mhurhangee/ep-ind-claims huggingface dataset:
A displacement measuring device, comprising: a light projecting part configured to generate light; a sensor head configured to irradiate a measurement target with the light and to receive light reflected by a measurement target surface of the measurement target from the irradiated light; and a control part configured to calculate a value (L1(i), L2(i), L3(i), L4(i)) indicating a distance (L1(i), L2(i), L3(i), L4(i)) to the measurement target surface (811, 812, 813, 814) on the basis of the light received by the sensor head, wherein the control part is configured to process the calculated value (L1(i), L2(i), L3(i), L4(i)) as the value (L1(i), L2(i), L3(i), L4(i)) indicating the distance (L1(i), L2(i), L3(i), L4(i)) to the measurement target surface (811, 812, 813, 814) on condition that the calculated value (L1(i), L2(i), L3(i), L4(i)) is included in a preset numerical range (R1(i), R2(i), R3(i), R4(i)), wherein the displacement measuring device is characterized in that the control part is further configured to reset the preset numerical range (R1(i), R2(i), R3(i), R4(i)) to a new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)) such that a width of the preset numerical range (R1(i), R2(i), R3(i), R4(i)) and a width of the new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)) are equal, and the calculated value (L1(i), L2(i), L3(i), L4(i)) is a middle value of the new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)). a light projecting part configured to generate light; a sensor head configured to irradiate a measurement target with the light and to receive light reflected by a measurement target surface of the measurement target from the irradiated light; and a control part configured to calculate a value (L1(i), L2(i), L3(i), L4(i)) indicating a distance (L1(i), L2(i), L3(i), L4(i)) to the measurement target surface (811, 812, 813, 814) on the basis of the light received by the sensor head, wherein the control part is configured to process the calculated value (L1(i), L2(i), L3(i), L4(i)) as the value (L1(i), L2(i), L3(i), L4(i)) indicating the distance (L1(i), L2(i), L3(i), L4(i)) to the measurement target surface (811, 812, 813, 814) on condition that the calculated value (L1(i), L2(i), L3(i), L4(i)) is included in a preset numerical range (R1(i), R2(i), R3(i), R4(i)), wherein the displacement measuring device is characterized in that the control part is further configured to reset the preset numerical range (R1(i), R2(i), R3(i), R4(i)) to a new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)) such that a width of the preset numerical range (R1(i), R2(i), R3(i), R4(i)) and a width of the new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)) are equal, and the calculated value (L1(i), L2(i), L3(i), L4(i)) is a middle value of the new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)).
A multi-layer material for a vehicle body or hull, vessel hull, or aircraft fuselage, the multi-layer material providing blast and projectile impact protection, comprising: an outermost layer comprising ceramic tiles, wherein said outermost layer includes an impact receiving side and an inner side, wherein a projectile impacting the multi-layer material proceeds from said impact receiving side of said outermost layer in an inward direction toward said inner side; an innermost layer comprising ballistic material selected from the group consisting of aramid fibers, aromatic polyamide fibers and ultra-high molecular weight polyethylene, wherein said innermost layer is spaced apart inwardly from said inner side of said outermost layer; a polymeric honeycomb layer; a steel layer; a composite layer comprising carbon fiber and glass fiber, wherein said composite layer has a non-uniform fiber volume fraction; and an air gap layer disposed between said innermost layer and said composite layer, wherein said steel layer is disposed between said composite layer and said polymeric honeycomb layer and said polymeric honeycomb layer is disposed between said steel layer and said inner side of said outermost layer. an outermost layer comprising ceramic tiles, wherein said outermost layer includes an impact receiving side and an inner side, wherein a projectile impacting the multi-layer material proceeds from said impact receiving side of said outermost layer in an inward direction toward said inner side; an innermost layer comprising ballistic material selected from the group consisting of aramid fibers, aromatic polyamide fibers and ultra-high molecular weight polyethylene, wherein said innermost layer is spaced apart inwardly from said inner side of said outermost layer; a polymeric honeycomb layer; a steel layer; a composite layer comprising carbon fiber and glass fiber, wherein said composite layer has a non-uniform fiber volume fraction; and an air gap layer disposed between said innermost layer and said composite layer, wherein said steel layer is disposed between said composite layer and said polymeric honeycomb layer and said polymeric honeycomb layer is disposed between said steel layer and said inner side of said outermost layer.
