mhurhangee/ep-ind-claims huggingface dataset:
A formable orthopedic device having at least one first configuration and at least one second configuration, the second configuration being adapted to provide support to at least one limb, the device being made of a thermoplastic polymeric material having a glass transition temperature (Tg) of between 65°C and 120°C, the device being capable to be formed into the second configuration by heating the device to said Tg, characterized in that the thermoplastic polymeric material is selected to have an elastic modulus of at least 1500 MPa when measured according to ASTM D638-14 (15 December 2014) and elongation to break of at least 75% when measured according to ASTM D638-14 (15 December 2014), the device being a single layered transparent orthopedic device being re-formable upon heating to the Tg.
Burst pressure monitoring device intended to be employed in a pressure transmitter, said pressure transmitter comprising a body, an inlet duct formed on the body and intended to receive a fluid, a sensor member on which the inlet duct emerges, said sensor member being intended to measure a pressure and to deliver an output electrical signal representative of the measured pressure, said burst pressure monitoring device being intended to be positioned inside the inlet duct of the pressure transmitter and being characterized in that it comprises two identical parts (21a, 21b) each having the form of a half-cylinder comprising at least one internal protuberance and one notch, the two parts being assembled together head-to-tail in such a way that a protuberance of one part is fitted into a notch of the other part so as to form an internal fluid flow channel comprising one or more successive chicanes.
A thermal printer, comprising: a head unit including a thermal head configured to perform printing on a recording sheet; a platen unit, which includes a platen roller configured to convey the recording sheet, and is separably combined with the head unit; a printer main body, which has a recording-sheet receiving portion configured to receive the recording sheet, and has the head unit mounted thereto; and a printer cover, which has the platen unit mounted thereto, and is coupled to the printer main body so as to be pivotable, characterised in that the thermal printer further comprising a separator, which is provided in the recording-sheet receiving portion, and is configured to separate parts of the recording sheet, which is rolled into a roll shape around a core body, folded on each other at a rolling start portion, which is rolled around the core body and has a turn-back shape. a head unit including a thermal head configured to perform printing on a recording sheet; a platen unit, which includes a platen roller configured to convey the recording sheet, and is separably combined with the head unit; a printer main body, which has a recording-sheet receiving portion configured to receive the recording sheet, and has the head unit mounted thereto; and a printer cover, which has the platen unit mounted thereto, and is coupled to the printer main body so as to be pivotable, characterised in that the thermal printer further comprising a separator, which is provided in the recording-sheet receiving portion, and is configured to separate parts of the recording sheet, which is rolled into a roll shape around a core body, folded on each other at a rolling start portion, which is rolled around the core body and has a turn-back shape.
Electromagnetically compensating beam scale, comprising a two-armed, rotatably mounted transmission lever, each lever arm of which is coupled to an associated load receiver (70a,b) and which has, at least on one side, an actuator (20a,b; 21a,b) integrated in a closed control loop, wherein each load receiver (70a,b) will be or is guided linearly in the vertical direction by means of a lever mechanism, characterized in that the lever mechanism is in each case embodied as a parallel crank comprising an upper parallel link fixed to the frame and connected in an articulated manner via a coupling element (50a,b), a lower parallel link, the load receiver and an upper parallel link, a lower parallel link and the load receiver.
Method of communicating between a transmitter and a receiver based on frames, comprising the steps of: • adding an error detection code to each frame to be transmitted by the transmitter; • transmitting the frames by a transmitter and receiving the transmitted frames by the receiver; • re-computing an error detection code based on received frames by the receiver; • acknowledging (ACK or AFC) at least one frame correctly received based on a comparison of the error detection code of each frame with the recomputed error detection code of each received frame by the receiver; • sending an error-indication frame by the receiver when an error is detected based on the comparison result; characterized in that if a retransmission condition is detected by the transmitter by receiving an error indication frame or if no acknowledgement frame (ACK or AFC) from the receiver was received by the transmitter in a predetermined time interval, the currently transmitted frame is immediately aborted without waiting for an end of frame condition, and unacknowledged frames are retransmitted by the transmitter, at least one unused escape value (ESC_DL2) being used to indicate a start of a frame retransmission. • adding an error detection code to each frame to be transmitted by the transmitter; • transmitting the frames by a transmitter and receiving the transmitted frames by the receiver; • re-computing an error detection code based on received frames by the receiver; • acknowledging (ACK or AFC) at least one frame correctly received based on a comparison of the error detection code of each frame with the recomputed error detection code of each received frame by the receiver; • sending an error-indication frame by the receiver when an error is detected based on the comparison result;
