mhurhangee/ep-ind-claims huggingface dataset:
A device for inductively clamping and unclamping a tool shaft of a tool, in particular a rotating tool, in a tool holder which includes a clamping sleeve that is open at its free end and made from electrically conductive material for receiving the tool shaft through friction locking, wherein the clamping sleeve forms a central rotation axis with the tool holder, with an induction coil assembly enveloping the clamping sleeve and including two coil units (14a, 14b) that are arranged on the same axis and that are axially adjustable relative to one another and with a concentrator assembly made from magnetically conductive and electrically non conductive material, which is formed from plural, essentially annular grouped, concentrator elements (46a, 46b) which are adjustable relative to the rotation axis into their operating position for inductively heating the clamping sleeve, characterized in that the concentrator elements (46a, 46b) are moveable transversally to the rotation axis into an operating position with at least partial radial coverage of the free face of the clamping sleeve.
An organic light emitting device (200, 300), comprising: a substrate (204, 304); a first electrode (201, 301) on the substrate (204, 304); a second electrode (203, 303) opposite to the first electrode (201, 301); and an organic light emitting layer (202, 302) between the first electrode (201, 301) and the second electrode (203, 303), wherein the organic light emitting layer (202, 302) comprises a first dopant (205, 305) and a second dopant (205', 305'), wherein the first dopant (205, 305) and the second dopant (205', 305') are both blue light dopants and mixed into the organic light emitting layer (202, 302), wherein the first dopant (205, 305) comprises one of and the second dopant (205', 305') comprises another of materials selected from the group consisting of: 4,4'-bis[4-(di-p-tolylamino)styryl]biphenyl (DPAVBI); 4-(di-p-tolylamino)-4'-[(di-p-tolylamino) styryl] stilbene (DPAVB); 3,3'-(1,4-phenylene di-2,1-ethenediyl)bis(9-ethyl-9H-carbazole); and bis[2-(2-pyridinyl)phenolato]beryllium (Be 2), and wherein the organic light emitting layer (202, 302) further comprises a host material and weight percentages of the first dopant (205, 305), the second dopant (205', 305') and the host material in the organic light emitting layer (202, 302) are 0.5%: 4.5%: 95%. a substrate (204, 304); a first electrode (201, 301) on the substrate (204, 304); a second electrode (203, 303) opposite to the first electrode (201, 301); and an organic light emitting layer (202, 302) between the first electrode (201, 301) and the second electrode (203, 303), wherein the organic light emitting layer (202, 302) comprises a first dopant (205, 305) and a second dopant (205', 305'), wherein the first dopant (205, 305) and the second dopant (205', 305') are both blue light dopants and mixed into the organic light emitting layer (202, 302), wherein the first dopant (205, 305) comprises one of and the second dopant (205', 305') comprises another of materials selected from the group consisting of: 4,4'-bis[4-(di-p-tolylamino)styryl]biphenyl (DPAVBI); 4-(di-p-tolylamino)-4'-[(di-p-tolylamino) styryl] stilbene (DPAVB); 3,3'-(1,4-phenylene di-2,1-ethenediyl)bis(9-ethyl-9H-carbazole); and bis[2-(2-pyridinyl)phenolato]beryllium (Be 2), and wherein the organic light emitting layer (202, 302) further comprises a host material and weight percentages of the first dopant (205, 305), the second dopant (205', 305') and the host material in the organic light emitting layer (202, 302) are 0.5%: 4.5%: 95%.
A lubricant base stock composition comprising a T10 distillation point of at least 900°F (482°C); a viscosity index of at least 80; a saturates content of at least 90 wt% (or at least 95 wt%); a sulfur content of less than 300 wppm; a kinematic viscosity at 100°C of at least 28 cSt; a kinematic viscosity at 40°C of at least 320 cSt (or at least 340 cSt, or at least 350 cSt); a pour point of -6°C or less; a cloud point of -2°C or less; a difference between the pour point and the cloud point of 20°C or less; and a sum of terminal and pendant propyl groups and terminal and pendant ethyl groups of at least 1.7 (or at least 1.8, or at least 1.9) per 100 carbon atoms of the composition.
