mhurhangee/ep-ind-claims huggingface dataset:
Assembly comprising a first cable, a second cable, and a conductor joint connecting a conductor end of the first cable with a conductor end of the second cable, wherein the conductor joint comprises - a tubular longitudinal sleeve of a sleeve length Ls having a sleeve opening (4, 4') at each longitudinal end with an inner diameter allowing insertion of the conductor ends (22, 22') to be connected, and - an elongated element arranged within the sleeve openings (4, 4'), wherein the elongated element comprises a core rod having a core rod length Lr and a terminal rod wall (13, 13') at each longitudinal end, wherein the elongated element further comprises • a core tube concentrically arranged around the core rod having a core tube length Lt shorter than the core rod length Lr and wherein the diameter of the core tube is larger than the diameter of the core rod, and • a core wall (15, 15') arranged between the core rod and the core tube oriented along a radial orientation of the elongated element characterized in that the conductor ends of the first and second cable comprise - a circular center wire (24, 24') comprising a terminal wall (25, 25'), - a plurality of concentrical layers (26a-26e, 26a'-26e') of stranded wires (29, 29') surrounding the circular center wire (24,24') wherein each layer (26a-e, 26a'-26e') of stranded wires (29,29') comprises a terminal wall (27a-e, 27a'-27e'), such that a recess is created by a removal of a longitudinal portion of the circular center wire (24,24') from the conductor ends and by the surrounding layers of stranded wires (29,29'), such that each longitudinal end of the core rod is inserted into said recess. - a tubular longitudinal sleeve of a sleeve length Ls having a sleeve opening (4, 4') at each longitudinal end with an inner diameter allowing insertion of the conductor ends (22, 22') to be connected, and - an elongated element arranged within the sleeve openings (4, 4'), wherein the elongated element comprises a core rod having a core rod length Lr and a terminal rod wall (13, 13') at each longitudinal end, wherein the elongated element further comprises • a core tube concentrically arranged around the core rod having a core tube length Lt shorter than the core rod length Lr and wherein the diameter of the core tube is larger than the diameter of the core rod, and • a core wall (15, 15') arranged between the core rod and the core tube oriented along a radial orientation of the elongated element • a core tube concentrically arranged around the core rod having a core tube length Lt shorter than the core rod length Lr and wherein the diameter of the core tube is larger than the diameter of the core rod, and • a core wall (15, 15') arranged between the core rod and the core tube oriented along a radial orientation of the elongated element - a circular center wire (24, 24') comprising a terminal wall (25, 25'), - a plurality of concentrical layers (26a-26e, 26a'-26e') of stranded wires (29, 29') surrounding the circular center wire (24,24') wherein each layer (26a-e, 26a'-26e') of stranded wires (29,29') comprises a terminal wall (27a-e, 27a'-27e'),
A method for processing a resource description file, wherein the method is applied to a client terminal, and comprises: sending an access request directed to a target page to a node server, and receiving the resource description file of the target page fed back by the node server, wherein the resource description file includes a monitoring script inserted by the node server; when the monitoring script is executed in the client terminal, monitoring a resource link generated by the client terminal in a process of parsing the resource description file, determining whether the resource link contains an external link, and if the resource link contains an external link, rewriting the external link into an internal link, and replacing the corresponding external link in the resource link with the rewritten internal link; and writing the rewritten resource link into the resource description file, and according to the resource description file including the rewritten resource link, obtaining a page resource of the target page; wherein a specified resource path is preset by the node server in the monitoring script, wherein rewriting the external link into the internal link includes: through the specified resource path, integrating the domain name of the target page and the external link, and using an integrated result as the rewritten internal link. sending an access request directed to a target page to a node server, and receiving the resource description file of the target page fed back by the node server, wherein the resource description file includes a monitoring script inserted by the node server; when the monitoring script is executed in the client terminal, monitoring a resource link generated by the client terminal in a process of parsing the resource description file, determining whether the resource link contains an external link, and if the resource link contains an external link, rewriting the external link into an internal link, and replacing the corresponding external link in the resource link with the rewritten internal link; and writing the rewritten resource link into the resource description file, and according to the resource description file including the rewritten resource link, obtaining a page resource of the target page; wherein a specified resource path is preset by the node server in the monitoring script, wherein rewriting the external link into the internal link includes: through the specified resource path, integrating the domain name of the target page and the external link, and using an integrated result as the rewritten internal link.
