mhurhangee/patent-ind-claim-en huggingface dataset:
A universal drill guide system comprising: a universal drill guide ; a drill tube insertable at least partly into the universal drill guide ; and a drill bit insertable into the drill tube , wherein the universal drill guide comprises a drill stop configured to abut on a stop surface of the drill bit to limit a drilling depth of the drill bit , and a locking ring rotatable between a locking orientation, in which the drill tube inserted into the universal drill guide is locked by the locking ring , and a release orientation, in which the drill tube is releasable from the locking ring , characterized by a camming mechanism configured to pivot the drill stop away from the stop surface of the drill bit as the locking ring is rotated into the release orientation. a universal drill guide ; a drill tube insertable at least partly into the universal drill guide ; and a drill bit insertable into the drill tube , wherein the universal drill guide comprises a drill stop configured to abut on a stop surface of the drill bit to limit a drilling depth of the drill bit , and a locking ring rotatable between a locking orientation, in which the drill tube inserted into the universal drill guide is locked by the locking ring , and a release orientation, in which the drill tube is releasable from the locking ring , characterized by a camming mechanism configured to pivot the drill stop away from the stop surface of the drill bit as the locking ring is rotated into the release orientation.
A method for producing a polyether, the method comprising: I. forming a reaction mixture comprising a) a hydroxyl-containing starter, b) at least one alkylene oxide, c) a water insoluble polymerization catalyst complex that includes at least one double metal cyanide compound and d), as part of the water insoluble polymerization catalyst complex or as a separate component, at least one M 5 metal or semi-metal compound, in which the M 5 metal or semi-metal is selected from aluminum, magnesium, manganese, scandium, molybdenum, cobalt, tungsten, iron, vanadium, tin, titanium, silicon and zinc, and is bonded to at least one alkoxide, aryloxy, carboxylate, acyl, pyrophosphate, phosphate, thiophosphate, dithiophosphate, phosphate ester, thiophosphate ester, amide, oxide, siloxide, hydride, carbamate, halide or hydrocarbon anion, and II. polymerizing the alkylene oxide onto the hydroxyl-containing starter in the presence of the water insoluble polymerization catalyst complex and the M 5 metal or semi-metal compound to produce the polyether, wherein the water insoluble polymerization catalyst complex contains 0.5 to 2 weight percent potassium, based on the weight of the water insoluble polymerization catalyst complex. I. forming a reaction mixture comprising a) a hydroxyl-containing starter, b) at least one alkylene oxide, c) a water insoluble polymerization catalyst complex that includes at least one double metal cyanide compound and d), as part of the water insoluble polymerization catalyst complex or as a separate component, at least one M 5 metal or semi-metal compound, in which the M 5 metal or semi-metal is selected from aluminum, magnesium, manganese, scandium, molybdenum, cobalt, tungsten, iron, vanadium, tin, titanium, silicon and zinc, and is bonded to at least one alkoxide, aryloxy, carboxylate, acyl, pyrophosphate, phosphate, thiophosphate, dithiophosphate, phosphate ester, thiophosphate ester, amide, oxide, siloxide, hydride, carbamate, halide or hydrocarbon anion, and II. polymerizing the alkylene oxide onto the hydroxyl-containing starter in the presence of the water insoluble polymerization catalyst complex and the M 5 metal or semi-metal compound to produce the polyether,
An optical quality control system for detecting a defect in a high refractive index light permeable solid , the quality control system comprising: a container configured to receive the solid therein; a structured light source ; an optical inspection zone for receiving an optical inspection device or an eye of a human observer; and a high refractive index medium for insertion in the container in a volume sufficient to fully or at least partially immerse the solid, characterized in that the structured light source is configured to project a planar light fan through the high refractive index solid to generate an illuminated cross-section in the solid, the illuminated cross-section extending at least over the whole cross-section of the solid, and wherein the optical inspection zone is arranged for inspection of an immersed portion of the illuminated cross-section in an inspection direction transverse to a plane (P) defined by the planar illuminated cross-section, wherein the structured light source comprises a light generator with a light structuring system comprising optical lenses configured to generate the planar light fan, such that the whole cross-section of the solid can be observed in the inspection direction at a given moment of time. a container configured to receive the solid therein; a structured light source ; an optical inspection zone for receiving an optical inspection device or an eye of a human observer; and a high refractive index medium for insertion in the container in a volume sufficient to fully or at least partially immerse the solid, characterized in that the structured light source is configured to project a planar light fan through the high refractive index solid to generate an illuminated cross-section in the solid, the illuminated cross-section extending at least over the whole cross-section of the solid, and wherein the optical inspection zone is arranged for inspection of an immersed portion of the illuminated cross-section in an inspection direction transverse to a plane (P) defined by the planar illuminated cross-section, wherein the structured light source comprises a light generator with a light structuring system comprising optical lenses configured to generate the planar light fan, such that the whole cross-section of the solid can be observed in the inspection direction at a given moment of time.
