mhurhangee/patent-ind-claim-en huggingface dataset:
A test rig for testing a gearbox , the test rig comprising: - a gear system comprising rotatable connection interfaces suitable for being connected to input and output shafts of the gearbox under test, - a power transmission shaft such that mechanical power is capable of flowing in a mechanical closed power loop constituted by the gear system, the gearbox under test, and the power transmission shaft when the gearbox under test is connected to the rotatable connection interfaces, and - a drive motor for driving the mechanical closed power loop, wherein the gear system comprises a differential gear stage having first and second rotatable elements which form part of the mechanical closed power loop and whose mutual rotational speed difference depends on rotational speed of a third rotatable element of the differential gear stage, and wherein the test rig is adapted to the gear ratio of the gearbox under test by allowing the third rotatable element of the differential gear stage to rotate at such a speed that a speed difference of the first and second rotatable elements of the differential gear stage compensates for an effect of gear ratios of other elements, including the gearbox under test, in the mechanical closed power loop, and the test rig further comprises a controlling device connected to the third rotatable element of the differential gear stage and arranged to control torque acting on the third rotatable element when the third rotatable element is rotating, characterized in that the differential gear stage is a planetary gear, a sun gear shaft and a gear ring of the planetary gear being the first and second rotatable elements and a planet-wheel carrier of the planetary gear being the third rotatable element. - a gear system comprising rotatable connection interfaces suitable for being connected to input and output shafts of the gearbox under test, - a power transmission shaft such that mechanical power is capable of flowing in a mechanical closed power loop constituted by the gear system, the gearbox under test, and the power transmission shaft when the gearbox under test is connected to the rotatable connection interfaces, and - a drive motor for driving the mechanical closed power loop,
A method of improved reduced energy let through, RELT, mode selection in a switching apparatus , the method comprising: receiving a request to disable a RELT mode of the switching apparatus ; and if the RELT mode of the switching apparatus is active, initiating a delay of a configurable amount of time based on the receipt of the request to disable the RELT mode prior to increasing a current threshold of the switching apparatus. receiving a request to disable a RELT mode of the switching apparatus ; and if the RELT mode of the switching apparatus is active, initiating a delay of a configurable amount of time based on the receipt of the request to disable the RELT mode prior to increasing a current threshold of the switching apparatus.
A composite welding wire for fusion welding of components manufactured of superalloys, the composite weld wire comprising: a) an inner core wire; b) a surface layer applied and bonded to the inner core wire; and c) a transition layer sandwiched between the inner core wire and the surface layer; wherein the bulk composition of the composite welding wire is selected from: (i) 20-22% Cr, 9-11% Mo, 3.5-4% Nb, 0.5%-0.8% B, Ni and impurities to balance; (ii) 21-23% Cr, 21-23% Ni, 14-15% W, 0.05-0.08% La, 0.5-0.8% B, 1.2-1.5% Si, Co and impurities to balance; and (iii) 23-25% Cr, 11-13% Ni, 1-2.5% B, 1.2-1.5% Si, Fe and impurities to balance; wherein the core wire is 1.0 to 1.5 mm in diameter; and wherein the surface layer comprises B and more than 50 wt. % of the alloying elements selected from among B and Si. a) an inner core wire; b) a surface layer applied and bonded to the inner core wire; and c) a transition layer sandwiched between the inner core wire and the surface layer; (i) 20-22% Cr, 9-11% Mo, 3.5-4% Nb, 0.5%-0.8% B, Ni and impurities to balance; (ii) 21-23% Cr, 21-23% Ni, 14-15% W, 0.05-0.08% La, 0.5-0.8% B, 1.2-1.5% Si, Co and impurities to balance; and (iii) 23-25% Cr, 11-13% Ni, 1-2.5% B, 1.2-1.5% Si, Fe and impurities to balance;
Humidity sensor of capacitive type, comprising: - at least one first electrode and at least one second electrode , - at least one nanoporous dielectric material between said first electrode and said second electrode, said nanoporous dielectric material comprising pores with radius of less than 2 nanometres, said nanoporous dielectric material further comprising hydrophilic sites, said nanoporous dielectric material being MSQ or SiOCH - at least one floating electrode permeable to humidity resting upon the nanoporous material and positioned facing said first electrode and said second electrode. - at least one first electrode and at least one second electrode , - at least one nanoporous dielectric material between said first electrode and said second electrode, said nanoporous dielectric material comprising pores with radius of less than 2 nanometres, said nanoporous dielectric material further comprising hydrophilic sites, said nanoporous dielectric material being MSQ or SiOCH - at least one floating electrode permeable to humidity resting upon the nanoporous material and positioned facing said first electrode and said second electrode.