A dynamic tone mapping method, comprising: acquiring maximum brightness information and average brightness information of a frame to be displayed on the display terminal; characterized in that, determining whether there is a group of tone mapping data in a preset tone mapping look-up table that corresponds to the maximum brightness information and the average brightness information, wherein the preset tone mapping look-up table is obtained by generating a plurality of groups of tone mapping data with different dynamic ranges and different average brightness based on a dynamic range specification of a high dynamic range hardware, and storing the generated groups of tone mapping data; if yes, using the group of tone mapping data corresponding to the maximum brightness information and the average brightness information to transform the tone mapping on the frame to be displayed on the display terminal; and if no, determining whether there is a group of tone mapping data adjacent to the maximum brightness information and the average brightness information; if there is no group of tone mapping data adjacent to the maximum brightness information and the average brightness information, generating a new group of tone mapping data according to the maximum brightness information and the average brightness information; and storing the maximum brightness information, the average brightness information, and a corresponding dynamic range and average brightness information in the new group of tone mapping data, into the tone mapping look-up table. acquiring maximum brightness information and average brightness information of a frame to be displayed on the display terminal; characterized in that, determining whether there is a group of tone mapping data in a preset tone mapping look-up table that corresponds to the maximum brightness information and the average brightness information, wherein the preset tone mapping look-up table is obtained by generating a plurality of groups of tone mapping data with different dynamic ranges and different average brightness based on a dynamic range specification of a high dynamic range hardware, and storing the generated groups of tone mapping data; if yes, using the group of tone mapping data corresponding to the maximum brightness information and the average brightness information to transform the tone mapping on the frame to be displayed on the display terminal; and if no, determining whether there is a group of tone mapping data adjacent to the maximum brightness information and the average brightness information; if there is no group of tone mapping data adjacent to the maximum brightness information and the average brightness information, generating a new group of tone mapping data according to the maximum brightness information and the average brightness information; and storing the maximum brightness information, the average brightness information, and a corresponding dynamic range and average brightness information in the new group of tone mapping data, into the tone mapping look-up table.
Method for the computer-aided planning of an electrical system, in which - components (2..11, S1..S6, I1..I3), which are provided in the electrical system, are detected by a computer and - a hazard potential is determined and displayed by the computer based on at least one arc-energy parameter (Y E1, Y E2) of the electrical system or on the basis of an expected arc energy in the electrical system, which specifies the energy of an arc occurring in the electrical system and which is determined from the at least one arc-energy parameter (Y E1, y E2), characterized in that - for determining the hazard potential, additionally at least one arc probability parameter (Y P) of the electrical system or an expected arc probability, which indicates the probability of occurrence of an arc in the electrical system and which is determined from the at least one arc probability parameter (Y P), is used by the computer. - components (2..11, S1..S6, I1..I3), which are provided in the electrical system, are detected by a computer and - a hazard potential is determined and displayed by the computer based on at least one arc-energy parameter (Y E1, Y E2) of the electrical system or on the basis of an expected arc energy in the electrical system, which specifies the energy of an arc occurring in the electrical system and which is determined from the at least one arc-energy parameter (Y E1, y E2), - for determining the hazard potential, additionally at least one arc probability parameter (Y P) of the electrical system or an expected arc probability, which indicates the probability of occurrence of an arc in the electrical system and which is determined from the at least one arc probability parameter (Y P), is used by the computer.
A hole plug (100, 1104), comprising: a flange (108, 1110) having a first diameter (D 1), wherein the flange (108, 1110) is positioned at a first end of the hole plug (100, 1104); a bevel (112, 1112) extending from, and intersecting, the flange (108, 1110) at an angle; a shank (114, 1114) extending from the bevel (112, 1112) away from the flange (108, 1110) to a second end of the hole plug (100, 1104) opposite the first end, the shank (114, 1114) comprising: a second diameter (D 4) that is smaller than the first diameter (D 1); and a plurality of longitudinal grooves (118, 1118) defined by the shank (114, 1114) and oriented around an exterior of the shank (114, 1114); and a plurality of nubs (122, 1120) positioned on, and extending from, the exterior of the shank (114, 1114), wherein the plurality of nubs (122, 1120) are positioned between the plurality of longitudinal grooves (118, 1118) wherein: the plurality of nubs (122, 1120) each comprise a radius; and a tangent of each radius parallel to a longitudinal axis of the hole plug (100, 1104) intersects the flange (108, 1110) within the first diameter (D 1). a flange (108, 1110) having a first diameter (D 1), wherein the flange (108, 1110) is positioned at a first end of the hole plug (100, 1104); a bevel (112, 1112) extending from, and intersecting, the flange (108, 1110) at an angle; a shank (114, 1114) extending from the bevel (112, 1112) away from the flange (108, 1110) to a second end of the hole plug (100, 1104) opposite the first end, the shank (114, 1114) comprising: a second diameter (D 4) that is smaller than the first diameter (D 1); and a plurality of longitudinal grooves (118, 1118) defined by the shank (114, 1114) and oriented around an exterior of the shank (114, 1114); and a second diameter (D 4) that is smaller than the first diameter (D 1); and a plurality of longitudinal grooves (118, 1118) defined by the shank (114, 1114) and oriented around an exterior of the shank (114, 1114); and a plurality of nubs (122, 1120) positioned on, and extending from, the exterior of the shank (114, 1114), wherein the plurality of nubs (122, 1120) are positioned between the plurality of longitudinal grooves (118, 1118) wherein: the plurality of nubs (122, 1120) each comprise a radius; and a tangent of each radius parallel to a longitudinal axis of the hole plug (100, 1104) intersects the flange (108, 1110) within the first diameter (D 1). the plurality of nubs (122, 1120) each comprise a radius; and a tangent of each radius parallel to a longitudinal axis of the hole plug (100, 1104) intersects the flange (108, 1110) within the first diameter (D 1).