A method of evaluating a volume of an earth formation wherein the volume comprises a rock matrix saturated by a fluid including water, the method comprising: making a plurality of measurements of complex permittivity at a plurality of frequencies using an electromagnetic tool comprising a transmitter and a receiver in a borehole penetrating the earth formation; characterised by : selecting an optimal frequency by: identifying candidate frequencies of the plurality of frequencies having a corresponding measurement with a respective sensitivity to at least one of i) salinity and ii) water-filled porosity, by determining that each respective sensitivity is substantially independent of rock texture; and selecting a maximum of the candidate frequencies as the optimal frequency; using a table search method based on a forward model to generate an initial estimate of at least two properties of the volume, wherein the table represents relationships between received signals of the electromagnetic tool and values of properties of the formation; and using the initial estimate for the at least two properties as an initial condition for an inversion of other measurements of the plurality of measurements at a frequency other than the selected optimal frequency to generate a final solution comprising final estimates for properties of the formation. selecting an optimal frequency by: identifying candidate frequencies of the plurality of frequencies having a corresponding measurement with a respective sensitivity to at least one of i) salinity and ii) water-filled porosity, by determining that each respective sensitivity is substantially independent of rock texture; and selecting a maximum of the candidate frequencies as the optimal frequency; identifying candidate frequencies of the plurality of frequencies having a corresponding measurement with a respective sensitivity to at least one of i) salinity and ii) water-filled porosity, by determining that each respective sensitivity is substantially independent of rock texture; and selecting a maximum of the candidate frequencies as the optimal frequency; using a table search method based on a forward model to generate an initial estimate of at least two properties of the volume, wherein the table represents relationships between received signals of the electromagnetic tool and values of properties of the formation; and using the initial estimate for the at least two properties as an initial condition for an inversion of other measurements of the plurality of measurements at a frequency other than the selected optimal frequency to generate a final solution comprising final estimates for properties of the formation.
A glass-ceramic comprising at least the following constituents (in mol% on oxide basis): SiO 2 1 - 50 Al 2 O 3 0 - 20 B 2 O 3 0 - 25 TiO 2 > 41 - 70 RE 2 O 3 15 - 30 BaO 0 - 35 wherein RE is lanthanum, another lanthanoid, or yttrium, and wherein Ti may be replaced in part by Zr, Hf, Y, Nb, V, Ta, wherein an obligatory minimum Ti content must not remain under more than 41 mol%, and wherein the porosity is < 0.01%, and wherein 15 to 30 mol% of La 2 O 3 and/or Nd 2 O 3 are included.
A power line for supplying power to a home appliance , wherein the power line is also used for mounting a communication module for implementing wireless communication between the home appliance and an external device; wherein the power line comprises: a line body ; a plug disposed at one end of the line body ; a communication module ; and an intelligent module mounting portion (S), wherein the intelligent module mounting portion (S) is provided with a base having an accommodation cavity (B) and a cover fitted with the base so as to enclose the accommodation cavity (B), the communication module is accommodated in the accommodation cavity (B), characterized in that , the power line further comprises a line body fixing portion disposed on a part of the line body distal from the plug for fixing the line body on the home appliance; wherein the intelligent module mounting portion is disposed on the line body adjacent to the line body fixing portion . a line body ; a plug disposed at one end of the line body ; a communication module ; and an intelligent module mounting portion (S), wherein the intelligent module mounting portion (S) is provided with a base having an accommodation cavity (B) and a cover fitted with the base so as to enclose the accommodation cavity (B), the communication module is accommodated in the accommodation cavity (B), characterized in that , the power line further comprises a line body fixing portion disposed on a part of the line body distal from the plug for fixing the line body on the home appliance; wherein the intelligent module mounting portion is disposed on the line body adjacent to the line body fixing portion .
A method for providing dynamic charging in a network, the method comprising a dynamic charging handler function: receiving an indication of a dynamic change to charging; and, instructing an end-device to adjust traffic-generating behaviour in accordance with the received dynamic change to charging, based on a customer-defined configuration option, characterized in that the customer-defined configuration option includes parameters based upon a Service Level Agreement. receiving an indication of a dynamic change to charging; and, instructing an end-device to adjust traffic-generating behaviour in accordance with the received dynamic change to charging, based on a customer-defined configuration option, characterized in that the customer-defined configuration option includes parameters based upon a Service Level Agreement.