A docking station, characterized in that the docking station comprises a cleaning system disposed in a base of the docking station; wherein the cleaning system comprises a cutting chamber , an upper end cover and a lower end cover ; the cutting chamber is configured to receive a to-be-cleaned object, and the upper end cover is detachably connected to an upper end of the cutting chamber ; the lower end cover is disposed at a lower end of the cutting chamber and is rotatably connected with the cutting chamber ; the to-be-cleaned object is detachably fixed to the lower end cover ; and a blade assembly configured to clean the to-be-cleaned object is provided at an inner wall of the cutting chamber . the cleaning system comprises a cutting chamber , an upper end cover and a lower end cover ; the cutting chamber is configured to receive a to-be-cleaned object, and the upper end cover is detachably connected to an upper end of the cutting chamber ; the lower end cover is disposed at a lower end of the cutting chamber and is rotatably connected with the cutting chamber ; the to-be-cleaned object is detachably fixed to the lower end cover ; and a blade assembly configured to clean the to-be-cleaned object is provided at an inner wall of the cutting chamber .
A bearing assembly for supporting a shaft rotating on an axis , the bearing assembly comprising: a first bearing axially spaced from a second bearing , each bearing having an inner race and an outer race ; a bearing mounting sleeve having an outer sleeve surface and an inner sleeve surface , the inner sleeve surface engaging the outer race of the first bearing and the second bearing ; and a bearing housing having an enclosed chamber with an inner bearing support engaging the outer sleeve surface of the bearing mounting sleeve , and a housing oil inlet in fluid communication with the enclosed chamber , wherein the bearing mounting sleeve includes an axially extending sleeve oil passage in fluid communication with the housing oil inlet , the bearing mounting sleeve has a first outlet in the vicinity of the first bearing and the sleeve oil passage has a second outlet in the vicinity of the second bearing , characterized in that : the bearing mounting sleeve comprises a first ring and a second ring joined together with a plurality of axial struts , and the sleeve oil passage is disposed within at least one of the plurality of axial struts . a first bearing axially spaced from a second bearing , each bearing having an inner race and an outer race ; a bearing mounting sleeve having an outer sleeve surface and an inner sleeve surface , the inner sleeve surface engaging the outer race of the first bearing and the second bearing ; and a bearing housing having an enclosed chamber with an inner bearing support engaging the outer sleeve surface of the bearing mounting sleeve , and a housing oil inlet in fluid communication with the enclosed chamber , wherein the bearing mounting sleeve includes an axially extending sleeve oil passage in fluid communication with the housing oil inlet , the bearing mounting sleeve has a first outlet in the vicinity of the first bearing and the sleeve oil passage has a second outlet in the vicinity of the second bearing ,
A self-purge system , comprising: a fuel passage ; an additively manufactured purge valve assembly (108; 108A); an accumulator volume ; and a pressure source ; wherein said purge valve assembly (108; 108A) is in communication with said accumulator volume , said fuel passage and said pressure source ; and wherein residual fuel within the fuel passage is drawn into the accumulator volume to selectively purge said fuel passage ; characterised in that : said fuel passage is a fuel circuit of a fuel nozzle , and said purge valve assembly (108; 108A) is integrated into said fuel nozzle via additive manufacturing. a fuel passage ; an additively manufactured purge valve assembly (108; 108A); an accumulator volume ; and a pressure source ; wherein said purge valve assembly (108; 108A) is in communication with said accumulator volume , said fuel passage and said pressure source ; and wherein residual fuel within the fuel passage is drawn into the accumulator volume to selectively purge said fuel passage ; characterised in that : said fuel passage is a fuel circuit of a fuel nozzle , and said purge valve assembly (108; 108A) is integrated into said fuel nozzle via additive manufacturing.