An array substrate, comprising: a plurality of sub-pixel units defined by gate lines and data lines that cross with each other on a substrate, each of the sub-pixel units comprising a first thin film transistor, a second TFT and a pixel electrode, a gate electrode of the first TFT being connected to the gate line, a source electrode of the first TFT being connected to the data line, and a drain electrode of the second TFT being connected to the pixel electrode, wherein the source electrode and a drain electrode of the first TFT are formed on a same layer as a gate electrode of the second TFT, and the drain electrode of the first TFT is directly connected to the gate electrode of the second TFT, wherein, one of the first TFT and the second TFT is a TFT with a top-gate structure, and the other of the first TFT and the second TFT is a TFT with a bottom-gate structure, wherein the TFT with the top-gate structure comprises: a source electrode and a drain electrode that are formed on a surface of the substrate and separated from each other, an active layer formed between the source electrode and the drain electrode, a first insulating layer located directly above the source electrode and the drain electrode, a second insulating layer that covers the first insulating layer and the active layer, and a gate electrode located over the second insulating layer; and the TFT with the bottom-gate structure comprises: a gate electrode formed on the surface of the substrate, a first insulating layer formed over the gate electrode, an active layer formed over the first insulating layer, a second insulating layer which is formed over the active layer and by which a part of the active layer is exposed, and a source electrode and a drain electrode that are formed over the second insulating layer and contact with the exposed active layer, and the source electrode and the drain electrode of the TFT with the top-gate structure are formed on the same layer as the gate electrode of the TFT with the bottom-gate structure, the first insulating layer of the TFT with the top-gate structure is formed on a same layer as the first insulating layer of the TFT with the bottom-gate structure, the second insulating layer of the TFT with the top-gate structure is formed on a same layer as the second insulating layer of the TFT with the bottom-gate structure, and the gate electrode of the TFT with the top-gate structure are formed on the same layer as the source electrode and the drain electrode of the TFT with the bottom-gate structure.
A method comprising: a) calcining a silica support at temperature in the range of from about 100 °C to about 500 °C to form a precalcined silica support; b) contacting the precalcined silica support with a titanium alkoxide to form a titanated support; c) subsequent to b), contacting the titanated support with a polyol to form a polyol associated titanated support (PATS); d) contacting the PATS with a chromium-containing compound to form a polymerization catalyst precursor; e) drying the polymerization catalyst precursor to form a dried polymerization catalyst precursor; and f) calcining the dried polymerization catalyst precursor to produce a polymerization catalyst, wherein less than 0.1 wt.% of a highly reactive volatile organic compound (HRVOC) is emitted during the calcining of the dried polymerization catalyst precursor. a) calcining a silica support at temperature in the range of from about 100 °C to about 500 °C to form a precalcined silica support; b) contacting the precalcined silica support with a titanium alkoxide to form a titanated support; c) subsequent to b), contacting the titanated support with a polyol to form a polyol associated titanated support (PATS); d) contacting the PATS with a chromium-containing compound to form a polymerization catalyst precursor; e) drying the polymerization catalyst precursor to form a dried polymerization catalyst precursor; and f) calcining the dried polymerization catalyst precursor to produce a polymerization catalyst, wherein less than 0.1 wt.% of a highly reactive volatile organic compound (HRVOC) is emitted during the calcining of the dried polymerization catalyst precursor.
A method for producing a hollow cylinder of synthetic quartz glass, the method comprising the steps of: a) providing an inner tube of synthetic quartz glass having an inner bore defined by an inner wall, b) cladding the inner tube with an SiO 2 soot layer, c) sintering the SiO 2 soot layer with formation of the hollow cylinder, characterized in that during sintering the surface temperature of the inner wall of the inner tube is kept below the softening temperature by forced cooling by passing a cooling fluid through the inner bore. a) providing an inner tube of synthetic quartz glass having an inner bore defined by an inner wall, b) cladding the inner tube with an SiO 2 soot layer, c) sintering the SiO 2 soot layer with formation of the hollow cylinder,
Humidity sensor comprising a silicon base plate, on which several intermetallic dielectric layers, each of which provided with a metallic zone, and a metal layer are arranged, wherein said metal layer is etched to form two electrodes, each comprising an armature provided with a multiplicity of arms, wherein these armatures are mounted so that the arms of each armature are interlaced to have arms positioned to face one another, wherein said sensor additionally comprises an active layer deposited directly onto the base plate to be interposed between said base plate and the first intermetallic dielectric layer, in which a temperature module is arranged, wherein this temperature module supplies a signal representing the temperature, characterised in that the temperature module comprises a temperature detector having: • a bipolar transistor connected by its base and its collector to earth • a current source, one terminal of which is connected to a power supply and the emitter of the transistor is connected to the other terminal of the current source • a voltage source (Uref) supplying a reference voltage (V BG) • a differential amplifier, wherein the base-emitter voltage (V BE3) at the connection point between said transistor and the current source is extracted to be directed to said differential amplifier, and said differential amplifier performs the difference between the base-emitter voltage and the reference voltage (V BG) to supply a voltage representing the temperature (V TEMP2). • a bipolar transistor connected by its base and its collector to earth • a current source, one terminal of which is connected to a power supply and the emitter of the transistor is connected to the other terminal of the current source • a voltage source (Uref) supplying a reference voltage (V BG) • a differential amplifier, wherein the base-emitter voltage (V BE3) at the connection point between said transistor and the current source is extracted to be directed to said differential amplifier, and said differential amplifier performs the difference between the base-emitter voltage and the reference voltage (V BG) to supply a voltage representing the temperature (V TEMP2).
