial length of the helicoid, said sleeve cooperating with the inner surface of the housing and with the opposite surfaces of the helicoid in order to define the helicoidal channel for conveying the exhaust gases, characterized in that the sleeve is open at its both ends and defines a by-pass conduit with respect to the helicoidal channel.
An underwater laser cutting and decommissioning tool, the tool comprising: a. a laser tool body, configured to withstand underwater conditions and defining a longitudinal axis and comprising (i) a conveyance structure, comprising an optical fiber capable of transmitting high power laser energy; (ii) a conveyance termination section receiving and holding an end of the conveyance structure; and, (iii) an anchoring and positioning section, whereby the laser tool body axis may be positioned in a predetermined location relative to an axis of a tubular to be cut; (iv) a motor section; (v) a laser cutting head section; and (vi) a laser optics section; b. wherein the anchoring and positioning section comprises a packer; c. the laser cutting head section, comprising a laser beam exit; whereby the packer is configured to position the laser cutting head section in a predetermined location relative to an axis of a tubular to be cut; and d. the laser optics defining a laser beam path; wherein the motor section is configured to rotate the laser optics thereby rotating the laser beam path with respect to the tool body axis. a. a laser tool body, configured to withstand underwater conditions and defining a longitudinal axis and comprising (i) a conveyance structure, comprising an optical fiber capable of transmitting high power laser energy; (ii) a conveyance termination section receiving and holding an end of the conveyance structure; and, (iii) an anchoring and positioning section, whereby the laser tool body axis may be positioned in a predetermined location relative to an axis of a tubular to be cut; (iv) a motor section; (v) a laser cutting head section; and (vi) a laser optics section; (i) a conveyance structure, comprising an optical fiber capable of transmitting high power laser energy; (ii) a conveyance termination section receiving and holding an end of the conveyance structure; and, (iii) an anchoring and positioning section, whereby the laser tool body axis may be positioned in a predetermined location relative to an axis of a tubular to be cut; (iv) a motor section; (v) a laser cutting head section; and (vi) a laser optics section; b. wherein the anchoring and positioning section comprises a packer; c. the laser cutting head section, comprising a laser beam exit; whereby the packer is configured to position the laser cutting head section in a predetermined location relative to an axis of a tubular to be cut; and d. the laser optics defining a laser beam path; wherein the motor section is configured to rotate the laser optics thereby rotating the laser beam path with respect to the tool body axis.
Dismounting tool for a filter insert of a liquid filter, comprising a body which extends along a longitudinal axis, wherein the body has at a distal end a first arm and a second arm, wherein the two arms (10, 20) extend substantially parallel to the longitudinal axis and are spaced apart from one another, wherein the two arms (10, 20) can be deflected towards one another in an elastically reversible manner, characterized in that a securing element (30, 32) is arranged on the first arm, wherein, in an open state of the securing element, the two arms (10, 20) can be moved towards one another, wherein, in a closed state of the securing element (30, 32), the securing element (30, 32) couples the two arms (10, 29) to one another and a movement of the two arms (10, 20) towards one another is blocked. a body which extends along a longitudinal axis, wherein the body has at a distal end a first arm and a second arm, wherein the two arms (10, 20) extend substantially parallel to the longitudinal axis and are spaced apart from one another, wherein the two arms (10, 20) can be deflected towards one another in an elastically reversible manner, characterized in that a securing element (30, 32) is arranged on the first arm, wherein, in an open state of the securing element, the two arms (10, 20) can be moved towards one another, wherein, in a closed state of the securing element (30, 32), the securing element (30, 32) couples the two arms (10, 29) to one another and a movement of the two arms (10, 20) towards one another is blocked.