mhurhangee/ep-ind-claims huggingface dataset:
An implant system comprising: a first fixture comprising a first body and a first continuous thread, the first continuous thread having a spiral shape and formed on an outer circumferential surface of the first body; and a second fixture comprising a second body and a second continuous thread, the second body having the same shape and size as those of the first body, the second continuous thread having a spiral shape and formed on an outer circumferential surface of the second body, wherein a diameter of the second continuous thread is different from a diameter of the first continuous thread, wherein an end portion region of the second continuous thread is extended further outwardly in a radial direction from a first leading end portion (131 a) of the first continuous thread by a predetermined length, characterized in that the second continuous thread has an upper curved part (231 b) which is identical to an upper curved part (131 b) forming the upper surface of the first leading portion and a lower curved part which is identical to the lower curved part forming the lower surface of the first leading portion and in that the end portion region of the second continuous thread is extended further outwardly in a radial direction from the first leading end portion of the first continuous thread by a predetermined length such that the second fixture may be implanted without additional drilling in a hole where the first fixture was implanted. a first fixture comprising a first body and a first continuous thread, the first continuous thread having a spiral shape and formed on an outer circumferential surface of the first body; and a second fixture comprising a second body and a second continuous thread, the second body having the same shape and size as those of the first body, the second continuous thread having a spiral shape and formed on an outer circumferential surface of the second body, wherein a diameter of the second continuous thread is different from a diameter of the first continuous thread, wherein an end portion region of the second continuous thread is extended further outwardly in a radial direction from a first leading end portion (131 a) of the first continuous thread by a predetermined length,
A fluid line for a fluid medium in motor vehicles, in particular for an aqueous urea solution, comprising a pipe, at least one heating wire and a plug arranged on one pipe end of the pipe, wherein the plug has a plug shaft and a housing that encases the pipe end and heating wire, wherein the plug shaft comprises a ring collar for latching in a connector, wherein the pipe has an inner pipe and a support element, wherein the heating wire is arranged between the inner pipe and the support element, wherein the support element brings the heating wire to lie against the inner pipe, wherein the housing partially encases the support element, wherein a first section of the heating wire at the pipe end runs between the support element and the inner pipe, characterized in that a second section of the heating wire runs between the support element and the housing.
A headset comprising: a fluid conduit adapted to connect to a distal end of a hydration system supply tube; and a magnetic quick connect having an upstream and a downstream coupling member with a common mating axis and which together define a portion of the fluid conduit, wherein the upstream member comprises an off-axis arm that can rotate about the mating axis without decoupling the coupling members (134, 136). a fluid conduit adapted to connect to a distal end of a hydration system supply tube; and a magnetic quick connect having an upstream and a downstream coupling member with a common mating axis and which together define a portion of the fluid conduit, wherein the upstream member comprises an off-axis arm that can rotate about the mating axis without decoupling the coupling members (134, 136).
An image forming apparatus, comprising a printer unit having an optical scanning device, a first temperature detector configured to detect a temperature of a first portion of the optical scanning device, the first portion being proximate to a heat generating element; a second temperature detector configured to detect a temperature of a second portion of the optical scanning device, the second portion being farther from the heat generating element than the first portion; and a controller configured to perform alignment control for correcting a color positional shift of the printer unit when either a detected temperature change of the first portion is greater than or equal to a first threshold value or a detected temperature change of the second portion is greater than or equal to a second threshold value, characterized in that the first threshold value is greater than the second threshold value. a first temperature detector configured to detect a temperature of a first portion of the optical scanning device, the first portion being proximate to a heat generating element; a second temperature detector configured to detect a temperature of a second portion of the optical scanning device, the second portion being farther from the heat generating element than the first portion; and a controller configured to perform alignment control for correcting a color positional shift of the printer unit when either a detected temperature change of the first portion is greater than or equal to a first threshold value or a detected temperature change of the second portion is greater than or equal to a second threshold value,
A method for mobile network testing by using at least one testing device configured to be connected to the mobile network as well as a processing unit, the method is comprising the following steps: - Running a predefined set of test procedures on the at least one testing device for generating at least one heat map assigned to the mobile network under test, wherein the test procedures running on the at least one testing device simulate the behavior of participants of the mobile network, - Receiving by the processing unit the test results of the set of test procedures, - Evaluating by the processing unit the test results of the set of test procedures via a machine learning model, and - Training the machine learning model to complete missing information on an already present heat map, wherein the training of the machine learning model is based on inputting valid and complete heat map information obtained from the test results, and wherein the machine learning model is trained such that the machine learning model is able to complete missing information on an already present heat map based on the results obtained by recognizing relationships and/or correlations between different data and/or information of the appropriate data assigned to the test results. - Running a predefined set of test procedures on the at least one testing device for generating at least one heat map assigned to the mobile network under test, wherein the test procedures running on the at least one testing device simulate the behavior of participants of the mobile network, - Receiving by the processing unit the test results of the set of test procedures, - Evaluating by the processing unit the test results of the set of test procedures via a machine learning model, and - Training the machine learning model to complete missing information on an already present heat map, wherein the training of the machine learning model is based on inputting valid and complete heat map information obtained from the test results, and wherein the machine learning model is trained such that the machine learning model is able to complete missing information on an already present heat map based on the results obtained by recognizing relationships and/or correlations between different data and/or information of the appropriate data assigned to the test results.
