mhurhangee/patent-ind-claim-en huggingface dataset:
A method for analysing the dynamic flow conditions of a liquid conduit system, comprising: receiving data from at least one sensor indicative of pressure within the system; processing the data to generate an inflexion coded data subset for each sensor, wherein the inflexion coded data captures the changes or turning points in the pressure data identified by the sensors; cycle counting the inflexion coded data across at least one time period to generate a second data subset for each time period comprising a count of pressure cycles, the amplitude of these pressure cycles and an average pressure; and calculating a cumulative pressure-induced stress for each of the at least one time periods using the second data subset. receiving data from at least one sensor indicative of pressure within the system; processing the data to generate an inflexion coded data subset for each sensor, wherein the inflexion coded data captures the changes or turning points in the pressure data identified by the sensors; cycle counting the inflexion coded data across at least one time period to generate a second data subset for each time period comprising a count of pressure cycles, the amplitude of these pressure cycles and an average pressure; and calculating a cumulative pressure-induced stress for each of the at least one time periods using the second data subset.
Connection device, comprising a male element and a female element suitable for being inserted axially one into the other and for locking to one another by means of a bayonet mechanism , the male element and the female element each supporting a primary magnetic circuit comprising a ferromagnetic yoke and a plurality of magnets arranged in a plane transverse to the insertion axis, the primary magnetic devices being capable of magnetically coupling to each other when the male element and the female element face and are close to each other so as to form a multipolar magnetic circuit in which the magnets are arranged between the two yokes in such a way as to generate a magnetic flux closing at the two yokes and bring about an axial magnetic attraction force, the device being characterized in that , in the locking position, the primary magnetic circuit of the female element and the primary magnetic circuit of the male element have an angular locking offset in a plane transverse to the insertion axis for producing a magnetic holding torque having a spring effect.
An apparatus for stabilized positioning of collaborative robotics, comprising: a base platform ; a work platform positioned relative to the base platform for supporting one or more humans; and a plurality of robots supported on the base platform independently of the work platform ; the work platform being isolated from the robots for stabilized positioning of the robots , so that the base platform and work platform together provide a collaborative workspace for the robots and the humans, wherein the base platform and work platform are configured to be positioned within a fuselage assembly of an aircraft. a base platform ; a work platform positioned relative to the base platform for supporting one or more humans; and a plurality of robots supported on the base platform independently of the work platform ; the work platform being isolated from the robots for stabilized positioning of the robots , so that the base platform and work platform together provide a collaborative workspace for the robots and the humans, wherein the base platform and work platform are configured to be positioned within a fuselage assembly of an aircraft.
A method of manufacturing a composite component, the method comprising laying-up a plurality of successive plies of composite material on a tool to produce a pre-form for the component in a lay-up procedure, wherein a portion of each ply of composite material is heated to at least a threshold temperature of 45°C during a period of the lay-up procedure; characterized in that a heating apparatus is controlled to heat the pre-form during the lay-up procedure by heat transfer from the tool to the pre-form and by heat transfer from a side of the pre-form opposite the tool ; wherein the heating apparatus has a first heater configured to heat the pre-form during the lay-up procedure by heat transfer from the tool to the pre-form, and a second heater configured to heat the pre-form during the lay-up procedure by heat transfer from a side of the pre-form opposite the tool ; wherein the heating apparatus is operated during the layup procedure to heat the pre-form in a first heating phase in which a thickness of the pre-form is less than a threshold thickness or a number of plies is less than a threshold limit, and subsequently in a second heating phase in which the pre-form has a thickness greater than or equal to the threshold thickness or a number of plies greater than or equal to the threshold limit; wherein in the first heating phase only the first heater is active; and wherein in the second heating phase at least the second heater is active. characterized in that a heating apparatus is controlled to heat the pre-form during the lay-up procedure by heat transfer from the tool to the pre-form and by heat transfer from a side of the pre-form opposite the tool ; wherein the heating apparatus has a first heater configured to heat the pre-form during the lay-up procedure by heat transfer from the tool to the pre-form, and a second heater configured to heat the pre-form during the lay-up procedure by heat transfer from a side of the pre-form opposite the tool ; wherein the heating apparatus is operated during the layup procedure to heat the pre-form in a first heating phase in which a thickness of the pre-form is less than a threshold thickness or a number of plies is less than a threshold limit, and subsequently in a second heating phase in which the pre-form has a thickness greater than or equal to the threshold thickness or a number of plies greater than or equal to the threshold limit; wherein in the first heating phase only the first heater is active; and wherein in the second heating phase at least the second heater is active.
