mhurhangee/ep-ind-claims huggingface dataset:
A tread rubber composition, comprising at least one rubber component including at least one styrene-butadiene copolymer, the tread rubber composition comprising, per 100 parts by mass of the rubber component, 1 to 100 parts by mass of at least one carbon black and 0 to 150 parts by mass of at least one silica, the tread rubber composition satisfying the following relationships and: 1.05 ≤ H 1 b / H 1 a ≤ 1.75 0.20 ≤ H 2 b / H 2 a ≤ 0.75 wherein H1a and H1b represent peak areas of an extracted component obtained by acetone extraction of the tread rubber composition and an ozonolysis component obtained by ozonolysis of the extracted component, respectively, measured in a molecular weight range of at least 50 but less than 2500; and H2a and H2b represent peak areas of the extracted component and the ozonolysis component, respectively, measured in a molecular weight range of at least 2500 but not more than 30000, wherein the tread rubber composition further comprises a softener and/or a resin, and per 100 parts by mass of the rubber component, the amount of oils is 15 parts by mass or less, and the combined amount of the softener and the resin is 40 parts by mass or less, wherein the term "softener" refers to a component that is liquid at 25°C and has a softening effect. the tread rubber composition comprising, per 100 parts by mass of the rubber component, 1 to 100 parts by mass of at least one carbon black and 0 to 150 parts by mass of at least one silica, the tread rubber composition satisfying the following relationships and: 1.05 ≤ H 1 b / H 1 a ≤ 1.75 0.20 ≤ H 2 b / H 2 a ≤ 0.75 wherein H1a and H1b represent peak areas of an extracted component obtained by acetone extraction of the tread rubber composition and an ozonolysis component obtained by ozonolysis of the extracted component, respectively, measured in a molecular weight range of at least 50 but less than 2500; and H2a and H2b represent peak areas of the extracted component and the ozonolysis component, respectively, measured in a molecular weight range of at least 2500 but not more than 30000, wherein the tread rubber composition further comprises a softener and/or a resin, and per 100 parts by mass of the rubber component, the amount of oils is 15 parts by mass or less, and the combined amount of the softener and the resin is 40 parts by mass or less, wherein the term "softener" refers to a component that is liquid at 25°C and has a softening effect.
A dental implant to be implanted into a maxillary bone, having a reception opening for an abutment arranged at a coronal extremity of said dental implant, wherein said reception opening having a cone section and an indexation section, viewed from said coronal extremity, said indexation section having at least one notch arranged alongside a circumference and extending outwards, said cone section having a cone angle (α) of less than 3°, characterised in that said respective notch is formed as a parallel-faced prism and has two lateral faces which are each perpendicular with respect to a common abutting face, which is perpendicular on an imaginary line radially extending from a central axis of said dental implant, precisely four notches being arranged in regular intervals alongside said circumference and where the ratio between a clearance angle (δ) alongside with no notch is disposed in the area scanned at said circumference, and a notch angle (y) along which a notch is disposed in the area scanned at said circumference, is between 1.0 and 0,5, in particular between 0.61 and 0,84.
A method for wireless communications by a user equipment, UE, comprising: identifying a system bandwidth for communications; identifying one or more radio resource control, RRC, messages; identifying a downlink control information, DCI, format 6-1A; determining (1606; 1610) one or more resource indication values, RIVs, equal to integer values from 21 to 31 for the DCI format 6-1A, wherein the determined RIVs are for a narrowband, NB, in the system bandwidth, BW, and the NB is configurable with different NB location(s) and RBG size(s), wherein the determined RIVs are outside of a range of RIVs equal to integer values from 0 to 20 for legacy resource allocation; wherein a size of the determined RIVs is 5 bits, which is the same as for the legacy resource allocation using the DCI format 6-1A; and performing resource allocation based on the identified system bandwidth, the one or more RRC messages, the identified DCI format, and the one or more determined RIVs. identifying a system bandwidth for communications; identifying one or more radio resource control, RRC, messages; identifying a downlink control information, DCI, format 6-1A; determining (1606; 1610) one or more resource indication values, RIVs, equal to integer values from 21 to 31 for the DCI format 6-1A, wherein the determined RIVs are for a narrowband, NB, in the system bandwidth, BW, and the NB is configurable with different NB location(s) and RBG size(s), wherein the determined RIVs are outside of a range of RIVs equal to integer values from 0 to 20 for legacy resource allocation; wherein a size of the determined RIVs is 5 bits, which is the same as for the legacy resource allocation using the DCI format 6-1A; and performing resource allocation based on the identified system bandwidth, the one or more RRC messages, the identified DCI format, and the one or more determined RIVs.
