mhurhangee/patent-ind-claim-en huggingface dataset:
A reinforcing joint element for establishing a joint between a first and a second concrete section (A, B), having an accommodating box , a plurality of reinforcing elements and a joint plate , - wherein the accommodating box has two side walls , each extending in a longitudinal direction (L) of the accommodating box , a base facing the first concrete section (A) in the installed state, and a cover , wherein the side walls , the base and the cover restrict an interior space (I) of the accommodating box , - wherein the reinforcing elements each have a first reinforcing element section (3.1) passing through the base of the accommodating box , and each have a second reinforcing element section (3.2) arranged in the interior space (I) of the accommodating box , wherein the first reinforcing element section (3.1) in the installed state is arranged in the first concrete section (A), and the second reinforcing element section (3.2) in the installed state is arranged in the second concrete section (B), characterised - in that the reinforcing joint element has a single accommodating box , - in that the joint plate passes through the base of the accommodating box , and the joint plate is firmly connected on both sides to the base of the accommodating box , - in that the joint plate has a first joint plate section (4.1), which in the installed state is arranged in the first concrete section (A), and a second joint plate section (4.2), which in the installed state is arranged in the second concrete section (B), wherein the second joint plate section (4.2) is completely arranged in the interior space (I) of the accommodating box . - wherein the accommodating box has two side walls , each extending in a longitudinal direction (L) of the accommodating box , a base facing the first concrete section (A) in the installed state, and a cover , wherein the side walls , the base and the cover restrict an interior space (I) of the accommodating box , - wherein the reinforcing elements each have a first reinforcing element section (3.1) passing through the base of the accommodating box , and each have a second reinforcing element section (3.2) arranged in the interior space (I) of the accommodating box , wherein the first reinforcing element section (3.1) in the installed state is arranged in the first concrete section (A), and the second reinforcing element section (3.2) in the installed state is arranged in the second concrete section (B), characterised - in that the reinforcing joint element has a single accommodating box , - in that the joint plate passes through the base of the accommodating box , and the joint plate is firmly connected on both sides to the base of the accommodating box , - in that the joint plate has a first joint plate section (4.1), which in the installed state is arranged in the first concrete section (A), and a second joint plate section (4.2), which in the installed state is arranged in the second concrete section (B), wherein the second joint plate section (4.2) is completely arranged in the interior space (I) of the accommodating box .
A female coupling element of a two-part plug-in coupling, which has the following features: a. a planar head section from which, perpendicularly in an installation direction (I) of the female coupling element , b. a female hollow-cylinder-like connection structure extends having a radially inwardly projecting locking web on a radial inner side , so that a male bolt element, in particular a ball bolt, is insertable into the female hollow-cylinder-like connection structure against the installation direction (I) and is lockable there, wherein c. the female coupling element has an integral locking structure with a circumferential or a plurality of uniformly arranged outwardly projecting springy latching webs on an outer radial side of the female hollow cylinder-like connection structure , which form an installation gap with the head section for receiving the component (II), so that the female coupling element is latchable in the opening (O) of the component (II) with a relative movement between the female coupling part and component (II) in installation direction, while d. the circumferential or the plurality of latching webs include an inner hollow space so that the latching webs are deformable radially inwardly, characterized in that e. a plurality of radial webs (48, 48', 48") is provided on a bottom side of the head section which extend parallel to a longitudinal axis of the coupling element. a. a planar head section from which, perpendicularly in an installation direction (I) of the female coupling element , b. a female hollow-cylinder-like connection structure extends having a radially inwardly projecting locking web on a radial inner side , so that a male bolt element, in particular a ball bolt, is insertable into the female hollow-cylinder-like connection structure against the installation direction (I) and is lockable there, wherein c. the female coupling element has an integral locking structure with a circumferential or a plurality of uniformly arranged outwardly projecting springy latching webs on an outer radial side of the female hollow cylinder-like connection structure , which form an installation gap with the head section for receiving the component (II), so that the female coupling element is latchable in the opening (O) of the component (II) with a relative movement between the female coupling part and component (II) in installation direction, while d. the circumferential or the plurality of latching webs include an inner hollow space so that the latching webs are deformable radially inwardly, characterized in that e. a plurality of radial webs (48, 48', 48") is provided on a bottom side of the head section which extend parallel to a longitudinal axis of the coupling element.