A thermocouple system comprising a first thermocouple unit (200,200 1), said first thermocouple unit (200,200 1) including: a substrate; a first thermoelement, a second thermoelement, a hot junction, a cold junction and a thermometer disposed on the substrate; wherein the first and second thermoelements (203,204) extend from the hot junction disposed on one end of the substrate to the cold junction disposed on the other end of the substrate; wherein the thermometer is coupled to one of the first and second thermoelements (203,204) to measure the temperature of the cold junction; a first extension wire coupled to and extending from the first thermoelement away from the substrate; a second and a third extension wire each coupled to and extending from the thermometer away from the substrate; wherein the first, second and third extension wires are made of the same material. a substrate; a first thermoelement, a second thermoelement, a hot junction, a cold junction and a thermometer disposed on the substrate; wherein the first and second thermoelements (203,204) extend from the hot junction disposed on one end of the substrate to the cold junction disposed on the other end of the substrate; wherein the thermometer is coupled to one of the first and second thermoelements (203,204) to measure the temperature of the cold junction; a first extension wire coupled to and extending from the first thermoelement away from the substrate; a second and a third extension wire each coupled to and extending from the thermometer away from the substrate; wherein the first, second and third extension wires are made of the same material.
Optical connection device for optically connecting a first connector of a first optical fiber device with a second connector of a second optical fiber device along an optical axis, comprising: a plug part having an elongated shaft having a longitudinal shaft axis and a lumen extending through the shaft along the shaft axis for receiving the first connector, the plug part further having a cap at a first end of the shaft which has an insertion opening for insertion of the first connector into the lumen, the opening being aligned and communicating with the lumen, the plug part having an optical window having a solid body element, wherein the plug part is at least in part deformable; and a clamp part, wherein the plug part is configured to be at least partially inserted into the clamp part, and the clamp part is configured to, when the plug part is at least partially inserted in the clamp part and when the first connector is inserted into the lumen of the shaft of the plug part, exert a force onto the plug part which deforms the plug part upon tightening the clamp part so as to clamp and hold the first connector in position and orientation with respect to the optical axis, characterised in that the optical window having the solid body element closes the interior of the shaft including the lumen against the environment. a plug part having an elongated shaft having a longitudinal shaft axis and a lumen extending through the shaft along the shaft axis for receiving the first connector, the plug part further having a cap at a first end of the shaft which has an insertion opening for insertion of the first connector into the lumen, the opening being aligned and communicating with the lumen, the plug part having an optical window having a solid body element, wherein the plug part is at least in part deformable; and a clamp part, wherein the plug part is configured to be at least partially inserted into the clamp part, and the clamp part is configured to, when the plug part is at least partially inserted in the clamp part and when the first connector is inserted into the lumen of the shaft of the plug part, exert a force onto the plug part which deforms the plug part upon tightening the clamp part so as to clamp and hold the first connector in position and orientation with respect to the optical axis, characterised in that the optical window having the solid body element closes the interior of the shaft including the lumen against the environment.
Hot runner system comprising holding means physically holding a heating device for locally heating of an injection mold cavity wall, wherein the holding means are configured so that the main weight of the heating device is carried by the hot runner system, wherein the heating device comprises an actuator to perform a linear movement; a heated stamp connected to the actuator and driven by the actuator, to perform a linear movement in direction to and from the injection mold cavity wall, characterized in that the heating device is driven by the same media or energy as provided for the hot runner system.