A scissor lift comprising a support base, the support base including front wheels, rear wheels, a chassis, and a pothole protection assembly; the pothole protection assembly comprising: a pair of front pothole bars immovably fixed to the chassis and each positioned adjacent the front wheels, respectively; and a pair of rear pothole bars immovably fixed to the chassis and each positioned adjacent the rear wheels, respectively, a front inner frame plate integrated with the chassis adjacent an inside surface of each of the front wheels, and which protrudes to the underside of the chassis so as to catch an edge of a pothole in a case that the front wheel falls into the pothole; and wherein a space between the front wheels and the rear wheels defines a ground clearance zone, and wherein the front pothole bars and the rear pothole bars are disposed at opposing ends of the ground clearance zone, characterised by a rear inner frame plate integrated with the chassis adjacent an inside surface of each of the rear wheels, and which protrudes to the underside of the chassis so as to catch the edge of the pothole in a case that the rear wheel falls into the pothole; wherein the front inner frame plates and the rear inner frame plates are positioned within a profile of the front wheels and the rear wheels, respectively. a pair of front pothole bars immovably fixed to the chassis and each positioned adjacent the front wheels, respectively; and a pair of rear pothole bars immovably fixed to the chassis and each positioned adjacent the rear wheels, respectively, a front inner frame plate integrated with the chassis adjacent an inside surface of each of the front wheels, and which protrudes to the underside of the chassis so as to catch an edge of a pothole in a case that the front wheel falls into the pothole; and wherein a space between the front wheels and the rear wheels defines a ground clearance zone, and wherein the front pothole bars and the rear pothole bars are disposed at opposing ends of the ground clearance zone, characterised by a rear inner frame plate integrated with the chassis adjacent an inside surface of each of the rear wheels, and which protrudes to the underside of the chassis so as to catch the edge of the pothole in a case that the rear wheel falls into the pothole; wherein the front inner frame plates and the rear inner frame plates are positioned within a profile of the front wheels and the rear wheels, respectively.
A method for manufacturing a pneumatic tire having a step of lap splicing end parts of a laminate sheet comprising a sheet obtained from a thermoplastic resin or a thermoplastic resin composition of a thermoplastic resin blended with an elastomer laminated with a rubber that undergoes vulcanizing adhesion with the thermoplastic resin or the thermoplastic resin composition, wherein, after the sheet obtained from the thermoplastic resin or the thermoplastic resin composition is cut into lengths to be supplied to the lap-splicing step, and at a stage before a tire vulcanization molding step, distal end parts of the sheet obtained from the thermoplastic resin or the thermoplastic resin composition are sharpened with a thermal treatment, wherein a temperature of the thermal treatment is at or above the melting point of the thermoplastic resin or the thermoplastic resin composition.
Fill level measuring device operating according to the radar principle having at least one transceiver unit for transmitting and receiving electromagnetic signals and having at least one antenna for guiding, radiating and receiving electromagnetic signals, wherein the antenna has at least one interior space, and wherein the antenna is characterized by a transmission characteristic with regard to the transmission of electromagnetic signals, wherein the interior space is the inner space within the antenna of the fill level measuring device between a first seal facing the medium and a second seal facing, for example, the surroundings, electronics components or a remote control station, characterized in that at least one wall section of the interior space consists at least partially of a ceramic - having, in particular, a low permittivity, that the wall section is part of the first seal in the direction of the process medium and that the wall section consists at least partly of a composite material, and that the wall portion consists at least partially of a bound ceramic material in a metallic matrix.
A method for coordinating, by a base station, station-to-station transmissions and access point-to station transmissions, comprising: associating with a first access point a group of devices intending to communicate with other devices associated with the first access point; receiving, from a first station of the group of devices, a peer request to send message requesting a first time for transmissions with a second station of the group of devices; reserving, by the base station, the first time for transmissions between the first station and the second station comprising assigning the first time for communications between stations in the group of devices and a time other than the first time for communications between an access point and stations not in the group of devices; transmitting, by the base station, a coordination message to the first station and the second station, the coordination message indicating that the first time is reserved for transmissions between the first station and the second station; and transmitting, by the base station, a first data packet to a third station not in the group of devices during the time other than the first time, the first station transmitting a second data packet to the second station during the first time. associating with a first access point a group of devices intending to communicate with other devices associated with the first access point; receiving, from a first station of the group of devices, a peer request to send message requesting a first time for transmissions with a second station of the group of devices; reserving, by the base station, the first time for transmissions between the first station and the second station comprising assigning the first time for communications between stations in the group of devices and a time other than the first time for communications between an access point and stations not in the group of devices; transmitting, by the base station, a coordination message to the first station and the second station, the coordination message indicating that the first time is reserved for transmissions between the first station and the second station; and transmitting, by the base station, a first data packet to a third station not in the group of devices during the time other than the first time, the first station transmitting a second data packet to the second station during the first time.