A method of determining a fault condition in a synchronous motor comprising a rotor provided with damper bars and an end ring to which the damper bars are mechanically connected thereby forming a damper cage, characterised in that the method comprises: obtaining (S1) a first measurement of an end ring current from a first location along the end ring, processing (S2) the first measurement to thereby obtain a processing result, and determining (S3) whether a fault condition is present in the synchronous motor based on the processing result. obtaining (S1) a first measurement of an end ring current from a first location along the end ring, processing (S2) the first measurement to thereby obtain a processing result, and determining (S3) whether a fault condition is present in the synchronous motor based on the processing result.
Apparatus for identification of physical parameters of rod-like articles of the tobacco industry provided with a multi-path conveyor of rod-like articles , fed with rod-like articles from a supplying device; a radiation source arranged for emitting radiation (R) towards the paths (P) of the multi-path conveyor ; a radiation sensor arranged so that it receives the radiation (R) from the radiation source , after the radiation (R) penetrated through the multi-path conveyor of rod-like articles ; wherein the radiation source and the radiation sensor are situated on opposite sides of a transferring plane (A); characterised in that multi-path conveyor of the rod-like articles is a single layer multi-path conveyor, and radiation source is a single point type radiation source, the radiation sensor is positioned transversely to the paths (P) of the conveyor , whereas the radiation sensor is arranged so that it produces a signal (S) representing attenuation of the radiation (R) penetrating through the rod-like articles on the paths (P) of the multi-path conveyor , situated between the radiation source and the radiation sensor . a multi-path conveyor of rod-like articles , fed with rod-like articles from a supplying device; a radiation source arranged for emitting radiation (R) towards the paths (P) of the multi-path conveyor ; a radiation sensor arranged so that it receives the radiation (R) from the radiation source , after the radiation (R) penetrated through the multi-path conveyor of rod-like articles ; wherein the radiation source and the radiation sensor are situated on opposite sides of a transferring plane (A); multi-path conveyor of the rod-like articles is a single layer multi-path conveyor, and radiation source is a single point type radiation source, the radiation sensor is positioned transversely to the paths (P) of the conveyor , whereas the radiation sensor is arranged so that it produces a signal (S) representing attenuation of the radiation (R) penetrating through the rod-like articles on the paths (P) of the multi-path conveyor , situated between the radiation source and the radiation sensor .
An external fixation strut comprising: a strut body operatively associated with a first connector; a threaded rod including threads formed thereon, the threaded rod being operatively associated with a second connector, the threaded rod being rotationally fixed relative to the strut body so that movement of the threaded rod relative to the strut body moves the first connector relative to the second connector; and an acute adjustment mechanism selectively disengageable from the threads of the threaded rod , the acute adjustment mechanism comprising: an actuator body , a plurality of mobile jaws that are engageable with the threads of the threaded rod, and a disengagement member configured to interact with the mobile jaws to disengage the mobile jaws from the threads of the threaded rod ; characterized in that the disengagement member is configured to be pressed radially inward from a first position to a second position such that when in the second position, surfaces of the disengagement member interact with faces of the mobile jaws to disengage the mobile jaw from the threads of the threaded rod to enable the first and second connectors to be adjusted acutely. a strut body operatively associated with a first connector; a threaded rod including threads formed thereon, the threaded rod being operatively associated with a second connector, the threaded rod being rotationally fixed relative to the strut body so that movement of the threaded rod relative to the strut body moves the first connector relative to the second connector; and an acute adjustment mechanism selectively disengageable from the threads of the threaded rod , the acute adjustment mechanism comprising: an actuator body , a plurality of mobile jaws that are engageable with the threads of the threaded rod, and a disengagement member configured to interact with the mobile jaws to disengage the mobile jaws from the threads of the threaded rod ; an actuator body , a plurality of mobile jaws that are engageable with the threads of the threaded rod, and a disengagement member configured to interact with the mobile jaws to disengage the mobile jaws from the threads of the threaded rod ; characterized in that the disengagement member is configured to be pressed radially inward from a first position to a second position such that when in the second position, surfaces of the disengagement member interact with faces of the mobile jaws to disengage the mobile jaw from the threads of the threaded rod to enable the first and second connectors to be adjusted acutely.