A pump assembly comprising - a rotor axle extending along a rotor axis, - an impeller fixed to the rotor axle, - a pump housing accommodating the impeller, wherein the pump housing defines a first radial inner reference surface, - a drive motor comprising a stator and a rotor, wherein the rotor is fixed to the rotor axle for driving the impeller, - a rotor can accommodating the rotor, wherein the rotor can comprises a rotor can flange, - a stator housing accommodating the stator, - a first radial bearing ring being in sliding contact with the rotor axle, and - a bearing retainer embracing the first radial bearing ring and centring the first radial bearing ring with respect to the first radial inner reference surface of the pump housing, wherein the rotor can flange has a radial distance to the pump housing, and wherein the rotor can flange comprises an annular contact surface facing towards the impeller, characterised in that the rotor can comprises a radial inner centring surface being centred by radially abutting against a radial outer centring surface of the bearing retainer, the bearing retainer comprises an annular biasing surface facing away from the impeller, wherein the bearing retainer is resiliently preloaded for biasing the annular biasing surface of the bearing retainer against the annular contact surface of the rotor can flange, and wherein the annular contact surface of the rotor can flange and/or the annular biasing surface of the bearing retainer have at least three axial projections. - a rotor axle extending along a rotor axis, - an impeller fixed to the rotor axle, - a pump housing accommodating the impeller, wherein the pump housing defines a first radial inner reference surface, - a drive motor comprising a stator and a rotor, wherein the rotor is fixed to the rotor axle for driving the impeller, - a rotor can accommodating the rotor, wherein the rotor can comprises a rotor can flange, - a stator housing accommodating the stator, - a first radial bearing ring being in sliding contact with the rotor axle, and - a bearing retainer embracing the first radial bearing ring and centring the first radial bearing ring with respect to the first radial inner reference surface of the pump housing, wherein the rotor can flange has a radial distance to the pump housing, and wherein the rotor can flange comprises an annular contact surface facing towards the impeller,
Coupling device for a robot and a tool, wherein the coupling device has a plurality of mutually connectable coupling parts (13, 14) with a mechanical coupling and a media coupling, wherein the mechanical coupling has coupling elements (17, 18) on the coupling parts (13, 14), said coupling elements (17, 18) engaging in one another in a form-fitting manner, and a lock that acts between the coupling elements (17, 18), characterized in that the lock is actuable by a displacement movement of the robot and of the coupling device.
A communication control method performed by a User Equipment, UE,, the communication control method comprising: in a service authorisation procedure, requesting, to a Proximity-based Services, ProSe, function in a PLMN, authorisation for direct discovery and/or direct communication; and receiving, from the ProSe function, an authorisation message including a first timer value indicating for how long the authorisation is valid, as a response to the request; starting a first timer based on the reception of the first timer value; in an announce request procedure, receiving a discovery response message including a ProSe Restricted Code and a second timer value corresponding to the ProSe Restricted Code from the ProSe function; starting a second timer based on the reception of the discovery response message; and transmitting an announcement message including the ProSe Restricted Code to a proximity UE, wherein the ProSe Restricted Code is used for direct discovery, the UE receives multiple Relay Service Codes from the ProSe function, and each of the multiple Relay Service Codes is a code used to identify a connectivity service the UE provides. in a service authorisation procedure, requesting, to a Proximity-based Services, ProSe, function in a PLMN, authorisation for direct discovery and/or direct communication; and receiving, from the ProSe function, an authorisation message including a first timer value indicating for how long the authorisation is valid, as a response to the request; requesting, to a Proximity-based Services, ProSe, function in a PLMN, authorisation for direct discovery and/or direct communication; and receiving, from the ProSe function, an authorisation message including a first timer value indicating for how long the authorisation is valid, as a response to the request; starting a first timer based on the reception of the first timer value; in an announce request procedure, receiving a discovery response message including a ProSe Restricted Code and a second timer value corresponding to the ProSe Restricted Code from the ProSe function; starting a second timer based on the reception of the discovery response message; and transmitting an announcement message including the ProSe Restricted Code to a proximity UE, wherein starting a second timer based on the reception of the discovery response message; and transmitting an announcement message including the ProSe Restricted Code to a proximity UE, the ProSe Restricted Code is used for direct discovery, the UE receives multiple Relay Service Codes from the ProSe function, and each of the multiple Relay Service Codes is a code used to identify a connectivity service the UE provides.