An iron base , wherein an iron placing surface is provided on an upper end of the iron base , a fixing portion configured for clamping a rear end of an iron is provided at a rear portion of the iron placing surface , a clamping mechanism is configured to be rotatably connected with a front portion of the iron placing surface , the clamping mechanism is configured to rotate relative to the iron placing surface and has an open position and a clamping position, and the clamping mechanism is configured to clamp a front end of the iron when the clamping mechanism is at the clamping position wherein the clamping mechanism comprises a positioning boss and a positioning baffle , the positioning boss is configured to be rotatably connected to the front portion of the iron placing surface , the positioning baffle is provided at an end portion of the positioning boss away from the iron placing surface , the positioning boss is configured to be opposite to the fixing portion when the positioning boss is at the clamping position, the positioning baffle is configured to extend toward the fixing portion when the positioning baffle is at the clamping position, wherein the positioning baffle , the positioning boss and the iron placing surface enclose a positioning space for receiving the front end of the iron wherein, the fixing portion comprises a first limiting boss and a limiting baffle , the first limiting boss is provided at the rear portion of the iron placing surface , the limiting baffle is provided at an end portion of the first limiting boss away from the iron placing surface , the limiting baffle is configured to extend toward the front portion of the iron placing surface , wherein the limiting baffle , the first limiting boss and the iron placing surface enclose a limiting space for receiving the rear end of the iron , characterized in that , one second limiting boss respectively protrudes from each of two side portions of the iron placing surface , and the second limiting boss is configured to extend along a profile extension direction of the corresponding side portion, wherein an end of the second limiting boss facing the first limiting boss is connected to the first limiting boss , an end of the second limiting boss facing the clamping mechanism abuts against the clamping mechanism , wherein, the iron placing surface , the first limiting boss , the clamping mechanism , and two second limiting bosses enclose an iron placing groove . wherein the positioning boss comprises two ends extending along a profile extension direction of the front portion of the iron placing surface when the positioning boss is at the clamping position, one end is rotatably connected with the front portion of the iron placing surface , the other end is provided with a limiting groove on a surface facing the iron placing surface , the iron placing surface is further provided with a limiting projection at the front portion, and the limiting projection is clamped in the limiting groove .
A method , comprising: initiating , at a mobile device, a data transmission using a first radio access technology, RAT; starting , at the mobile device, a transmission timer at a first value; when the transmission timer expires , determining that data remains to be transmitted; in response to determining, at the mobile device, that data remains to be transmitted: suspending , at the mobile device, the data transmission; initiating , at the mobile device, a search for a second RAT for transmitting the remaining data, wherein the second RAT provides a higher data rate than the first RAT; detecting , at the mobile device, the second RAT during the search; and in response to detecting the second RAT: establishing, at the mobile device, a radio bearer using the second RAT; and transmitting , at the mobile device, the remaining data over the radio bearer using the second RAT; in response to not detecting the second RAT; resetting the transmission timer; and continuing to transmit the remaining data using the first RAT. initiating , at a mobile device, a data transmission using a first radio access technology, RAT; starting , at the mobile device, a transmission timer at a first value; when the transmission timer expires , determining that data remains to be transmitted; in response to determining, at the mobile device, that data remains to be transmitted: suspending , at the mobile device, the data transmission; initiating , at the mobile device, a search for a second RAT for transmitting the remaining data, wherein the second RAT provides a higher data rate than the first RAT; detecting , at the mobile device, the second RAT during the search; and in response to detecting the second RAT: establishing, at the mobile device, a radio bearer using the second RAT; and suspending , at the mobile device, the data transmission; initiating , at the mobile device, a search for a second RAT for transmitting the remaining data, wherein the second RAT provides a higher data rate than the first RAT; detecting , at the mobile device, the second RAT during the search; and in response to detecting the second RAT: establishing, at the mobile device, a radio bearer using the second RAT; and transmitting , at the mobile device, the remaining data over the radio bearer using the second RAT; in response to not detecting the second RAT; resetting the transmission timer; and continuing to transmit the remaining data using the first RAT.
A joining structure (1, 1A - 1F) comprising: a first resin sheet (21, 21A - 21D) comprising a first resin; a second resin sheet comprising a second resin; and a joint (10, 10A - 10F) formed by mating and welding a principal surface portion of the first resin sheet (21, 21A - 21D) and an end surface portion of the second resin sheet , the first resin being a foamed resin, the second resin being a non-foamed or foamed resin, the joint (10, 10A - 10F) having a weld recess (25, 25A - 25F) on a top surface , characterized in that the joint (10, 10A - 10F) comprises a weld overlay portion formed at an inside corner on a bottom surface by allowing, out of the first and second resins, at least the first resin to melt, flow, and solidify. the first resin being a foamed resin, the second resin being a non-foamed or foamed resin, the joint (10, 10A - 10F) having a weld recess (25, 25A - 25F) on a top surface , characterized in that the joint (10, 10A - 10F) comprises a weld overlay portion formed at an inside corner on a bottom surface by allowing, out of the first and second resins, at least the first resin to melt, flow, and solidify.