A population of cells enriched for tissue non-specific alkaline phosphatase (TNAP + ) multipotential cells for use in treating or preventing a rheumatic disease in a subject by systemic administration of a therapeutically effective amount of the population of cells.
A counter-flow heat exchanger comprising: a heat exchanger core including an inner wall and an outer wall radially outward and spaced apart from the inner wall , wherein a first flow path is defined within the inner wall and a second flow path is defined between the inner wall and the outer wall , wherein the heat exchanger core includes a primary flow inlet , a primary flow outlet and a middle portion therebetween, wherein the inner and outer walls are concentric at the primary flow inlet of the heat exchanger core , wherein the inner wall defines a first set of channels extending axially from the primary flow inlet to the middle portion of the heat exchanger core gradually diverging away from a radial center of the heat exchanger core as the inner wall extends away from the primary flow inlet , and wherein the inner wall and the outer wall define a second set of channels extending axially from the primary flow inlet to the middle portion of the heat exchanger core converging toward the radial center of the heat exchanger core wherein the heat exchanger core is a circular cylinder, wherein at the primary flow inlet of the heat exchanger core, in a cross-section taken perpendicular to a primary flow direction, the inner and outer walls define an annulus therebetween including the second flow path, and wherein a diameter of the heat exchanger core at the primary flow inlet is smaller than a diameter of the heat exchanger core in the middle portion.
A wearing part arrangement for a leading edge of a working member of an earth-working implement, the wearing part arrangement comprising a wearing part , a wearing-part attachment and a protection element , the protection element comprising a leading side surface including a wearing portion , an attachment portion configured to attach to the wearing part , wherein the protection element is configured to be arranged, by the engagement of the attachment portion with at least quick-coupling elements of the wearing part , to be held in position between the wearing part and the wearing-part attachment of the working member and rest supportedly against a leading end face of the wearing-part attachment , projecting above a plane coinciding with a top surface of the wearing-part attachment , the attachment portion having a sectional profile complementary to a cross section of the quick-coupling element of the wearing part , and the protection element is formed as a plate , in which the attachment portion is provided with notches and/or projecting portions complementary to a cross-sectional shape of the quick-coupling elements of the wearing part , characterized in that the wearing portion is arranged in an upper portion of the plate ; the attachment portion is arranged in a lower portion of the plate ; and the wearing portion is taken from a group consisting of a plate element fixed to the leading surface of the plate by soldering or gluing, a coating applied to the leading surface of the plate in vapour form and an upper plate portion with a hardness-increasing substance added to a molecular structure thereto. a leading side surface including a wearing portion , an attachment portion configured to attach to the wearing part , wherein the protection element is configured to be arranged, by the engagement of the attachment portion with at least quick-coupling elements of the wearing part , to be held in position between the wearing part and the wearing-part attachment of the working member and rest supportedly against a leading end face of the wearing-part attachment , projecting above a plane coinciding with a top surface of the wearing-part attachment , the attachment portion having a sectional profile complementary to a cross section of the quick-coupling element of the wearing part , and the protection element is formed as a plate , in which the attachment portion is provided with notches and/or projecting portions complementary to a cross-sectional shape of the quick-coupling elements of the wearing part , characterized in that the wearing portion is arranged in an upper portion of the plate ; the attachment portion is arranged in a lower portion of the plate ; and the wearing portion is taken from a group consisting of a plate element fixed to the leading surface of the plate by soldering or gluing, a coating applied to the leading surface of the plate in vapour form and an upper plate portion with a hardness-increasing substance added to a molecular structure thereto.