Apparatus for transmitting signals comprising - a first component on which an optical transmitter is arranged, and - a second component on which an optical receiver is arranged, wherein a transmission housing extends between the first component and the second component, which transmission housing forms an information transmission chamber (6, 7) in which the transmitter and the receiver are arranged and thus coupled to one another, and wherein means for transmitting energy between the first and the second component (2, 3) are arranged in the transmission housing, characterized in that the means for transmitting energy are designed as a transformer cast in the transmission housing. - a first component on which an optical transmitter is arranged, and - a second component on which an optical receiver is arranged,
A cutting insert, comprising: an upper surface; a lower surface; a side surface connected to the upper surface and the lower surface; and a cutting edge (5, 51-53) which is located at an intersection of the upper surface and the side surface, and comprises a major cutting edge and a flat cutting edge, the major cutting edge comprising: a bent section protruding outward in a top view; a major cutting section which is connected to one of both ends of the bent section close to the flat cutting edge, has a concave shape, and is inclined downward as a straight line connecting both ends thereof is further away from the flat cutting edge in a side view; characterized in that, a raised section which is connected to the other end of the bent section, and is inclined to locate at a higher position away from the flat cutting edge in the side view. an upper surface; a lower surface; a side surface connected to the upper surface and the lower surface; and a cutting edge (5, 51-53) which is located at an intersection of the upper surface and the side surface, and comprises a major cutting edge and a flat cutting edge, the major cutting edge comprising: a bent section protruding outward in a top view; a major cutting section which is connected to one of both ends of the bent section close to the flat cutting edge, has a concave shape, and is inclined downward as a straight line connecting both ends thereof is further away from the flat cutting edge in a side view; characterized in that, a raised section which is connected to the other end of the bent section, and is inclined to locate at a higher position away from the flat cutting edge in the side view. a bent section protruding outward in a top view; a major cutting section which is connected to one of both ends of the bent section close to the flat cutting edge, has a concave shape, and is inclined downward as a straight line connecting both ends thereof is further away from the flat cutting edge in a side view; characterized in that, a raised section which is connected to the other end of the bent section, and is inclined to locate at a higher position away from the flat cutting edge in the side view.
An intravascular imaging device comprising: a flexible elongate member sized and shaped for insertion into a vessel of a patient, the flexible elongate member comprising a proximal portion and a distal portion; an imaging assembly disposed at the distal portion of the flexible elongate member, the imaging assembly including: a flex circuit; a conductor extending along the flexible elongate member; and characterized by a support member around which the flex circuit is positioned, the support member including a conductive portion (304, 306) configured to electrically couple the conductor to the flex circuit within an interior of the imaging assembly. a flexible elongate member sized and shaped for insertion into a vessel of a patient, the flexible elongate member comprising a proximal portion and a distal portion; an imaging assembly disposed at the distal portion of the flexible elongate member, the imaging assembly including: a flex circuit; a conductor extending along the flexible elongate member; and characterized by a support member around which the flex circuit is positioned, the support member including a conductive portion (304, 306) configured to electrically couple the conductor to the flex circuit within an interior of the imaging assembly. a flex circuit; a conductor extending along the flexible elongate member; and characterized by a support member around which the flex circuit is positioned, the support member including a conductive portion (304, 306) configured to electrically couple the conductor to the flex circuit within an interior of the imaging assembly.
A method for preparing polyester resin, comprising the steps of: carrying out an esterification reaction of acid components and diol components at the increased pressure of 0.2 ∼ 3.0 kg/cm 2 and the temperature of 240 ∼ 260°C during an average retention time of 2 ∼ 10 hours, wherein the mole ratio of the total diol components with respect to the total of dicarboxylic acid components is controlled to 1.05 ∼ 3.0; and carrying out a polycondensation reaction for a product of the esterification reaction at the reduced pressure of 400 ∼ 0.1 mmHg and at the temperature of 240 ∼ 300 °C during an average retention time of 1 ∼ 10 hours, wherein the acid components comprise terephthalic acid, and the diol components comprise (i) 5 ∼ 99 mol% of 1,4-cyclohexanedimethanol and (ii) 1 ∼ 60 mol% of isosorbide and (iii) the remainder being ethylene glycol with respect to the total diol components. carrying out an esterification reaction of acid components and diol components at the increased pressure of 0.2 ∼ 3.0 kg/cm 2 and the temperature of 240 ∼ 260°C during an average retention time of 2 ∼ 10 hours, wherein the mole ratio of the total diol components with respect to the total of dicarboxylic acid components is controlled to 1.05 ∼ 3.0; and carrying out a polycondensation reaction for a product of the esterification reaction at the reduced pressure of 400 ∼ 0.1 mmHg and at the temperature of 240 ∼ 300 °C during an average retention time of 1 ∼ 10 hours, wherein the acid components comprise terephthalic acid, and the diol components comprise (i) 5 ∼ 99 mol% of 1,4-cyclohexanedimethanol and (ii) 1 ∼ 60 mol% of isosorbide and (iii) the remainder being ethylene glycol with respect to the total diol components.