An article of footwear comprising: an upper member at least partially defining a foot-receiving chamber; a sole structure engaged with the upper member , the sole structure having a well located in the sole structure and configured for removably receiving an electronic module ; an insert member engaging the sole structure , wherein a plurality of force sensors are connected to the insert member , each force sensor configured for detecting a force exerted by a foot on the force sensor , each force sensor having a sensor lead connected to the insert member and extending from the force sensor to the well , the sensor leads having terminal ends that converge to a single location within the well to form a consolidated interface; and a port accessible within the well and being connected to the consolidated interface, the port having a plurality of electrical contacts accessible within the well and forming a multi-pin connection configured for removable connection to a module interface of the electronic module , wherein the multi-pin connection is configured such that each of the sensor leads is individually connected to one of the electrical contacts of the multi-pin connection, such that the port is configured to enable communication between the force sensors and the electronic module through the module interface, the consolidated interface, and the sensor leads when the electronic module is received in the well . an upper member at least partially defining a foot-receiving chamber; a sole structure engaged with the upper member , the sole structure having a well located in the sole structure and configured for removably receiving an electronic module ; an insert member engaging the sole structure , wherein a plurality of force sensors are connected to the insert member , each force sensor configured for detecting a force exerted by a foot on the force sensor , each force sensor having a sensor lead connected to the insert member and extending from the force sensor to the well , the sensor leads having terminal ends that converge to a single location within the well to form a consolidated interface; and a port accessible within the well and being connected to the consolidated interface, the port having a plurality of electrical contacts accessible within the well and forming a multi-pin connection configured for removable connection to a module interface of the electronic module , wherein the multi-pin connection is configured such that each of the sensor leads is individually connected to one of the electrical contacts of the multi-pin connection, such that the port is configured to enable communication between the force sensors and the electronic module through the module interface, the consolidated interface, and the sensor leads when the electronic module is received in the well .
A first communication apparatus , not capable of concurrently providing a first service (service Y) and a second service (service X), comprising: a receiving unit configured to receive (S401, F506), from a second communication apparatus , a search signal which the second communication apparatus uses for searching for an apparatus to provide the first service to the second communication apparatus, characterized in that the first communication apparatus further comprises: a detection unit configured to detect (S403), within the first communication apparatus , an execution state of the second service in a case where the receiving unit receives the search signal; and a controller configured to transmit (S404) a response signal to the search signal in a case where the detection unit does not detect that the second service is being executed, and not to transmit (S405) response signals to the search signal in a case the detection unit detects that the second service is being executed; wherein the first service is set as a service which is incapable of operating in parallel with the second service. a receiving unit configured to receive (S401, F506), from a second communication apparatus , a search signal which the second communication apparatus uses for searching for an apparatus to provide the first service to the second communication apparatus, characterized in that the first communication apparatus further comprises: a detection unit configured to detect (S403), within the first communication apparatus , an execution state of the second service in a case where the receiving unit receives the search signal; and a controller configured to transmit (S404) a response signal to the search signal in a case where the detection unit does not detect that the second service is being executed, and not to transmit (S405) response signals to the search signal in a case the detection unit detects that the second service is being executed; wherein the first service is set as a service which is incapable of operating in parallel with the second service. a detection unit configured to detect (S403), within the first communication apparatus , an execution state of the second service in a case where the receiving unit receives the search signal; and a controller configured to transmit (S404) a response signal to the search signal in a case where the detection unit does not detect that the second service is being executed, and not to transmit (S405) response signals to the search signal in a case the detection unit detects that the second service is being executed; wherein the first service is set as a service which is incapable of operating in parallel with the second service.
A system for facilitating selection of a vector for delivering electrical stimulation to a patient's heart via an electro-stimulation device having three or more electro-stimulation electrodes, the system comprising means for and being adapted for: displaying a plurality of vectors on a display screen, wherein each vector represents a different combination of the three or more electro-stimulation electrodes; determining an electrical impedance for each of the plurality of vectors; displaying on the display screen the determined electrical impedance for each of the plurality of vectors; receiving a selection of a set of the plurality of vectors as a selected subset of the plurality of vectors; determining, for each of the vectors in the selected subset of the plurality of vectors, a capture threshold, while not determining the capture threshold for the non-selected vectors; displaying on the display screen the capture threshold for each of the vectors in the subset of the plurality of vectors; receiving a further selection of a vector from the received selected subset of the plurality of vectors for delivery of electrical stimulation to the patient's heart; and programming the electro-stimulation device to use the selected vector when delivering electrical stimulation to the patient's heart. displaying a plurality of vectors on a display screen, wherein each vector represents a different combination of the three or more electro-stimulation electrodes; determining an electrical impedance for each of the plurality of vectors; displaying on the display screen the determined electrical impedance for each of the plurality of vectors; receiving a selection of a set of the plurality of vectors as a selected subset of the plurality of vectors; determining, for each of the vectors in the selected subset of the plurality of vectors, a capture threshold, while not determining the capture threshold for the non-selected vectors; displaying on the display screen the capture threshold for each of the vectors in the subset of the plurality of vectors; receiving a further selection of a vector from the received selected subset of the plurality of vectors for delivery of electrical stimulation to the patient's heart; and programming the electro-stimulation device to use the selected vector when delivering electrical stimulation to the patient's heart.