An end-effector, comprising: a clamp arm ; and an ultrasonic blade configured to acoustically couple to an ultrasonic transducer and to electrically couple a pole of an electrical generator; wherein the clamp arm comprises: a clamp jaw ; a cantilever electrode configured to electrically couple to an opposite pole of the electrical generator, wherein the cantilever electrode is fixed to the clamp jaw at a proximal end and free to deflect at a distal end; and an I-beam shaped clamp arm pad , wherein the clamp arm pad defines top and bottom lateral portions separated by a mesial portion to define the shape of an "I", wherein the cantilever electrode is disposed between the top and bottom lateral portions of the I-beam shaped clamp arm pad. a clamp arm ; and an ultrasonic blade configured to acoustically couple to an ultrasonic transducer and to electrically couple a pole of an electrical generator; wherein the clamp arm comprises: a clamp jaw ; a cantilever electrode configured to electrically couple to an opposite pole of the electrical generator, wherein the cantilever electrode is fixed to the clamp jaw at a proximal end and free to deflect at a distal end; and an I-beam shaped clamp arm pad , wherein the clamp arm pad defines top and bottom lateral portions separated by a mesial portion to define the shape of an "I", wherein the cantilever electrode is disposed between the top and bottom lateral portions of the I-beam shaped clamp arm pad. a clamp jaw ; a cantilever electrode configured to electrically couple to an opposite pole of the electrical generator, wherein the cantilever electrode is fixed to the clamp jaw at a proximal end and free to deflect at a distal end; and an I-beam shaped clamp arm pad , wherein the clamp arm pad defines top and bottom lateral portions separated by a mesial portion to define the shape of an "I", wherein the cantilever electrode is disposed between the top and bottom lateral portions of the I-beam shaped clamp arm pad.
Battery arrangement for the load-bearing structural integration of batteries into a vehicle, especially an aircraft or spacecraft , having: two cover plates having battery holders ; and a multiplicity of batteries , which are held on both sides between the cover plates by the battery holders , wherein the batteries are arranged in battery rows along the cover plates , wherein the batteries in the battery rows are each aligned at a slope angle (α) relative to the cover plates in order to absorb and transmit loads, wherein the slope angle (α) in the battery rows has positive and negative values, wherein the magnitude of the slope angle (α) has values greater than 0° and less than 90°. two cover plates having battery holders ; and a multiplicity of batteries , which are held on both sides between the cover plates by the battery holders , wherein the batteries are arranged in battery rows along the cover plates , wherein the batteries in the battery rows are each aligned at a slope angle (α) relative to the cover plates in order to absorb and transmit loads, wherein the slope angle (α) in the battery rows has positive and negative values, wherein the magnitude of the slope angle (α) has values greater than 0° and less than 90°.
An IC chip mounting apparatus comprising: a conveyor configured to convey an antenna continuous body (AS) on a conveying surface, the antenna continuous body (AS) having a base material (BM) and plural inlay antennas (AN) continuously formed on the base material; an IC chip placement unit configured to place an IC chip (C) on a photo-curable adhesive that is located on a reference position (Pref) of each antenna (AN) in the antenna continuous body (AS); a light irradiator configured to irradiate, with light, the adhesive of each antenna (AN) of the antenna continuous body (AS) that is conveyed by the conveyor ; and a press unit that moves in a direction orthogonal to the conveying surface, the press unit being configured to press the IC chip (C) on the adhesive, wherein the light irradiator is configured to irradiate the adhesive of each antenna (AN) with the light, while the IC chip (C) on the adhesive is pressed to the antenna (AN), characterized in that the press unit includes a pressing part with a pressing surface attached to the bottom thereof, the pressing surface being made of glass, wherein the pressing surface transmits ultraviolet light used to irradiate the IC chip (C) while it is being pressed to the antenna (AN), and the press unit is open at a side surface facing the light irradiator , allowing direct irradiation of the IC chip (C) through the pressing surface . a conveyor configured to convey an antenna continuous body (AS) on a conveying surface, the antenna continuous body (AS) having a base material (BM) and plural inlay antennas (AN) continuously formed on the base material; an IC chip placement unit configured to place an IC chip (C) on a photo-curable adhesive that is located on a reference position (Pref) of each antenna (AN) in the antenna continuous body (AS); a light irradiator configured to irradiate, with light, the adhesive of each antenna (AN) of the antenna continuous body (AS) that is conveyed by the conveyor ; and a press unit that moves in a direction orthogonal to the conveying surface, the press unit being configured to press the IC chip (C) on the adhesive, wherein the light irradiator is configured to irradiate the adhesive of each antenna (AN) with the light, while the IC chip (C) on the adhesive is pressed to the antenna (AN), characterized in that the press unit includes a pressing part with a pressing surface attached to the bottom thereof, the pressing surface being made of glass, wherein the pressing surface transmits ultraviolet light used to irradiate the IC chip (C) while it is being pressed to the antenna (AN), and the press unit is open at a side surface facing the light irradiator , allowing direct irradiation of the IC chip (C) through the pressing surface .