A system for controlling a device for cleaning a vehicle window, said device being arranged to perform a first cleaning function, suitable for example for a standard cleaning of dust, and at least one second cleaning function, intended for clearing the window of a determined material, in particular ice, snow or insects, adhering to the outer surface of said window, comprising at least one sensor arranged to provide information on the presence of said material on at least one portion of the outer surface of the window and a first electronic means arranged to transmit commands for executing functions of the cleaning device and communicating with the latter, the system being arranged so that the first electronic means transmits a first command for executing the second function by performing, with the data of said at least one sensor, an identification of the presence or of the absence of said material and not activating the second function if it identifies the absence of said material, the system being characterized in that it is arranged so that, the first electronic means, after having identified the presence of said material, checks, with the data of said at least one sensor, that the quantity of said material present on the outer surface of the window is not too great for the execution of the second function by the cleaning device, and does not activate the second function if the quantity of said material is greater than a predetermined threshold value.
An electric discharge machine configured to perform electric discharge machining on a workpiece in a working fluid stored in a work-pan, comprising: a measurement pipe coupled to the work-pan and having an air space inside; and a pressure sensor configured to detect a pressure at the air space; characterized in that the electric discharge machine further includes a working fluid supply portion (72, 72A, 72B) configured to supply the working fluid to the measurement pipe, wherein the working fluid supply portion (72, 72A) is a pipe that branches off from a supply pipe (62, 66) of a dielectric fluid unit configured to remove, from the working fluid, sludge produced in the work-pan and return the sludge-removed working fluid back to the work-pan, the pipe being connected to the measurement pipe. a measurement pipe coupled to the work-pan and having an air space inside; and a pressure sensor configured to detect a pressure at the air space; characterized in that the electric discharge machine further includes a working fluid supply portion (72, 72A, 72B) configured to supply the working fluid to the measurement pipe, wherein the working fluid supply portion (72, 72A) is a pipe that branches off from a supply pipe (62, 66) of a dielectric fluid unit configured to remove, from the working fluid, sludge produced in the work-pan and return the sludge-removed working fluid back to the work-pan, the pipe being connected to the measurement pipe.
A fluid connector apparatus for tubing comprising: a male connector having a dome at a distal end of the male connector, a fluid channel extending through the dome to a proximal end of the male connector, and a first coupling structure to couple the male connector to a female connector; and a female connector having a cavity at a distal end which is sized and shaped to mate with the dome of the male connector, a fluid channel extending from the cavity to a proximal end of the female connector, and a second coupling structure to couple the female connector to the male connector, wherein the fluid channels (24,44)of the male and female connectors form a continuous fluid channel when the male and female connectors are coupled together, characterized in that one of the coupling structures comprises a pair of extending arms (30a, 30b), and the other of the coupling structures comprises a pair of undercuts (54a, 54b) into which the arms fit when the male and female connectors are coupled together, the male and female connectors being coupled together by inserting the dome into the cavity and axially rotating at least one of the connectors with respect to the other connector. a male connector having a dome at a distal end of the male connector, a fluid channel extending through the dome to a proximal end of the male connector, and a first coupling structure to couple the male connector to a female connector; and a female connector having a cavity at a distal end which is sized and shaped to mate with the dome of the male connector, a fluid channel extending from the cavity to a proximal end of the female connector, and a second coupling structure to couple the female connector to the male connector, wherein the fluid channels (24,44)of the male and female connectors form a continuous fluid channel when the male and female connectors are coupled together, characterized in that one of the coupling structures comprises a pair of extending arms (30a, 30b), and the other of the coupling structures comprises a pair of undercuts (54a, 54b) into which the arms fit when the male and female connectors are coupled together, the male and female connectors being coupled together by inserting the dome into the cavity and axially rotating at least one of the connectors with respect to the other connector.