A magnetic conveyance system comprising: a support structure defining a bearing surface and having a ferromagnetic capacity, said support structure being a ceiling or a wall; and a trolley operably connected to said support structure and disposed for movement on said support structure in any direction substantially parallel to said bearing surface , said trolley comprising one or more magnet and one or more friction reducing load spreading device , wherein said one or more magnet exerts a magnetic attraction force between said trolley and said support structure to operably connect said trolley to said support structure , and wherein said friction reducing load spreading device contacts said bearing surface and separates said support structure and said magnet by a clear distance, characterized in that said friction reducing load spreading device is an open-ball-transfer device including a plurality of inter-contacting bearing balls that separate and create an air gap between a bearing surface of the open-ball-transfer device and the bearing surface of the support structure . a support structure defining a bearing surface and having a ferromagnetic capacity, said support structure being a ceiling or a wall; and a trolley operably connected to said support structure and disposed for movement on said support structure in any direction substantially parallel to said bearing surface , said trolley comprising one or more magnet and one or more friction reducing load spreading device , wherein said one or more magnet exerts a magnetic attraction force between said trolley and said support structure to operably connect said trolley to said support structure , and wherein said friction reducing load spreading device contacts said bearing surface and separates said support structure and said magnet by a clear distance, characterized in that said friction reducing load spreading device is an open-ball-transfer device including a plurality of inter-contacting bearing balls that separate and create an air gap between a bearing surface of the open-ball-transfer device and the bearing surface of the support structure .
Method for controlling a motor vehicle provided with an internal combustion engine and a nitrogen oxides trap in the exhaust line of said internal combustion engine, comprising the following steps: - determining the temperature of the nitrogen oxides trap and measuring the flow rate of oxygen upstream of the nitrogen oxides trap, - determining a value of an oxidation criterion of the nitrogen oxides trap as a function of the temperature of the nitrogen oxides trap and of the flow rate of oxygen upstream of the nitrogen oxides trap since the last deoxidation treatment of the nitrogen oxides trap, - determining whether the value of the oxidation criterion is greater than at least one oxidation criterion threshold, and, when this is the case, determining that the at least one alert level corresponding to at least one crossed oxidation criterion threshold is activated, - performing a deoxidation treatment of the nitrogen oxides trap by controlling the internal combustion engine so as to alternate operating phases with a richness greater than 1 and operating phases with a richness less than 1, and - interrupting the deoxidation treatment when the cumulative duration of the operating phases with a richness greater than 1 is equal to a predetermined duration that is a function of the at least one activated alert level. - determining the temperature of the nitrogen oxides trap and measuring the flow rate of oxygen upstream of the nitrogen oxides trap, - determining a value of an oxidation criterion of the nitrogen oxides trap as a function of the temperature of the nitrogen oxides trap and of the flow rate of oxygen upstream of the nitrogen oxides trap since the last deoxidation treatment of the nitrogen oxides trap, - determining whether the value of the oxidation criterion is greater than at least one oxidation criterion threshold, and, when this is the case, determining that the at least one alert level corresponding to at least one crossed oxidation criterion threshold is activated, - performing a deoxidation treatment of the nitrogen oxides trap by controlling the internal combustion engine so as to alternate operating phases with a richness greater than 1 and operating phases with a richness less than 1, and - interrupting the deoxidation treatment when the cumulative duration of the operating phases with a richness greater than 1 is equal to a predetermined duration that is a function of the at least one activated alert level.
A method of providing an object with a safety device for a personal fall protection to be connected to an exposed surface of the object, in particular a building, said safety device comprising an anchoring means , for securing a personal fall protection means, and fastening means for a firm and durable connection of said safety device to said surface , wherein the fastening means comprise a flexible fastening flap of a flexible wall-covering material, characterized by the following steps of: (a) first providing an assembly of the flexible fastening flap and a substantially form-retaining, at least substantially flange-like body that comprises the anchoring means , wherein the flexible fastening flap extends at least substantially all around from said flange-like body and is firmly connected to said flange-like body , (b) placing the assembly on said surface of the object, and (c) thereafter connecting said assembly to said object by gluing, welding or otherwise adhering said flexible fastening flap to said surface of said object to bring about said firm and durable connection. (a) first providing an assembly of the flexible fastening flap and a substantially form-retaining, at least substantially flange-like body that comprises the anchoring means , wherein the flexible fastening flap extends at least substantially all around from said flange-like body and is firmly connected to said flange-like body , (b) placing the assembly on said surface of the object, and (c) thereafter connecting said assembly to said object by gluing, welding or otherwise adhering said flexible fastening flap to said surface of said object to bring about said firm and durable connection.