A method for producing a polypeptide that selectively recognizes a target DNA sequence, the method comprising synthesizing a polypeptide comprising a repeat domain, wherein the repeat domain comprises repeat units derived from a transcription activator-like effector, wherein the repeat units comprise hypervariable regions which determine recognition of a base pair in the target DNA sequence, wherein the polypeptide is designed to bind to the target DNA sequence by considering the sequence of base pairs present in the target DNA sequence and combining in the appropriate order repeat units, and wherein the hypervariable region comprises a member selected from the group consisting of: (a) HD for recognition of C/G; (b) NI for recognition of A/T; (c) NG for recognition of T/A; (d) NS for recognition of C/G or A/T or T/A or G/C; (e) NN for recognition of G/C or A/T; (f) IG for recognition of T/A; (g) N for recognition of C/G; (h) HG for recognition of C/G or T/A; and (i) H for recognition of T/A. (a) HD for recognition of C/G; (b) NI for recognition of A/T; (c) NG for recognition of T/A; (d) NS for recognition of C/G or A/T or T/A or G/C; (e) NN for recognition of G/C or A/T; (f) IG for recognition of T/A; (g) N for recognition of C/G; (h) HG for recognition of C/G or T/A; and (i) H for recognition of T/A.
A combustion turbine power generation system comprising: a combustion turbine assembly including a main compressor constructed and arranged to receive ambient inlet air, a main expansion turbine operatively associated with the main compressor, a combustor constructed and arranged to receive compressed air from the main compressor and to feed the main expansion turbine, and an electric generator associated with the main expansion turbine for generating electric power, a source of stored compressed air, a heat exchanger constructed and arranged to receive exhaust heat and to receive and heat all compressed air flow released from the source of stored compressed air, a stand-alone air expander constructed and arranged to expand the heated compressed air flow from the heat exchanger to atmospheric pressure to thereby reduce a temperature of the heated compressed air flow to a temperature below ambient temperature, and a structure associated with the air expander constructed and arranged to permit sending all of the air from an exhaust of the air expander to an inlet of the main compressor to mix the air from the exhaust with the ambient inlet air and reduce a temperature of the ambient inlet air fed to the main compressor and thus augment power of the combustion turbine assembly, characterized in that the heat exchanger receives the exhaust heat from the main expansion turbine and the system further comprises an additional electric generator associated with the air expander and configured to generate additional electric power. a combustion turbine assembly including a main compressor constructed and arranged to receive ambient inlet air, a main expansion turbine operatively associated with the main compressor, a combustor constructed and arranged to receive compressed air from the main compressor and to feed the main expansion turbine, and an electric generator associated with the main expansion turbine for generating electric power, a source of stored compressed air, a heat exchanger constructed and arranged to receive exhaust heat and to receive and heat all compressed air flow released from the source of stored compressed air, a stand-alone air expander constructed and arranged to expand the heated compressed air flow from the heat exchanger to atmospheric pressure to thereby reduce a temperature of the heated compressed air flow to a temperature below ambient temperature, and a structure associated with the air expander constructed and arranged to permit sending all of the air from an exhaust of the air expander to an inlet of the main compressor to mix the air from the exhaust with the ambient inlet air and reduce a temperature of the ambient inlet air fed to the main compressor and thus augment power of the combustion turbine assembly, characterized in that the heat exchanger receives the exhaust heat from the main expansion turbine and the system further comprises an additional electric generator associated with the air expander and configured to generate additional electric power.
A non-transitory computer readable medium storing instructions that, when executed by one or more hardware processors (412, 414), cause the one or more hardware processors to: perform backward propagation computations for a second layer of a neural network to generate second weight gradients, the second weight gradients comprising weight gradients of the second layer; split the second weight gradients into portions, each portion associated with an exchange task; cause a hardware interface to exchange a first portion of the second weight gradients with a second computer system; perform backward propagation computations for a first layer of the neural network to generate first weight gradients when the exchange of the first portion of the second weight gradients is underway, the first layer being a lower layer than the second layer in the neural network, the first weight gradients comprising weight gradients of the first layer; after transmission of the first portion of the second weight gradients completes, cause the hardware interface to transmit the first weight gradients to the second computer system; after the transmission of the first weight gradients completes, cause the hardware interface to transmit the remaining portions of the second weight gradients to the second computer system; and receive other weight gradients from the second computer system. perform backward propagation computations for a second layer of a neural network to generate second weight gradients, the second weight gradients comprising weight gradients of the second layer; split the second weight gradients into portions, each portion associated with an exchange task; cause a hardware interface to exchange a first portion of the second weight gradients with a second computer system; perform backward propagation computations for a first layer of the neural network to generate first weight gradients when the exchange of the first portion of the second weight gradients is underway, the first layer being a lower layer than the second layer in the neural network, the first weight gradients comprising weight gradients of the first layer; after transmission of the first portion of the second weight gradients completes, cause the hardware interface to transmit the first weight gradients to the second computer system; after the transmission of the first weight gradients completes, cause the hardware interface to transmit the remaining portions of the second weight gradients to the second computer system; and receive other weight gradients from the second computer system.
