mhurhangee/ep-ind-claims huggingface dataset:
Method for building up an object by means of a coordinate measuring machine (10, 40, 50) having an instrument carrier, wherein • the coordinate measuring machine (10, 40, 50) has at least one control unit and one drive unit for the controlled movement of the instrument carrier in relation to a base (12, 42) and • the instrument carrier is implemented for carrying at least one measuring sensor and production tool (20, 21, 21a-b), which are each modularly attachable in particular, both alone in each case or in combination and wherein in the scope of the method, based on digital model data which represent the object, • controlled guiding and in particular alignment of the production tool (20, 21, 21a-b) carried in this case by the instrument carrier and • precisely-positioned material application and/or fixation, controlled in dependence on a respective production tool position and in particular alignment, by means of the production tool (20, 21, 21a-b) are performed, in particular wherein building up the object is performed by layer-by-layer material application and/or fixation, and wherein the base (12, 42) comprises an anti-adhesion coating suitable for the material. • the coordinate measuring machine (10, 40, 50) has at least one control unit and one drive unit for the controlled movement of the instrument carrier in relation to a base (12, 42) and • the instrument carrier is implemented for carrying at least one measuring sensor and production tool (20, 21, 21a-b), which are each modularly attachable in particular, both alone in each case or in combination and wherein in the scope of the method, based on digital model data which represent the object, • controlled guiding and in particular alignment of the production tool (20, 21, 21a-b) carried in this case by the instrument carrier and • precisely-positioned material application and/or fixation, controlled in dependence on a respective production tool position and in particular alignment, by means of the production tool (20, 21, 21a-b) are performed, in particular wherein building up the object is performed by layer-by-layer material application and/or fixation, and wherein the base (12, 42) comprises an anti-adhesion coating suitable for the material.
Device for measuring the germ load of a controlled, virtually germ-free room, in particular a clean room, by means of a germ-detecting nutrient solution located in a Petri dish (121, 221), having a Petri dish storage (101, 201) for accommodating at least two Petri dishes (121, 221), a Petri dish actuator (102, 202) for opening and closing a Petri dish (121, 221) and a transport device (103, 203) for transporting a single Petri dish (121, 221) from the Petri dish storage (101, 201, 301) to the Petri dish actuator (102, 202) and/or for transporting a single Petri dish (121, 221) from the Petri dish actuator (102, 202) to the Petri dish storage (101, 201) characterized in that the Petri dish storage (101, 201, 301) comprises a storage base (104, 204, 304) and a lifting tower (105, 205, 305) held vertically adjustable on the storage base (104, 204, 304), wherein at least two Petri dish trays (106, 206, 306) being provided on the lifting tower (105, 205, 305).
An apparatus, comprising: a receiver configured to receive from at least one network element associated with a cell a trace notification for a cell traffic trace of that cell comprising a trace recording session reference of a call being traced in that cell traffic trace, wherein the identity of a user equipment associated with the traced call is unknown to the at least one network element; a determiner configured to determine, upon receiving the trace notification, an identity of a user equipment associated with the call being traced in that cell traffic trace; and a transmitter configured to send at least one of the trace notification and a trace log to a trace collection entity; wherein the trace notification and the trace log comprise a trace reference, the trace recording session reference, and the identity of the user equipment. a receiver configured to receive from at least one network element associated with a cell a trace notification for a cell traffic trace of that cell comprising a trace recording session reference of a call being traced in that cell traffic trace, wherein the identity of a user equipment associated with the traced call is unknown to the at least one network element; a determiner configured to determine, upon receiving the trace notification, an identity of a user equipment associated with the call being traced in that cell traffic trace; and a transmitter configured to send at least one of the trace notification and a trace log to a trace collection entity; wherein the trace notification and the trace log comprise a trace reference, the trace recording session reference, and the identity of the user equipment.
Apparatus, intended to be deployed in a body of water, including: a wave energy converter system responsive to the amplitude of waves in said body of water for producing electrical power at an output power port; a payload comprised of a multiplicity of different electronic and electromechanical loads, switch means (s1-s7) coupled between the output power port of said WEC system and selected ones of the different loads for selectively powering said selected ones of the different loads; and control means for controlling the switch means and the amount of power supplied to, and consumed by, the loads, said control means including a controller, responsive to the amount of electric power being produced, said controller programmed to control the turn-on and turn off of the switch means to reduce the power dissipated by selected loads when the power being produced is below a predetermined level.