A control device for controlling an electrical apparatus (11a, 11b, 11c) so that a power consumption of the electrical apparatus (11a, 11b, 11c) during a predetermined specified time period is less than or equal to a predetermined set power, the control device comprising: a spare power acquirer configured to, each time a set time period shorter than the specified time period elapses, obtain an average power consumption of the electrical apparatus (11a, 11b, 11c) in the set time period, and obtain a spare power of the average power consumption with respect to a target power in the set time period that is based on the set power; and characterized by an updater configured to: update the target power in a next set time period based on a value of the spare power obtained by the spare power acquirer, and report the updated target power to a controller that controls the electrical apparatus (11a, 11b, 11c), wherein the updater is configured to update the target power in the next set time period to a power obtained by adding the obtained spare power to the set power when the obtained spare power is a positive value, or update the target power in the next set time period to a power obtained by subtracting an absolute value of the obtained spare power from the set power when the obtained spare power is a negative value. a spare power acquirer configured to, each time a set time period shorter than the specified time period elapses, obtain an average power consumption of the electrical apparatus (11a, 11b, 11c) in the set time period, and obtain a spare power of the average power consumption with respect to a target power in the set time period that is based on the set power; and characterized by an updater configured to: update the target power in a next set time period based on a value of the spare power obtained by the spare power acquirer, and report the updated target power to a controller that controls the electrical apparatus (11a, 11b, 11c), wherein the updater is configured to update the target power in the next set time period to a power obtained by adding the obtained spare power to the set power when the obtained spare power is a positive value, or update the target power in the next set time period to a power obtained by subtracting an absolute value of the obtained spare power from the set power when the obtained spare power is a negative value. update the target power in a next set time period based on a value of the spare power obtained by the spare power acquirer, and report the updated target power to a controller that controls the electrical apparatus (11a, 11b, 11c), wherein the updater is configured to update the target power in the next set time period to a power obtained by adding the obtained spare power to the set power when the obtained spare power is a positive value, or update the target power in the next set time period to a power obtained by subtracting an absolute value of the obtained spare power from the set power when the obtained spare power is a negative value.
A cable connector, comprising a plurality of insulating components (4, 5, 6) arranged around a joint between cable conductors (20A, 20B) exposed from ends of a pair of power cables (2A, 2B) as connection objects, wherein the plurality of insulating components comprise a female component comprising a conical inner contact surface located on the inner side, a male component comprising a conical outer contact surface located on the outer side, and an intermediate component that is arranged between the male and female components and comprises an insulating portion comprising an insulating material and a through-hole formed in the center along an axial direction, the insulating portion further comprising a female-side contact surface in contact with the inner contact surface and a male-side contact surface in contact with the outer contact surface, and wherein the intermediate component is configured such that the male-side contact surface has a smaller area than the female-side contact surface, the cable connector being characterized in that: a gap formed between the through-hole and the joint/the power cable serves as an air escape path to allow the air to escape from an interfacial surface between the female-side contact surface and the inner contact surface when the female-side contact surface is brought into contact with the inner contact surface of the female component.