A catheter for use in a medical procedure provided with a strain sensing system, comprising: a flexible elongate body adapted to be introduced into a patient during said medical procedure and including an end effector, said end effector including a strain sensing assembly, said strain sensing assembly characterized by: a deformable body; a plurality of optical fiber strain sensors operatively coupled with said deformable body; an equal number of temperature sensors, respectively proximate said plurality of optical fiber strain sensors to determine the respective temperatures of said plurality of fiber strain sensors, said plurality of optical fiber strain sensors and said plurality of temperature sensors being centered at the same axial location relative to a proximal end of the deformable body and each of the temperature sensors being spaced rotationally equidistant from each other, and channels defined on an outer surface of the deformable body for aiding in precise location of sensitive portions of the optical fiber strain sensors and the temperature sensors, respectively, by placing the sensors (152, 154) in the channels. a flexible elongate body adapted to be introduced into a patient during said medical procedure and including an end effector, said end effector including a strain sensing assembly, said strain sensing assembly characterized by: a deformable body; a plurality of optical fiber strain sensors operatively coupled with said deformable body; an equal number of temperature sensors, respectively proximate said plurality of optical fiber strain sensors to determine the respective temperatures of said plurality of fiber strain sensors, said plurality of optical fiber strain sensors and said plurality of temperature sensors being centered at the same axial location relative to a proximal end of the deformable body and each of the temperature sensors being spaced rotationally equidistant from each other, and channels defined on an outer surface of the deformable body for aiding in precise location of sensitive portions of the optical fiber strain sensors and the temperature sensors, respectively, by placing the sensors (152, 154) in the channels. a deformable body; a plurality of optical fiber strain sensors operatively coupled with said deformable body; an equal number of temperature sensors, respectively proximate said plurality of optical fiber strain sensors to determine the respective temperatures of said plurality of fiber strain sensors, said plurality of optical fiber strain sensors and said plurality of temperature sensors being centered at the same axial location relative to a proximal end of the deformable body and each of the temperature sensors being spaced rotationally equidistant from each other, and channels defined on an outer surface of the deformable body for aiding in precise location of sensitive portions of the optical fiber strain sensors and the temperature sensors, respectively, by placing the sensors (152, 154) in the channels.
Laundry dryer having a removable condensate collector (108, 208) having a condensate inlet (110, 210) and a condensate outlet, wherein the condensate collector (108, 208) has a condensate filter (109, 209) having at least one screen (134, 234) which is disposed fluidly between the condensate inlet (110, 210) and the condensate outlet at a distance from the condensate inlet (110, 210), characterised in that the condensate filter (109, 209) is removable from the condensate collector (108, 208) and can be locked onto the condensate collector (108, 208).
A casing assembly, comprising: a casing, having an outer surface and an inner surface opposite the outer surface, the casing defining a first through hole, the first through hole extending through the outer surface and the inner surface; a flash lens, covering the first through hole; and a decorative ring, passing through the first through hole and coupled to the flash lens and the casing, the decorative ring extending out of the outer surface, wherein the flash lens comprises a first lateral portion and a first longitudinal portion, the first longitudinal portion extending through the first through hole, wherein the decorative ring comprises a second lateral portion and a second longitudinal portion, the decorative ring being coupled to the flash lens by disposing the second lateral portion between the first lateral portion and the inner surface and by disposing the second longitudinal portion to sleeve on the first longitudinal portion. a casing, having an outer surface and an inner surface opposite the outer surface, the casing defining a first through hole, the first through hole extending through the outer surface and the inner surface; a flash lens, covering the first through hole; and a decorative ring, passing through the first through hole and coupled to the flash lens and the casing, the decorative ring extending out of the outer surface, wherein the flash lens comprises a first lateral portion and a first longitudinal portion, the first longitudinal portion extending through the first through hole, wherein the decorative ring comprises a second lateral portion and a second longitudinal portion, the decorative ring being coupled to the flash lens by disposing the second lateral portion between the first lateral portion and the inner surface and by disposing the second longitudinal portion to sleeve on the first longitudinal portion.