An ultrasound circuit , comprising: a differential micromachined ultrasonic transducer, MUT, element comprising a first MUT that is configured to be biased with a first bias voltage and a second MUT that is configured to be concurrently biased with a second bias voltage that has an opposite polarity of the first bias voltage; and an integrated circuit coupled to the differential MUT element and configured to operate the differential MUT element, wherein the integrated circuit comprises a transmit circuit that is configured to operate the differential MUT element to transmit acoustic signals, wherein the transmit circuit comprises a pulser that is configured to generate a first pulse signal to drive the first MUT and a second pulse signal that has an opposite polarity of the first pulse signal that is configured to drive the second MUT. a differential micromachined ultrasonic transducer, MUT, element comprising a first MUT that is configured to be biased with a first bias voltage and a second MUT that is configured to be concurrently biased with a second bias voltage that has an opposite polarity of the first bias voltage; and an integrated circuit coupled to the differential MUT element and configured to operate the differential MUT element, wherein the integrated circuit comprises a transmit circuit that is configured to operate the differential MUT element to transmit acoustic signals, wherein the transmit circuit comprises a pulser that is configured to generate a first pulse signal to drive the first MUT and a second pulse signal that has an opposite polarity of the first pulse signal that is configured to drive the second MUT.
A lighting network control server , comprising: a communication interface to receive non-light related data packets from a lighting network and to communicate with a third party automation server , wherein the data packets comprise at least one of: heartbeat data, movement data, building information, or video data that are generated by a sensor ; a non-transitory computer readable medium to store sub-routines , instructions to execute a protocol adapter and the data packets generated by the sensor , wherein each one of the sub-routines comprises a different add-on instruction that is downloaded onto the third party automation server based on a type of data generated by the sensor to analyze the data packets generated by the sensor to modify software of a third party controller for a particular application and produce an output for a particular application; and a processor communicatively coupled to the communication interface and the non-transitory computer readable medium to execute the protocol adapter to translate the data packets from a device control protocol, DCP, over Ethernet protocol used by the lighting network to transmit the data into a protocol format that is compatible with the third party automation server by generating a new set of translated data that is in the protocol format that can be understood or read by the third party automation server and transmit the new set of data that is translated to the third party automation server via the communication interface to be analyzed by a sub-routine of the stored sub-routines that is downloaded by the third party automation server . a communication interface to receive non-light related data packets from a lighting network and to communicate with a third party automation server , wherein the data packets comprise at least one of: heartbeat data, movement data, building information, or video data that are generated by a sensor ; a non-transitory computer readable medium to store sub-routines , instructions to execute a protocol adapter and the data packets generated by the sensor , wherein each one of the sub-routines comprises a different add-on instruction that is downloaded onto the third party automation server based on a type of data generated by the sensor to analyze the data packets generated by the sensor to modify software of a third party controller for a particular application and produce an output for a particular application; and a processor communicatively coupled to the communication interface and the non-transitory computer readable medium to execute the protocol adapter to translate the data packets from a device control protocol, DCP, over Ethernet protocol used by the lighting network to transmit the data into a protocol format that is compatible with the third party automation server by generating a new set of translated data that is in the protocol format that can be understood or read by the third party automation server and transmit the new set of data that is translated to the third party automation server via the communication interface to be analyzed by a sub-routine of the stored sub-routines that is downloaded by the third party automation server .
An electrode drying method, comprising the following steps: measuring an internal temperature of an accommodation space (S) before introducing an electrode (E) to be dried into the accommodation space (S) of an electrode drying apparatus ; when the measured internal temperature of the accommodation space (S) is higher than a reference value, which is a level at which drying of the electrode (E) to be dried is stabilized, spraying, by a moisture supply unit , moisture into the accommodation space (S) to cool the accommodation space (S); determining, by a controller , whether or not the internal temperature of the accommodation space (S) has reached the reference value by evaporation heat of the moisture supplied into the accommodation space (S); and when the internal temperature of the accommodation space (S) has reached the reference value, stopping the supplying of the moisture into the accommodation space (S) and performing a drying process by allowing the electrode (E) to be dried to move through the accommodation space (S). measuring an internal temperature of an accommodation space (S) before introducing an electrode (E) to be dried into the accommodation space (S) of an electrode drying apparatus ; when the measured internal temperature of the accommodation space (S) is higher than a reference value, which is a level at which drying of the electrode (E) to be dried is stabilized, spraying, by a moisture supply unit , moisture into the accommodation space (S) to cool the accommodation space (S); determining, by a controller , whether or not the internal temperature of the accommodation space (S) has reached the reference value by evaporation heat of the moisture supplied into the accommodation space (S); and when the internal temperature of the accommodation space (S) has reached the reference value, stopping the supplying of the moisture into the accommodation space (S) and performing a drying process by allowing the electrode (E) to be dried to move through the accommodation space (S).