A test method for testing the operability of an optical sensor for monitoring a monitored zone, wherein - the sensor has a receiver for object detection, - at least one test object (20, 30, 40, 50, 60) is used in the test method and is located in a detection zone of the sensor including the monitored zone, - the at least one test object (20, 30, 40, 50, 60) is changed with respect to its optical properties during the carrying out of the test method; - the at least one test object (20, 30, 40, 50, 60) is observed (i) after the change for comparing with a previous observation and/or (ii) during the change with the aid of a detection device, preferably the receiver of the sensor; and - at least one test signal is produced when the observed change cannot be detected in an expected manner, i.e. does not correspond to the change effected during the carrying out of the test method, characterized in that the at least one test object (50, 60) has a diaphragm (52, 62), preferably a liquid crystal shutter, which is opened or closed for changing the test object (50, 60). - the sensor has a receiver for object detection, - at least one test object (20, 30, 40, 50, 60) is used in the test method and is located in a detection zone of the sensor including the monitored zone, - the at least one test object (20, 30, 40, 50, 60) is changed with respect to its optical properties during the carrying out of the test method; - the at least one test object (20, 30, 40, 50, 60) is observed (i) after the change for comparing with a previous observation and/or (ii) during the change with the aid of a detection device, preferably the receiver of the sensor; and (i) after the change for comparing with a previous observation and/or (ii) during the change with the aid of a detection device, preferably the receiver of the sensor; and - at least one test signal is produced when the observed change cannot be detected in an expected manner, i.e. does not correspond to the change effected during the carrying out of the test method,
A system for improving accuracy of natural language processing, the system comprising: a natural language input device; a plurality of speech recognition engines (104a-n) for automatic speech recognition functions only, the plurality of speech recognition engines (104a-n) being connected to the input device, the plurality of speech recognition engines (104a-n) receive an input from the input device and presents a speech recognition result as part of a set of speech recognition results; a data fusion model to receive the set of speech recognition results and to identify a correct result from the set of speech recognition results; a semantic understanding model, separate and distinct from the plurality of speech recognition engines (104a-n), to process the correct result; and a collection of all of the results of the plurality of speech recognition results defining a corpus including the correct results, wherein the corpus is configured to be used to train the data fusion model and the semantic understanding model. a natural language input device; a plurality of speech recognition engines (104a-n) for automatic speech recognition functions only, the plurality of speech recognition engines (104a-n) being connected to the input device, the plurality of speech recognition engines (104a-n) receive an input from the input device and presents a speech recognition result as part of a set of speech recognition results; a data fusion model to receive the set of speech recognition results and to identify a correct result from the set of speech recognition results; a semantic understanding model, separate and distinct from the plurality of speech recognition engines (104a-n), to process the correct result; and a collection of all of the results of the plurality of speech recognition results defining a corpus including the correct results, wherein the corpus is configured to be used to train the data fusion model and the semantic understanding model.
A method for making semiconductor nanocrystals, including at least the steps of: - making a stack of at least one uniaxially stressed semiconductor thin layer having a thickness less than or equal to around 1 μm on a dielectric layer, - annealing the semiconductor thin layer such that a dewetting of the semiconductor forms, on the dielectric layer, elongated shaped semiconductor nanocrystals oriented perpendicularly to the stress axis. - making a stack of at least one uniaxially stressed semiconductor thin layer having a thickness less than or equal to around 1 μm on a dielectric layer, - annealing the semiconductor thin layer such that a dewetting of the semiconductor forms, on the dielectric layer, elongated shaped semiconductor nanocrystals oriented perpendicularly to the stress axis.