An apparatus for producing a three-dimensional work piece comprising: an irradiation unit comprising at least one scanning unit configured to scan a radiation beam over an uppermost layer of raw material powder to predetermined sites of the uppermost layer of the raw material powder in order to solidify the raw material powder at the predetermined sites, wherein an axis corresponding to the radiation beam when it impinges on the uppermost layer of raw material powder at an angle of 90° is defined as a central axis for the scanning unit; and a control unit configured to receive work piece data indicative of at least one layer of the three-dimensional work piece to be produced, and assign at least a part of a contour of the layer of the three-dimensional work piece to the at least one scanning unit, characterized in that the control unit is configured to generate control data for controlling the irradiation unit, the control data defining a scan strategy of the radiation beam such that for more than 70 % of a predefined length, the radiation beam moves away from the central axis, the predefined length being defined as a length the radiation beam moves along the contour assigned to the at least one scanning unit, excluding sections concentric with regard to the central axis. an irradiation unit comprising at least one scanning unit configured to scan a radiation beam over an uppermost layer of raw material powder to predetermined sites of the uppermost layer of the raw material powder in order to solidify the raw material powder at the predetermined sites, wherein an axis corresponding to the radiation beam when it impinges on the uppermost layer of raw material powder at an angle of 90° is defined as a central axis for the scanning unit; and a control unit configured to receive work piece data indicative of at least one layer of the three-dimensional work piece to be produced, and assign at least a part of a contour of the layer of the three-dimensional work piece to the at least one scanning unit, receive work piece data indicative of at least one layer of the three-dimensional work piece to be produced, and assign at least a part of a contour of the layer of the three-dimensional work piece to the at least one scanning unit, characterized in that the control unit is configured to generate control data for controlling the irradiation unit, the control data defining a scan strategy of the radiation beam such that for more than 70 % of a predefined length, the radiation beam moves away from the central axis, the predefined length being defined as a length the radiation beam moves along the contour assigned to the at least one scanning unit, excluding sections concentric with regard to the central axis.
Creeping device of a movable toe of frogs, wherein it consists of a carriage connected via a tenon with the movable toe of the frog characterised by that the carriage is pushed by a spring with the wheels to the cam route on a bottom side of the board detachably connected from the bottom to wing rails.
A numerical control device (2, 3, 4) for machining a machining object by moving a tool and the machining object relative to each other along a movement path while applying vibration, by use of drive axes provided for the tool or the machining object, the device (2, 3, 4) comprising: a storage unit adapted to store data specifying an invalid frequency region, the invalid frequency region being a vibration frequency band that is to be avoided; and a vibration condition determining unit adapted to obtain a given rotational speed of a main shaft for rotating the machining object, a given number of vibrations to be applied per rotation of the main shaft, and a process period for generating a movement command to the drive axes, the process period being the minimum duration of time that can be controlled by the numerical control device, and adapted to change the rotational speed of the main shaft or the number of vibrations per rotation of the main shaft in such a way, that a frequency of the vibration to be applied avoids the invalid frequency region, based on the given rotational speed, the given number of vibrations, and the process period. a storage unit adapted to store data specifying an invalid frequency region, the invalid frequency region being a vibration frequency band that is to be avoided; and a vibration condition determining unit adapted to obtain a given rotational speed of a main shaft for rotating the machining object, a given number of vibrations to be applied per rotation of the main shaft, and a process period for generating a movement command to the drive axes, the process period being the minimum duration of time that can be controlled by the numerical control device, and adapted to change the rotational speed of the main shaft or the number of vibrations per rotation of the main shaft in such a way, that a frequency of the vibration to be applied avoids the invalid frequency region, based on the given rotational speed, the given number of vibrations, and the process period. adapted to obtain a given rotational speed of a main shaft for rotating the machining object, a given number of vibrations to be applied per rotation of the main shaft, and a process period for generating a movement command to the drive axes, the process period being the minimum duration of time that can be controlled by the numerical control device, and adapted to change the rotational speed of the main shaft or the number of vibrations per rotation of the main shaft in such a way, that a frequency of the vibration to be applied avoids the invalid frequency region, based on the given rotational speed, the given number of vibrations, and the process period.