A method for determining a capacity of a boom combination for a crane having a variable position counterweight in an intermediate position, the method comprising: determining a boom combination of a crane having a variable position counterweight; determining a maximum capacity at a hook position for the boom combination; establishing a target value for an operating condition dependent on a balance of the crane between the variable position counterweight and a load on the hook; receiving an indication of an intermediate counterweight position; wherein the method is characterized by: calculating a load on the hook at the hook position for the boom combination and the intermediate counterweight position that results in the operating condition having the target value to determine an intermediate capacity; comparing the intermediate capacity with the maximum capacity; and outputting the lower of the maximum capacity and the intermediate capacity. determining a boom combination of a crane having a variable position counterweight; determining a maximum capacity at a hook position for the boom combination; establishing a target value for an operating condition dependent on a balance of the crane between the variable position counterweight and a load on the hook; receiving an indication of an intermediate counterweight position; calculating a load on the hook at the hook position for the boom combination and the intermediate counterweight position that results in the operating condition having the target value to determine an intermediate capacity; comparing the intermediate capacity with the maximum capacity; and outputting the lower of the maximum capacity and the intermediate capacity.
A wind turbine blade (10, 10', 10", 10′′′) extending along a longitudinal axis from a root end to a tip end and having cross-sections in transverse planes perpendicular to the longitudinal axis, each cross-section having a main axis extending through an elastic center, wherein the wind turbine blade comprises a blade shell forming a profiled contour including a pressure side and a suction side, as well as a leading edge (18, 56) and a trailing edge (20, 58) with a chord having a chord length extending there between, the main axis being parallel to the chord, wherein the profiled contour comprises a root region, an airfoil region and a transition region, and wherein the wind turbine blade comprises a sensor system including a first sensor set for measuring a first bending moment in a first sensor position in a first cross-section at a first distance from the root end, characterized in that the first sensor set only has a first primary sensor and a first secondary sensor for measuring the first bending moment, said first primary sensor for measuring a primary component and said first secondary sensor for measuring a secondary component, the first sensor set being arranged in the transition region or the airfoil region of the profiled contour, wherein a first primary sensor axis in the first cross-section is oriented in a direction defined by the first primary sensor and the elastic center of the first cross-section, and a first secondary sensor axis in the first cross-section is oriented in a direction defined by the first secondary sensor and the elastic center of the first cross-section, and wherein an angle (α 1) between the first primary sensor axis and the first secondary sensor axis is in the range from 85° to 95°, wherein the first primary sensor is positioned on the pressure side of the profiled contour.
An agricultural machine, comprising: a disk blade assembly including a hub and a disk blade mounted to said hub, said hub having a perimeter; and a scraper assembly including: a mount, a scraper blade and a hinge pivotally interconnecting said scraper blade with said mount, wherein said hinge having an axis of rotation which lies generally tangent to said perimeter of said disk blade hub, characterized in that said axis of rotation passes through an intersection point generally at or near a bottom of said hub perimeter and generally coincident with the disc blade.
A medical probe, comprising: a shaft for insertion into a cavity of an organ of a patient; an expandable membrane; and a probe maneuvering assembly, which is located inside the expandable membrane and comprises: a first elastic element, which is fitted along a longitudinal axis of the PMA and is configured to expand the membrane by shortening the PMA, and to collapse the membrane by elongating the PMA; and a second elastic element, which surrounds at least a portion of the first elastic element and is configured to deflect the membrane relative to the longitudinal axis. a shaft for insertion into a cavity of an organ of a patient; an expandable membrane; and a probe maneuvering assembly, which is located inside the expandable membrane and comprises: a first elastic element, which is fitted along a longitudinal axis of the PMA and is configured to expand the membrane by shortening the PMA, and to collapse the membrane by elongating the PMA; and a second elastic element, which surrounds at least a portion of the first elastic element and is configured to deflect the membrane relative to the longitudinal axis. a first elastic element, which is fitted along a longitudinal axis of the PMA and is configured to expand the membrane by shortening the PMA, and to collapse the membrane by elongating the PMA; and a second elastic element, which surrounds at least a portion of the first elastic element and is configured to deflect the membrane relative to the longitudinal axis.