Device for attaching a coupling device to a free-floating object, for example free-floating articles or free-floating persons, comprising: - at least one first connection end which can be connected to a load-receiving end of a lifting device; - a coupling device for attaching to a free-floating object; - a load-receiving connection between the first connection end and the coupling device; characterized by - a guiding device separate to the load-receiving connection, which guiding device connects the first connection end to the coupling device and which is configured to guide the coupling device relative to the first connection end. - at least one first connection end which can be connected to a load-receiving end of a lifting device; - a coupling device for attaching to a free-floating object; - a load-receiving connection between the first connection end and the coupling device; characterized by - a guiding device separate to the load-receiving connection, which guiding device connects the first connection end to the coupling device and which is configured to guide the coupling device relative to the first connection end.
A brush assembly comprising: a brush, wherein the brush includes a first lead and a second lead extending from the brush at spaced apart locations; a lead guide for maintaining the leads extending from the brush in a desired position, the lead guide comprising: a bracket comprising a first guide rail, a second guide rail, and a cross member extending between the first guide rail and the second guide rail; the first guide rail including a channel for receiving the first lead of the brush and the second guide rail including a channel for receiving the second lead from the brush, the bracket configured to space the first lead away from the second lead to permit a spring of a brush holder assembly to be positioned therebetween; wherein the lead guide and the brush travel together as the brush diminishes in length during use, characterized in that the channel of the first guide rail opens out in a first direction and the channel of the second guide rail opens out in a second direction, opposite the first direction. a brush, wherein the brush includes a first lead and a second lead extending from the brush at spaced apart locations; a lead guide for maintaining the leads extending from the brush in a desired position, the lead guide comprising: a bracket comprising a first guide rail, a second guide rail, and a cross member extending between the first guide rail and the second guide rail; the first guide rail including a channel for receiving the first lead of the brush and the second guide rail including a channel for receiving the second lead from the brush, the bracket configured to space the first lead away from the second lead to permit a spring of a brush holder assembly to be positioned therebetween; wherein the lead guide and the brush travel together as the brush diminishes in length during use, characterized in that the channel of the first guide rail opens out in a first direction and the channel of the second guide rail opens out in a second direction, opposite the first direction. a bracket comprising a first guide rail, a second guide rail, and a cross member extending between the first guide rail and the second guide rail; the first guide rail including a channel for receiving the first lead of the brush and the second guide rail including a channel for receiving the second lead from the brush, the bracket configured to space the first lead away from the second lead to permit a spring of a brush holder assembly to be positioned therebetween; wherein the lead guide and the brush travel together as the brush diminishes in length during use, characterized in that the channel of the first guide rail opens out in a first direction and the channel of the second guide rail opens out in a second direction, opposite the first direction.
A method for coordinating sound generated by a plurality of speakers with a plurality of projection images, by a system including at least one processor, the method comprising: automatically detecting (404, 406) relative positions of each of the plurality of speakers and the plurality of images, which are projected onto at least one receiving surface; automatically matching the plurality of speakers with the plurality of images; and coordinating an audio channel signal with each of the plurality of speakers based on the detected positions of the plurality of images on the at least one receiving surface and the positions of the matching ones of the plurality of speakers. automatically detecting (404, 406) relative positions of each of the plurality of speakers and the plurality of images, which are projected onto at least one receiving surface; automatically matching the plurality of speakers with the plurality of images; and coordinating an audio channel signal with each of the plurality of speakers based on the detected positions of the plurality of images on the at least one receiving surface and the positions of the matching ones of the plurality of speakers.