Dosing unit for an ambulatory infusion system, including: - a metering pump unit, the pump unit including a dosing cylinder and a piston, the piston being arranged in sealing sliding engagement inside the dosing cylinder; - a valve unit, the valve unit having a filling port, the filling port being designed for fluidic coupling with a liquid drug reservoir, a draining port, the draining port being designed for fluidic coupling with an infusion site interface, and a shut-off body, the shut-off body being movable between a filling position where it fluidic couples the filling port with the dosing cylinder and an alternative draining position where it fluidic couples the dosing cylinder with the draining port (1 27c); characterized by - a valve driver coupler, the valve driver coupler being coupled to or integral with the shut-off body and being the output element of a step switching mechanism, wherein the valve driver coupler includes a meshing slot for meshing with a meshing pin of a valve driver as driving element of the step switching mechanism, such that the meshing slot and the meshing pin are in meshing engagement only temporary for switching and over part of a full rotation of the driving element and are disengaged otherwise. - a metering pump unit, the pump unit including a dosing cylinder and a piston, the piston being arranged in sealing sliding engagement inside the dosing cylinder; - a valve unit, the valve unit having a filling port, the filling port being designed for fluidic coupling with a liquid drug reservoir, a draining port, the draining port being designed for fluidic coupling with an infusion site interface, and a shut-off body, the shut-off body being movable between a filling position where it fluidic couples the filling port with the dosing cylinder and an alternative draining position where it fluidic couples the dosing cylinder with the draining port (1 27c); - a valve driver coupler, the valve driver coupler being coupled to or integral with the shut-off body and being the output element of a step switching mechanism, wherein the valve driver coupler includes a meshing slot for meshing with a meshing pin of a valve driver as driving element of the step switching mechanism, such that the meshing slot and the meshing pin are in meshing engagement only temporary for switching and over part of a full rotation of the driving element and are disengaged otherwise.
Skin contact article (1, 1', 1", 1"') for application on the skin or a wound and for delivery of ions, the skin contact article (1, 1', 1", 1"') comprising at least one ply (2, 2', 2") of a solid, active substance (21, 21', 21", 21"') and comprising at least one skin-facing, water- and ion-transmissive, skin-compatible transmission ply (3, 3', 3"), wherein the solid, active substance (21, 21', 21", 21"') comprises at least one salt of a biodegradable phosphate from the group of phosphoric acid, metaphosphoric acid, diphosphoric acid and the counter-ions of these salts, preferably alkaline earth metal ions, more preferably calcium metaphosphate Ca(PO 3) 2, beta-tricalcium phosphate Ca 3 (PO 4) 2 and hydroxylapatite Ca 3 (PO 4) 3 OH.
An object detector configured to scan a plurality of areas in a scanning direction, the object detector comprising: a light-emitting system including a light source that includes a plurality of light-emitting elements disposed in one-axis direction perpendicular to the scanning direction, the light-emitting system configured to emit light; and a light-receiving system configured to receive the light emitted from the light-emitting system and reflected by an object; wherein the plurality of light-emitting elements are configured to emit a plurality of light beams to a plurality of areas differing in position in the one-axis direction, and wherein an amount of light illuminating some of the plurality of areas is different from an amount of light illuminating other area other than the some of the plurality of areas wherein the light-emitting system further includes an optical system configured to guide the plurality of light beams emitted from the plurality of light-emitting elements to the plurality of areas, a path of each light beam defining an optical path associated with the corresponding light-emitting element, wherein the plurality of light emitting elements includes a first light emitting element and a second light emitting element, the second light emitting element disposed further from a center of the light source in the one-axis direction than the first light emitting element, characterised in that the optical system is configured such that light loss is greater in the optical path associated with the second light emitting element than in the optical path associated with the first light emitting element. a light-emitting system including a light source that includes a plurality of light-emitting elements disposed in one-axis direction perpendicular to the scanning direction, the light-emitting system configured to emit light; and a light-receiving system configured to receive the light emitted from the light-emitting system and reflected by an object; wherein the plurality of light-emitting elements are configured to emit a plurality of light beams to a plurality of areas differing in position in the one-axis direction, and wherein an amount of light illuminating some of the plurality of areas is different from an amount of light illuminating other area other than the some of the plurality of areas wherein the light-emitting system further includes an optical system configured to guide the plurality of light beams emitted from the plurality of light-emitting elements to the plurality of areas, a path of each light beam defining an optical path associated with the corresponding light-emitting element, wherein the plurality of light emitting elements includes a first light emitting element and a second light emitting element, the second light emitting element disposed further from a center of the light source in the one-axis direction than the first light emitting element, characterised in that the optical system is configured such that light loss is greater in the optical path associated with the second light emitting element than in the optical path associated with the first light emitting element.