Contact assembly for an electrical plug-in connector, having a sleeve-shaped contact element (4, 5) made of a metallic first material, wherein the contact element (4, 5) has a first lateral surface for making electrical and mechanical contact with a mating contact element (7, 8) of a mating electrical plug-in connector and a second lateral surface different from the first lateral surface, the contact assembly comprising a delimiting element, preferably made from a second material different from the first material, wherein the delimiting element is fastened to the second lateral surface of the contact element (4, 5) at least in certain portions, characterized in that the delimiting element has a higher high-temperature strength than the contact element (4, 5).
Oriented film comprising the composition 55 to 95 wt% tetrafluoroethylene/hexafluoropropylene/perfluoro(alkyl vinyl ether) copolymer and 45 to 5 wt% tetrafluoroethylene/perfluoro(alkyl vinyl ether) copolymer to total 100 wt% based on the combined weight thereof, wherein said alkyl in each said copolymer comprises 1 to 4 carbon atoms, and wherein hexafluoropropylene is not present in the tetrafluoroethylene/perfluoro(alkyl vinyl ether) copolymer.
Factory-mixed dry plaster mixture for sprayable insulation, comprising at least one binder and at least one aggregate, characterized in that the dry plaster mixture comprises - 36 to 52 wt.%, preferably 40 to 47 wt.%, micro hollow glass spheres or in sum 36 to 52 wt.%, preferably 40 to 47 wt.%, micro hollow glass spheres and aerogel, wherein the amount of aerogel in the dry plaster mixture is ≤ 30 wt.%, preferably ≤ 20 wt.%, and - 40 to 56 wt.%, preferably 45 to 53 wt.%, calcium sulfoaluminate cement of calcium sulfoaluminate clinker and at least one calcium sulfate component as activator for the calcium sulfoaluminate clinker. - 36 to 52 wt.%, preferably 40 to 47 wt.%, micro hollow glass spheres or in sum 36 to 52 wt.%, preferably 40 to 47 wt.%, micro hollow glass spheres and aerogel, wherein the amount of aerogel in the dry plaster mixture is ≤ 30 wt.%, preferably ≤ 20 wt.%, and - 40 to 56 wt.%, preferably 45 to 53 wt.%, calcium sulfoaluminate cement of calcium sulfoaluminate clinker and at least one calcium sulfate component as activator for the calcium sulfoaluminate clinker.
A metal foil pattern layered body comprising: a base member; a metal foil including a metal foil pattern formed by an opening and a metal portion, the metal foil pattern having a side portion; a protuberance provided at the metal foil and at a boundary between the opening and the metal portion; and an adhesive layer disposed above a top face of the base member, wherein the metal foil pattern is stacked in layers on the base member with the adhesive layer interposed therebetween, the protuberance is bended toward the base member and formed in the adhesive layer, the protuberance protrudes from the side portion of the metal foil pattern, the protuberance is provided with a first inclined surface and a second inclined surface, the protuberance has a front-end portion, the first inclined surface and the second inclined surface are connected to and intersect each other at the front-end portion, and the front-end portion reaches a boundary between the adhesive layer and the base member. a base member; a metal foil including a metal foil pattern formed by an opening and a metal portion, the metal foil pattern having a side portion; a protuberance provided at the metal foil and at a boundary between the opening and the metal portion; and an adhesive layer disposed above a top face of the base member, wherein the metal foil pattern is stacked in layers on the base member with the adhesive layer interposed therebetween, the protuberance is bended toward the base member and formed in the adhesive layer, the protuberance protrudes from the side portion of the metal foil pattern, the protuberance is provided with a first inclined surface and a second inclined surface, the protuberance has a front-end portion, the first inclined surface and the second inclined surface are connected to and intersect each other at the front-end portion, and the front-end portion reaches a boundary between the adhesive layer and the base member.
An ion-conducting membrane comprising: (i) a first ion-conducting layer comprising one or more first ion-conducting polymers; and (ii) a barrier layer comprising graphene-based platelets, and characterized in that the ion-conducting membrane has a total thickness of 5 to 200 μm and the barrier layer has a thickness of from 1 nm to 1 μm.
A method of forming a fiber comprising: subjecting a preform to a thermal drawing process to draw the preform into a fiber; and applying, at intervals, a compressive force to sections of the fiber along a length of the fiber during the thermal drawing process to reduce a dimension of the sections to form the fiber into an accordion-like fiber. subjecting a preform to a thermal drawing process to draw the preform into a fiber; and applying, at intervals, a compressive force to sections of the fiber along a length of the fiber during the thermal drawing process to reduce a dimension of the sections to form the fiber into an accordion-like fiber.