An electrically operated clutch actuator system for a four stroke single cylinder internal combustion engine of a two-wheeled vehicle for actuating the operation of engagement and disengagement of a clutch comprising: a clutch cover suitable to be disposed towards the right adjacent to a crankcase of said engine in vehicle width direction of said two-wheeled vehicle, a clutch actuation motor mounted to an external surface of said clutch cover and sealed against ingress of oil, a reduction gear box connected to said actuation motor for reducing the power received from said clutch actuation motor, a power transmission mechanism for converting the rotational driving force of said clutch actuation motor into linear contact displacement force, and a clutch actuation sensor for detecting the actuation of the clutch; characterized in that said actuation motor and said reduction gear box are co-axially mounted and secured on said external surface of the clutch cover in a motor housing in a lateral direction, said power transmission mechanism is mounted inside said clutch cover, and said clutch actuation sensor is just outside the clutch cover. a clutch cover suitable to be disposed towards the right adjacent to a crankcase of said engine in vehicle width direction of said two-wheeled vehicle, a clutch actuation motor mounted to an external surface of said clutch cover and sealed against ingress of oil, a reduction gear box connected to said actuation motor for reducing the power received from said clutch actuation motor, a power transmission mechanism for converting the rotational driving force of said clutch actuation motor into linear contact displacement force, and a clutch actuation sensor for detecting the actuation of the clutch;
A serviceable pump, comprising: a motor disposed at a first end of the serviceable pump; a gear portion disposed at an end of the pump distal to the motor, the gear portion including a plurality of interlocking gears and a conduit disposed within the gear portion to circulate fluid through the gear portion, the gear portion receiving fluid from a fluid suction line connected to a first side of the gear portion and outputting fluid using a discharge aperture connected to a fluid discharge line, the gear portion including a secondary discharge aperture disposed proximate to the discharge aperture, the gear portion further including at least one conduit disposed proximate to the gears receiving fluid to lubricate the gears when fluid is circulated through the gear portion; a pump shaft disposed between the motor and the gear portion, configured to translate forces from the motor to the gear portion; characterised in that it further comprises a cooling loop configured to receive fluid through secondary discharge aperture to be pushed into the cooling loop at a first end of the cooling loop, and to return cooled fluid to the gear portion; a seal assembly connected to the cooling loop and having a seal cavity that allows the cooled fluid to flow through the seal cavity and along the pump shaft before the cooled fluid returns to the gear portion through a drain groove between the pump sealing housing and the pump drive shaft. a motor disposed at a first end of the serviceable pump; a gear portion disposed at an end of the pump distal to the motor, the gear portion including a plurality of interlocking gears and a conduit disposed within the gear portion to circulate fluid through the gear portion, the gear portion receiving fluid from a fluid suction line connected to a first side of the gear portion and outputting fluid using a discharge aperture connected to a fluid discharge line, the gear portion including a secondary discharge aperture disposed proximate to the discharge aperture, the gear portion further including at least one conduit disposed proximate to the gears receiving fluid to lubricate the gears when fluid is circulated through the gear portion; a pump shaft disposed between the motor and the gear portion, configured to translate forces from the motor to the gear portion; characterised in that it further comprises a cooling loop configured to receive fluid through secondary discharge aperture to be pushed into the cooling loop at a first end of the cooling loop, and to return cooled fluid to the gear portion; a seal assembly connected to the cooling loop and having a seal cavity that allows the cooled fluid to flow through the seal cavity and along the pump shaft before the cooled fluid returns to the gear portion through a drain groove between the pump sealing housing and the pump drive shaft.
An imaging system, comprising: a radiation source configured to emit the radiation that traverses the examination region; a radiation source controller configured to transition the radiation source at least to a state in which radiation emission traversing the examination region is interrupted during a first sub-portion of an integration period; a detector array, which includes a plurality of direct conversion detector pixels, that detects radiation traversing an examination region of the imaging system and generates a signal indicative of the detected radiation; a pulse shaper configured to process the signal indicative of detected radiation generated by the detector array for a second sub-portion of the integration period and a set of test pulses having different and known heights that correspond to different and known energy levels which are injected for the first sub-portion of the integration period and to generate output pulses having heights indicative of the energy of the processed detected radiation or set of test pulses; and thresholds adjuster configured to analyze the heights of the output pulses corresponding to the set of test pulses in connection with the heights of set of test pulses and a set of predetermined fixed energy thresholds and generate a threshold adjustment signal indicative of a baseline shift based on a result of the analysis. a radiation source configured to emit the radiation that traverses the examination region; a radiation source controller configured to transition the radiation source at least to a state in which radiation emission traversing the examination region is interrupted during a first sub-portion of an integration period; a detector array, which includes a plurality of direct conversion detector pixels, that detects radiation traversing an examination region of the imaging system and generates a signal indicative of the detected radiation; a pulse shaper configured to process the signal indicative of detected radiation generated by the detector array for a second sub-portion of the integration period and a set of test pulses having different and known heights that correspond to different and known energy levels which are injected for the first sub-portion of the integration period and to generate output pulses having heights indicative of the energy of the processed detected radiation or set of test pulses; and thresholds adjuster configured to analyze the heights of the output pulses corresponding to the set of test pulses in connection with the heights of set of test pulses and a set of predetermined fixed energy thresholds and generate a threshold adjustment signal indicative of a baseline shift based on a result of the analysis.