An apparatus for directly observing a tear film on a person's or animal's eye, the apparatus comprising: an infrared sensitive camera that includes a camera lens system; and a computer configured to receive data from the camera, process the data using software and represent the processed data on a display, wherein the camera is configured to process temporal and spatial changes of infrared emissivity from a surface of the eye at a thermal sensitivity that allows the dynamics of the tear film to be directly visualised, wherein the camera includes a detector for wavelengths in the bands from 2 μm to 14 μm, the frame rate is at least 25 Hz, and the camera includes a detector with a pitch resolution of 17 μm or less, wherein the apparatus allows an observer immediate visual discrimination between a healthy natural tear film from an abnormal tear film or between different types of abnormal tear films. an infrared sensitive camera that includes a camera lens system; and a computer configured to receive data from the camera, process the data using software and represent the processed data on a display, wherein the camera is configured to process temporal and spatial changes of infrared emissivity from a surface of the eye at a thermal sensitivity that allows the dynamics of the tear film to be directly visualised, wherein the camera includes a detector for wavelengths in the bands from 2 μm to 14 μm, the frame rate is at least 25 Hz, and the camera includes a detector with a pitch resolution of 17 μm or less, wherein the apparatus allows an observer immediate visual discrimination between a healthy natural tear film from an abnormal tear film or between different types of abnormal tear films.
Use of a sealable, optionally oriented, thermoplastic film having: - an oxygen transmission rate between 8000 and 14000 cc/sqm.day.atm, preferably between 9000 and 13000 cc/sqm.day.atm, more preferably between 10000 and 13000 cc/sqm.day.atm, even more preferably between 11000 and 12000 cc/sqm.day.atm, even more preferably of 11500 cc/sqm.day.atm, measured according to ASTM D-3985 at 23°C and 0% in - 0% out relative humidity, - a CO2 transmission rate between 25000 to 41000 cc/sqm.day.atm, preferably between 26000 and 40000 cc/sqm.day.atm, more preferably between 27000 and 39000 cc/sqm.day.atm, even more preferably of 28000 cc/sqm.day.atm, measured according to ASTM F-2476, at 23°C and 0% in - 0% out relative humidity, - a water vapour transmission rate between 8 and 35 g/sqm.day.atm, more preferably between 20 and 30 g/sqm.day.atm, even more preferably of 26 g/sqm.day.atm, measured according to ASTM D1249at 38°C and 98% in - 0% out relative humidity, and - a transmittance of less than 70%, preferably less than 60% of light at wavelengths from 100 to 450 nm, preferably from 200 to 450 nm, more preferably from 200 to 400 nm, measured with the method described in the description for the packaging of fruits and/or vegetables. - an oxygen transmission rate between 8000 and 14000 cc/sqm.day.atm, preferably between 9000 and 13000 cc/sqm.day.atm, more preferably between 10000 and 13000 cc/sqm.day.atm, even more preferably between 11000 and 12000 cc/sqm.day.atm, even more preferably of 11500 cc/sqm.day.atm, measured according to ASTM D-3985 at 23°C and 0% in - 0% out relative humidity, - a CO2 transmission rate between 25000 to 41000 cc/sqm.day.atm, preferably between 26000 and 40000 cc/sqm.day.atm, more preferably between 27000 and 39000 cc/sqm.day.atm, even more preferably of 28000 cc/sqm.day.atm, measured according to ASTM F-2476, at 23°C and 0% in - 0% out relative humidity, - a water vapour transmission rate between 8 and 35 g/sqm.day.atm, more preferably between 20 and 30 g/sqm.day.atm, even more preferably of 26 g/sqm.day.atm, measured according to ASTM D1249at 38°C and 98% in - 0% out relative humidity, and - a transmittance of less than 70%, preferably less than 60% of light at wavelengths from 100 to 450 nm, preferably from 200 to 450 nm, more preferably from 200 to 400 nm, measured with the method described in the description
A scintillator comprising: a matrix material including thallium, at least one alkaline earth metal element, and at least one halogen element, further comprising: an activator, with which the matrix material is doped, wherein the activator includes europium; wherein the chemical formula of the scintillator is TlaAbBc:yEu, and wherein A is at least one alkaline earth metal element selected from divalent alkaline earth metal elements, B is at least one halogen element selected from halogen elements, a is 1, b is 2, and c is 5 or a is 1, b is 1, and c is 3, and y is more than 0 mol% and equal to or less than 50 mol%. a matrix material including thallium, at least one alkaline earth metal element, and at least one halogen element, further comprising: an activator, with which the matrix material is doped, wherein the activator includes europium; wherein the chemical formula of the scintillator is TlaAbBc:yEu, and wherein A is at least one alkaline earth metal element selected from divalent alkaline earth metal elements, B is at least one halogen element selected from halogen elements, a is 1, b is 2, and c is 5 or a is 1, b is 1, and c is 3, and y is more than 0 mol% and equal to or less than 50 mol%. an activator, with which the matrix material is doped, wherein the activator includes europium; wherein the chemical formula of the scintillator is TlaAbBc:yEu, and wherein A is at least one alkaline earth metal element selected from divalent alkaline earth metal elements, B is at least one halogen element selected from halogen elements, a is 1, b is 2, and c is 5 or a is 1, b is 1, and c is 3, and y is more than 0 mol% and equal to or less than 50 mol%.