A vehicle safety assist system for a host vehicle , the vehicle safety assist system comprising: - one or more long range sensors arranged to determine vehicles (A, B) travelling ahead of the host vehicle ; - a sensor information processor arranged to process sensor information and issue instructions based thereupon and - a driver warning and brake control system arranged to selectively provide a driver warning or perform autonomous braking in response to instructions from the sensor information processor , - wherein the one or more long range sensors is/are arranged to determine vehicles (A, B) travelling within a sensor coverage area ahead of the host vehicle ; - characterized in that - the sensor information processor is arranged to determine, from host vehicle velocity sensor data, if the host vehicle is travelling above at least one predetermined threshold velocity; - the sensor information processor is arranged to determine if a relative deceleration of at least one determined vehicle (A, B) travelling ahead of the host vehicle is above at least one predetermined threshold deceleration and to determine the strength or confidence of this determination; - the driver warning and brake control system is arranged to provide a driver warning or perform autonomous braking in response to instructions from the sensor information processor based on the above determinations. - one or more long range sensors arranged to determine vehicles (A, B) travelling ahead of the host vehicle ; - a sensor information processor arranged to process sensor information and issue instructions based thereupon and - a driver warning and brake control system arranged to selectively provide a driver warning or perform autonomous braking in response to instructions from the sensor information processor , - wherein the one or more long range sensors is/are arranged to determine vehicles (A, B) travelling within a sensor coverage area ahead of the host vehicle ; - characterized in that - the sensor information processor is arranged to determine, from host vehicle velocity sensor data, if the host vehicle is travelling above at least one predetermined threshold velocity; - the sensor information processor is arranged to determine if a relative deceleration of at least one determined vehicle (A, B) travelling ahead of the host vehicle is above at least one predetermined threshold deceleration and to determine the strength or confidence of this determination; - the driver warning and brake control system is arranged to provide a driver warning or perform autonomous braking in response to instructions from the sensor information processor based on the above determinations.
A process for producing α,β-ethylenically unsaturated carboxylic acids by two-stage catalytic gas phase oxidation of alkenes, in which a) a gas stream comprising at least one alkene, in a first reactor (A) in the presence of oxygen, is subjected to a first catalytic oxidation reaction over a first catalyst (K1) in the form of a multimetal oxide of molybdenum to obtain a gas stream comprising at least one α,β-ethylenically unsaturated aldehyde, b) the gas stream comprising at least one α,β-ethylenically unsaturated aldehyde is directed through a connecting conduit (V) into a second reactor (B) and c) the gas stream comprising at least one α,β-ethylenically unsaturated aldehyde, in the second reactor (B) in the presence of oxygen, is subjected to a second catalytic oxidation reaction over a second catalyst (K2) to obtain a gas stream comprising at least one α,β-ethylenically unsaturated carboxylic acid, wherein the gas stream comprising at least one α,β-ethylenically unsaturated aldehyde is directed through an exchangeable structure (S) with high specific surface area of at least 400 m 2 /m 3 which is disposed in the connecting conduit (V). a) a gas stream comprising at least one alkene, in a first reactor (A) in the presence of oxygen, is subjected to a first catalytic oxidation reaction over a first catalyst (K1) in the form of a multimetal oxide of molybdenum to obtain a gas stream comprising at least one α,β-ethylenically unsaturated aldehyde, b) the gas stream comprising at least one α,β-ethylenically unsaturated aldehyde is directed through a connecting conduit (V) into a second reactor (B) and c) the gas stream comprising at least one α,β-ethylenically unsaturated aldehyde, in the second reactor (B) in the presence of oxygen, is subjected to a second catalytic oxidation reaction over a second catalyst (K2) to obtain a gas stream comprising at least one α,β-ethylenically unsaturated carboxylic acid,