Process for the preparation of di- and polyamines of the diphenylmethane series by the rearrangement of a condensation product of aniline and a methylene group-supplying agent, wherein said condensation product is reacted in the presence of at least one silica-alumina catalyst, said catalyst having • a surface area as determined by the BET method carried out according to ASTM D3663 - 03 of from 200 m 2 /g to 520 m 2 /g; • a molar ratio of silica / alumina as determined by X-ray photoelectron spectroscopy of A and • a quotient B of - the molar ratio of silica / alumina as determined by X-ray photoelectron spectroscopy and - the molar ratio of silica / alumina as determined by inductively coupled plasma optical emission spectroscopy; said catalyst being characterised in that A and B meet the following requirements: either A is of from 0.10 to 8.00 and B is of from 1.50 to 3.00 or: A is of from 20.0 to 80.0 and B is of from 0.35 to 0.95. • a surface area as determined by the BET method carried out according to ASTM D3663 - 03 of from 200 m 2 /g to 520 m 2 /g; • a molar ratio of silica / alumina as determined by X-ray photoelectron spectroscopy of A and • a quotient B of - the molar ratio of silica / alumina as determined by X-ray photoelectron spectroscopy and - the molar ratio of silica / alumina as determined by inductively coupled plasma optical emission spectroscopy; - the molar ratio of silica / alumina as determined by X-ray photoelectron spectroscopy and - the molar ratio of silica / alumina as determined by inductively coupled plasma optical emission spectroscopy; either A is of from 0.10 to 8.00 and B is of from 1.50 to 3.00 or: A is of from 20.0 to 80.0 and B is of from 0.35 to 0.95.
A method for producing a binder composition, characterized in that the method comprises the following steps: (i) forming an aqueous composition comprising reactant components including lignin, a polymerizable substance and a crosslinking agent in the presence of a catalyst, wherein the crosslinking agent is an aldehyde and the polymerizable substance is selected from a group consisting of phenol, cresol, resorcinol and combinations thereof; (ii) cooking the formed composition until the composition has a viscosity, which corresponds to 45 - 95 % of a predetermined viscosity value of the final binder composition; (iii) adding tannin as a reactant component to the composition; and (iv) cooking the composition at a temperature of 60 - 95 °C for polymerizing the reactant components until a binder composition with a predetermined viscosity value is formed. (i) forming an aqueous composition comprising reactant components including lignin, a polymerizable substance and a crosslinking agent in the presence of a catalyst, wherein the crosslinking agent is an aldehyde and the polymerizable substance is selected from a group consisting of phenol, cresol, resorcinol and combinations thereof; (ii) cooking the formed composition until the composition has a viscosity, which corresponds to 45 - 95 % of a predetermined viscosity value of the final binder composition; (iii) adding tannin as a reactant component to the composition; and (iv) cooking the composition at a temperature of 60 - 95 °C for polymerizing the reactant components until a binder composition with a predetermined viscosity value is formed.
A protection device comprising: a detection circuit configured to detect an output current value of a current amplifier circuit and to output a first abnormality detection signal (Ic) when the output current value is a current that is higher than a detection threshold; a maintenance circuit configured to output a second abnormality detection signal (Vprotect, V'protect) continuously for a predetermined time that starts when it receives the first abnormality detection signal; a relay device configured to cut a connection between the current amplifier circuit and a load after a supply of a driving voltage (Vrelay) to the relay device is cut, with a delay equal to a recovery time of the relay mechanism; a protection mute unit configured to output a mute control signal (Vmute_protect) when it receives the second abnormality detection signal; a mute circuit that includes a function to turn down an input voltage value to the current amplifier circuit when it receives the mute control signal; and a protection relay command unit configured to cut the supply of the driving voltage (Vrelay) to the relay device when it receives the second abnormality detection signal, wherein the detection circuit includes a load line detection unit comprising an abnormality detection element and configured to detect that the current value is higher than the detection threshold on a load line based on a power source voltage value of the current amplifier circuit and a resistor value of the load, and a pulse response characteristic changing unit configured to change a pulse response characteristic of abnormality detection operation by the load line detection unit, wherein the load line detection unit includes a bridge circuit configured to change a control voltage value of the abnormality detection element, and the pulse response characteristic changing unit includes a lag lead filter circuit configured to change a pulse response characteristic of the bridge circuit depending on a pulse width corresponding to the area of safe operation at single pulse operation of the current amplifier circuit.
Car body for a railway vehicle, comprising a chassis, side walls and a roof, characterised in that at least two traction mechanisms aligned at right angles to the longitudinal axis of the car body are arranged laterally reversed between specific points of the car body on the interior of the car body in the roof area and reinforce the roof structure so that low-frequency natural oscillations of the car body are largely suppressed.