A steel sheet of a composition comprising, in mass%, C: 0.04% or more and 0.15% or less, Si: 0.3% or less, Mn: 1.0% or more and 2.6% or less, P: 0.1% or less, S: 0.01% or less, Al: 0.01% or more and 0.1% or less, N: 0.015% or less, one or two of Ti and Nb: 0.01% or more and 0.1% or less in a total, optionally at least one selected from Cr: 0.05% or more and 1.0% or less, Mo: 0.05% or more and 1.0% or less, and V: 0.01% or more and 1.0% or less, optionally B: 0.0003% or more and 0.005% or less, optionally at least one selected from Ca: 0.001% or more and 0.005% or less, and Sb: 0.003% or more and 0.03% or less, and the balance being Fe and unavoidable impurities, wherein the steel sheet has a steel microstructure of 50% or more of ferrite, 10% or more and 50% or less of martensite, in terms of an area ratio, and optionally any one of bainite, pearlite and residual austenite, the total area ratio of ferrite and martensite being 85% or more and the area ratio of residual austenite being less than 3.0%, wherein a standard deviation of nano-hardness of the steel microstructure is 1.50 GPa or less, wherein the nano-hardness and the standard deviation of the nano-hardness are determined as described in the description, and wherein the steel sheet has a tensile strength of 590 MPa or more.
A rubber composition, comprising a conjugated diene-based polymer and a compound represented by Chemical Formula 1 or Chemical Formula 2 below: in Chemical Formula 1, R 1 is a C8-C24 aliphatic hydrocarbon group, R 2 is hydrogen or a C1-C3 aliphatic hydrocarbon group, and n is an integer of 1 to 10; and in Chemical Formula 2, R 1 is a C8-C24 aliphatic hydrocarbon group, R 2 is hydrogen or a C1-C3 aliphatic hydrocarbon group, and n is an integer of 1 to 10, wherein the conjugated diene-based polymer is a compound represented by Chemical Formula 3 below: in Chemical Formula 3, R 1, R 2, and R 5 are each independently a C1-C10 alkylene group, R 3, R 4, R 6, and R 7 are each independently a C1-C10 alkyl group, R 8 is hydrogen or a C1-C10 alkyl group, P is a conjugated diene-based polymer chain, a and c are each independently 0, 1, or 2, b and d are each independently 1, 2, or 3, a+b and c+d are each independently 1, 2, or 3 and A is wherein R 9, R 10, R 11, and R 12 are each independently hydrogen or a C1-C10 alkyl group.
A pump comprising: an impeller (102, 402) configured to provide kinetic energy to flow fluid through the pump, the impeller having a plurality of geometric dimensions; a diffuser (116, 412) fluidly connected to the impeller, the diffuser configured to convert the kinetic energy provided by the impeller into static pressure energy to flow the fluid through the pump; an adaptive material attached to the impeller, the adaptive material configured to modify, during operation of the pump, a geometric dimension of the plurality of geometric dimensions to modify fluid flow through the pump; and either a) an electric charge source connected to the impeller, the electric charge source configured to provide an electric charge to modify the geometric dimension, wherein the adaptive material comprises a piezoelectric material or electroactive polymer configured to modify the geometric dimension in response thereto, or b) a magnetic field source connected to the impeller, the magnetic field source configured to provide a magnetic field to modify the geometric dimension, wherein the adaptive material comprises a magnetostrictive material or magnetorheological fluid configured to modify the geometric dimension in response thereto. an impeller (102, 402) configured to provide kinetic energy to flow fluid through the pump, the impeller having a plurality of geometric dimensions; a diffuser (116, 412) fluidly connected to the impeller, the diffuser configured to convert the kinetic energy provided by the impeller into static pressure energy to flow the fluid through the pump; an adaptive material attached to the impeller, the adaptive material configured to modify, during operation of the pump, a geometric dimension of the plurality of geometric dimensions to modify fluid flow through the pump; and either a) an electric charge source connected to the impeller, the electric charge source configured to provide an electric charge to modify the geometric dimension, wherein the adaptive material comprises a piezoelectric material or electroactive polymer configured to modify the geometric dimension in response thereto, or b) a magnetic field source connected to the impeller, the magnetic field source configured to provide a magnetic field to modify the geometric dimension, wherein the adaptive material comprises a magnetostrictive material or magnetorheological fluid configured to modify the geometric dimension in response thereto. a) an electric charge source connected to the impeller, the electric charge source configured to provide an electric charge to modify the geometric dimension, wherein the adaptive material comprises a piezoelectric material or electroactive polymer configured to modify the geometric dimension in response thereto, or b) a magnetic field source connected to the impeller, the magnetic field source configured to provide a magnetic field to modify the geometric dimension, wherein the adaptive material comprises a magnetostrictive material or magnetorheological fluid configured to modify the geometric dimension in response thereto.