An automated driving system , comprising: an automation control module for controlling one or more driving functions of a vehicle; a safety control module (101-105) for determining one or more operating conditions relevant to the safety performance of the vehicle, characterised in that the automation control module is configured to automatically change the speed of the vehicle to a reduced speed based on the one or more operating conditions determined by the safety control module (101-105), wherein the one or more operating conditions comprise a processor overheating scenario, wherein the processor overheating scenario leads to the automation control module exceeding an operating temperature threshold, thereby allowing the automated driving system to reduce the vehicle's speed to avoid overheating. an automation control module for controlling one or more driving functions of a vehicle; a safety control module (101-105) for determining one or more operating conditions relevant to the safety performance of the vehicle, characterised in that the automation control module is configured to automatically change the speed of the vehicle to a reduced speed based on the one or more operating conditions determined by the safety control module (101-105), wherein the one or more operating conditions comprise a processor overheating scenario, wherein the processor overheating scenario leads to the automation control module exceeding an operating temperature threshold, thereby allowing the automated driving system to reduce the vehicle's speed to avoid overheating.
A laminated stack up , comprising: a first protective cover comprised of a first material, the first protective cover having a first surface with an optically reflective layer adhered thereto; a second protective cover comprised of a second material that is transparent, the second protective cover having a second surface corresponding to a viewing surface of the laminated stack up; and a dyed polymer layer disposed between the first protective cover and the second protective cover, the dyed polymer layer being translucent and having a water soluble dye used to color anodized metal infused therein, wherein the optically reflective layer is viewable through the dyed polymer layer and the second protective cover as viewed from the viewing surface, thereby giving the laminated stack up an appearance of a dyed anodized metal. a first protective cover comprised of a first material, the first protective cover having a first surface with an optically reflective layer adhered thereto; a second protective cover comprised of a second material that is transparent, the second protective cover having a second surface corresponding to a viewing surface of the laminated stack up; and a dyed polymer layer disposed between the first protective cover and the second protective cover, the dyed polymer layer being translucent and having a water soluble dye used to color anodized metal infused therein, wherein the optically reflective layer is viewable through the dyed polymer layer and the second protective cover as viewed from the viewing surface, thereby giving the laminated stack up an appearance of a dyed anodized metal.
Terrace skylight with many glass unit panels, said terrace skylight including a support frame , the inner area of which is divided in a grid arrangement by beams with a rectangular cross section, and wherein the rectangular fields separated by said beams are covered by glass unit panels comprising an inner glass plate , an outer glass plate and at least one inter-glass chamber which is tightly limited by spacers , characterized in that said spacers are spaced at a distance from the edges of the inner glass plate , wherein the panels are pressed against support surfaces (P) located in a common plane (O-O) on the beams by screw connectors and bottom and upper seals , wherein the support surfaces (P) are flat surfaces of the upper wall of each beam and that along the median plane of symmetry of the beams in their upper and lower walls there are holes, wherein said screw connectors have been routed via the holes in the bottom wall through the holes in the upper wall, wherein said screw connectors press edge areas of the inner glass plate which are covered by bottom seals and upper seals and rigid termination bar wherein the threaded shafts of said screw connectors are covered by flexible sleeves , preferably made of elastomer, and wherein the inter-panel chambers (X) which are located between the edges of adjacent glass unit panels and limited by the termination bar , the spacers and edge areas of the outer glass plates are filled with thermal insulation material , preferably lightweight concrete, and wherein the slots (s) between the edges of the outer glass plates are closed with a seal made of one-component polyurethane mass, and that the holes in the bottom walls of the beams are closed by detachable push-in plugs .
Control apparatus for a power tool containing at least one circuit board , a heat-conducting element , a cooling device for cooling the at least one circuit board , and at least one housing element , wherein, in a mounted state of the control apparatus , the circuit board and the heat-conducting element are arranged between the cooling device and the housing element , and wherein the heat-conducting element is positioned between the circuit board and the cooling device , wherein a preload device is included between the housing element and the at least one circuit board in order to press the circuit board against the heat-conducting element in a predetermined direction (A), wherein the preload device comprises at least one first spring element and one second spring element , characterized in that the first spring element has a first extent in a direction (A) and the second spring element has a second extent in the direction (A) and therefore has a different height. wherein a preload device is included between the housing element and the at least one circuit board in order to press the circuit board against the heat-conducting element in a predetermined direction (A), wherein the preload device comprises at least one first spring element and one second spring element , characterized in that the first spring element has a first extent in a direction (A) and the second spring element has a second extent in the direction (A) and therefore has a different height.