A patient matched instrument (500,600) comprising: a. a body having an interior patient matched surface; b. a cutting slot extending through at least a portion of the body; c. a first paddle extending from the body to an end portion of the first paddle; and d. a second paddle spaced apart from the first paddle and extending from the body to an end portion of the second paddle; wherein the interior patient matched surface is configured to contact an anterior surface and an anterior-proximal ridge of the tibia such that the patient matched interior surface is configured to contact the tibia both superior and inferior of the cutting slot; wherein each of the first paddle and second paddle includes a contact surface positioned between the end portion and the body, wherein the patient matched surface and the contact surfaces are adapted to be used to locate the cutting slot relative to the tibia, characterised in that the end portion of at least one of the first paddle and the second paddle further comprises a hook adapted to contact a posterior surface of the tibia. a. a body having an interior patient matched surface; b. a cutting slot extending through at least a portion of the body; c. a first paddle extending from the body to an end portion of the first paddle; and d. a second paddle spaced apart from the first paddle and extending from the body to an end portion of the second paddle; wherein the interior patient matched surface is configured to contact an anterior surface and an anterior-proximal ridge of the tibia such that the patient matched interior surface is configured to contact the tibia both superior and inferior of the cutting slot; wherein each of the first paddle and second paddle includes a contact surface positioned between the end portion and the body, wherein the patient matched surface and the contact surfaces are adapted to be used to locate the cutting slot relative to the tibia, characterised in that the end portion of at least one of the first paddle and the second paddle further comprises a hook adapted to contact a posterior surface of the tibia. wherein the interior patient matched surface is configured to contact an anterior surface and an anterior-proximal ridge of the tibia such that the patient matched interior surface is configured to contact the tibia both superior and inferior of the cutting slot; wherein each of the first paddle and second paddle includes a contact surface positioned between the end portion and the body, wherein the patient matched surface and the contact surfaces are adapted to be used to locate the cutting slot relative to the tibia, characterised in that the end portion of at least one of the first paddle and the second paddle further comprises a hook adapted to contact a posterior surface of the tibia.
Method for the closed-loop control of a heating power of an induction heating system that is induced in a component in a generative manufacturing process, wherein the induction heating system has an induction generator and an induction coil and the induction coil is connected to the induction generator by electrical leads cooled by means of a cooling liquid, the closed-loop control method comprising the steps of: - determining the heating power actually induced in the component; - comparing the actual heating power with a target value; and - in the event of a deviation of the actual heating power from the target value that is greater than a predetermined threshold value, changing the electrical power predetermined by the induction generator in such a way that the deviation between the actual heating power and the target value is less than the predetermined threshold value, wherein the determination of the heating power actually induced in the component comprises the following substeps: - detecting the electrical power predetermined by the induction generator; - subtracting the thermal power that is given off as waste heat to the cooling liquid of the leads; and - subtracting the thermal power that is given off by the leads to the remaining surroundings. - determining the heating power actually induced in the component; - comparing the actual heating power with a target value; and - in the event of a deviation of the actual heating power from the target value that is greater than a predetermined threshold value, changing the electrical power predetermined by the induction generator in such a way that the deviation between the actual heating power and the target value is less than the predetermined threshold value, - detecting the electrical power predetermined by the induction generator; - subtracting the thermal power that is given off as waste heat to the cooling liquid of the leads; and - subtracting the thermal power that is given off by the leads to the remaining surroundings.
A system for forming pressed tiles by pressing powder or granules comprising the following apparatuses: a powder discharge assembly; a compacting assembly suitable for partially compacting and de-aerating the powder; a no-cavity press assembly including: a bottom plate that is substantially the same size or greater than the pressed articles, wherein the bottom plate is an oil and rubber force distribution and equalization plate that removes variations in a pressing force experienced by the pressed article under pressure, a constraining means to isolate a portion of powder, and a top punch; and an air permeable transport belt to transport the powder and pressed tiles, wherein after exiting the press assembly, the belt travels back under the bottom plate, wherein the bottom support plate of the press area is movable and drops into place during a press trapping the returning transport belt and forming a continuous bottom support for the top punch, but which lifts up during the transport belt moving to allow the transport belt to pass beneath the bottom plate on the way back to the front of an apparatus, and wherein the top punch is arranged to press the powder contained by the constraining means into a highly compacted article using pressures from about 150 kg/cm^2 to about 500 kg/cm^2. a powder discharge assembly; a compacting assembly suitable for partially compacting and de-aerating the powder; a no-cavity press assembly including: a bottom plate that is substantially the same size or greater than the pressed articles, wherein the bottom plate is an oil and rubber force distribution and equalization plate that removes variations in a pressing force experienced by the pressed article under pressure, a constraining means to isolate a portion of powder, and a top punch; and a bottom plate that is substantially the same size or greater than the pressed articles, wherein the bottom plate is an oil and rubber force distribution and equalization plate that removes variations in a pressing force experienced by the pressed article under pressure, a constraining means to isolate a portion of powder, and a top punch; and an air permeable transport belt to transport the powder and pressed tiles, wherein after exiting the press assembly, the belt travels back under the bottom plate, wherein the bottom support plate of the press area is movable and drops into place during a press trapping the returning transport belt and forming a continuous bottom support for the top punch, but which lifts up during the transport belt moving to allow the transport belt to pass beneath the bottom plate on the way back to the front of an apparatus, and wherein the top punch is arranged to press the powder contained by the constraining means into a highly compacted article using pressures from about 150 kg/cm^2 to about 500 kg/cm^2.
An in vivo resorbable composition comprising a non-crystalline poly(1,3-trimethylene carbonate) polymer (PTMC) and a resorbable gel carrier, wherein the gel carrier is in the form of an aqueous polysaccharide gel, wherein the PTMC is in the form of microparticles with a diameter ranged between 1 and 200 μm, and wherein the microparticles have homogenous content and density throughout the microparticle, are essentially round and have smooth surfaces.
Plug connector module (1, 1') for a modular industrial plug connector, wherein the plug connector module (1, 1') has a base body (2, 2'), a holding plate (3, 3') and at least one contact element (4, 4'), - wherein the at least one contact element (4, 4') has a contact region (4a, 4a') and a cable connection region (4b, 4b') and is held in the plug connector module (1, 1') by the holding plate (3, 3'), - wherein the base body (2, 2') has at least one opening for receiving the contact region (4a, 4a') of the at least one contact element (4, 4') and - wherein the holding plate (3, 3') has at least one opening for receiving the cable connection region (4b, 4b') of the at least one contact element (4, 4'), characterized in that the base body (2, 2') and the holding plate (3, 3') are reversibly latched to one another and in that the holding plate (3, 3') has securing lugs for securing the plug connector module (1, 1') in a holding frame for a modular industrial plug connector. - wherein the at least one contact element (4, 4') has a contact region (4a, 4a') and a cable connection region (4b, 4b') and is held in the plug connector module (1, 1') by the holding plate (3, 3'), - wherein the base body (2, 2') has at least one opening for receiving the contact region (4a, 4a') of the at least one contact element (4, 4') and - wherein the holding plate (3, 3') has at least one opening for receiving the cable connection region (4b, 4b') of the at least one contact element (4, 4'), the base body (2, 2') and the holding plate (3, 3') are reversibly latched to one another and in that the holding plate (3, 3') has securing lugs for securing the plug connector module (1, 1') in a holding frame for a modular industrial plug connector.
Control system (1, 4, 5; 1', 4', 5'; 1", 4'', 5''), comprising - a real control (1; 1'; 1'') which, to control a real plant or a real machine, is connected to the real plant or the real machine, - a virtual control (4; 4'; 4'') which, to simulate the control of the real plant or the real machine, is connected to a virtual plant or a virtual machine (6'; 6''), - synchronisation means for synchronising the real control (1; 1'; 1'') and the virtual control (4; 4'; 4"), - a higher-level processor unit (5; 5'; 5'') for detecting data with respect to the real plant or the real machine and for processing this data, wherein the virtual control (4; 4'; 4'') transfers the data detected by the higher-level processor unit (5; 5'; 5'') from the virtual control (4; 4'; 4'') to the higher-level processor unit (5; 5'; 5''), wherein the real control (1; 1'; 1'') and the virtual control (4; 4'; 4'') execute the same control program synchronously and wherein the real control (1; 1'; 1'') transfers time-based data and/or state-based data from the real control to the virtual control (4; 4'; 4'') for synchronisation with the virtual control (4; 4'; 4"). - a real control (1; 1'; 1'') which, to control a real plant or a real machine, is connected to the real plant or the real machine, - a virtual control (4; 4'; 4'') which, to simulate the control of the real plant or the real machine, is connected to a virtual plant or a virtual machine (6'; 6''), - synchronisation means for synchronising the real control (1; 1'; 1'') and the virtual control (4; 4'; 4"), - a higher-level processor unit (5; 5'; 5'') for detecting data with respect to the real plant or the real machine and for processing this data, wherein the virtual control (4; 4'; 4'') transfers the data detected by the higher-level processor unit (5; 5'; 5'') from the virtual control (4; 4'; 4'') to the higher-level processor unit (5; 5'; 5''), wherein the real control (1; 1'; 1'') and the virtual control (4; 4'; 4'') execute the same control program synchronously and wherein the real control (1; 1'; 1'') transfers time-based data and/or state-based data from the real control to the virtual control (4; 4'; 4'') for synchronisation with the virtual control (4; 4'; 4").