mhurhangee/patent-ind-claim-en huggingface dataset:
Method for connecting a first and a second line module to one another to form a gas-insulated electrical power transmission line , - wherein the first line module has a first encapsulating tube and a first electrical inner conductor located in the first encapsulating tube , and the second line module has a second encapsulating tube and a second electrical inner conductor located in the second encapsulating tube , and wherein - as part of the method, the first encapsulating tube is connected to the second encapsulating tube and the first inner conductor is connected to the second inner conductor , wherein - a retaining ring insulator unit , which has an outer retaining ring and an insulator element connected to the retaining ring and extending radially inwards from the retaining ring , is inserted into the first encapsulating tube from a tube end of the first encapsulating tube , to be precise in such a way that a weld pool backing portion of the retaining ring partly lies against the inner wall of the first encapsulating tube and partly protrudes out of the first encapsulating tube , - the second encapsulating tube is pushed onto the weld pool backing portion of the retaining ring protruding out of the first encapsulating tube , characterized in that the second encapsulating tube is pushed onto the weld pool backing portion of the retaining ring protruding out of the first encapsulating tube to such an extent that the tube ends of the two encapsulating tubes touch, and the first encapsulating tube , the second encapsulating tube and the retaining ring are welded to one another by friction stir welding. - wherein the first line module has a first encapsulating tube and a first electrical inner conductor located in the first encapsulating tube , and the second line module has a second encapsulating tube and a second electrical inner conductor located in the second encapsulating tube , and wherein - as part of the method, the first encapsulating tube is connected to the second encapsulating tube and the first inner conductor is connected to the second inner conductor , wherein - a retaining ring insulator unit , which has an outer retaining ring and an insulator element connected to the retaining ring and extending radially inwards from the retaining ring , is inserted into the first encapsulating tube from a tube end of the first encapsulating tube , to be precise in such a way that a weld pool backing portion of the retaining ring partly lies against the inner wall of the first encapsulating tube and partly protrudes out of the first encapsulating tube , - the second encapsulating tube is pushed onto the weld pool backing portion of the retaining ring protruding out of the first encapsulating tube , characterized in that
A flexible aerogel composite, comprising a silica aerogel formed from at least one difunctional silane and at least one trifunctional silane, and a three-dimensional macroporous fiber network in which the fibers are bonded together by a frictional connection at the contact points, wherein said fiber network has a pore size of 0.5 mm or more. a silica aerogel formed from at least one difunctional silane and at least one trifunctional silane, and a three-dimensional macroporous fiber network in which the fibers are bonded together by a frictional connection at the contact points, wherein said fiber network has a pore size of 0.5 mm or more.
A method of providing a document using a secure bar code from a first computing device to a second computing device which includes a bar code reader, the method comprising: encrypting , via the first computing device , the document to generate an encrypted document; scrambling together, via the first computing device , bits for a security credential with bits for the encrypted document to generate a set of mixed bits having a predetermined order, wherein the security credential is for decrypting the encrypted document; providing, to the second computing device , scrambling information that specifies the predetermined order, where the scrambling information is a shared secret between the first computing device and the second computing device ; generating a secure bar code by inserting , via the first computing device , the set of mixed bits; and outputting the secure bar code , wherein the second computing device knows the predetermined order and is configured to read the secure bar code using the bar code reader , un-scramble the mixed bits based on the scrambling information that specifies the predetermined order, and decrypt the encrypted document with the security credential . encrypting , via the first computing device , the document to generate an encrypted document; scrambling together, via the first computing device , bits for a security credential with bits for the encrypted document to generate a set of mixed bits having a predetermined order, wherein the security credential is for decrypting the encrypted document; providing, to the second computing device , scrambling information that specifies the predetermined order, where the scrambling information is a shared secret between the first computing device and the second computing device ; generating a secure bar code by inserting , via the first computing device , the set of mixed bits; and outputting the secure bar code , wherein the second computing device knows the predetermined order and is configured to read the secure bar code using the bar code reader , un-scramble the mixed bits based on the scrambling information that specifies the predetermined order, and decrypt the encrypted document with the security credential .
An information processing device comprising a main processor core having a first memory and incorporating an operating system, and a sub processor core having a second memory and not incorporating an operating system, wherein: the main processor core is configured to control the sub processor core; the main processor core is configured to develop a plurality of processes on the sub processor core and to cause the sub processor core to execute the processes; the main processor core is configured to create a shared memory area on the first memory and to create a shared memory area on the second memory, in response to a request for allocation of shared mapping of a memory mapped file from the sub processor core; and the main processor core includes synchronization means configured to: synchronize the shared memory area created on the first memory with the shared memory area created on the second memory by, when the sub processor core is in a predetermined stopped state, copy data in the shared memory area created on the first memory to the shared memory area created on the second memory, or copy data in the shared memory area created on the second memory to the shared memory area created on the first memory, depending on a cause of the stopped state. the main processor core is configured to control the sub processor core; the main processor core is configured to develop a plurality of processes on the sub processor core and to cause the sub processor core to execute the processes; the main processor core is configured to create a shared memory area on the first memory and to create a shared memory area on the second memory, in response to a request for allocation of shared mapping of a memory mapped file from the sub processor core; and the main processor core includes synchronization means configured to: synchronize the shared memory area created on the first memory with the shared memory area created on the second memory by, when the sub processor core is in a predetermined stopped state, copy data in the shared memory area created on the first memory to the shared memory area created on the second memory, or copy data in the shared memory area created on the second memory to the shared memory area created on the first memory, depending on a cause of the stopped state.
An asphalt composition for use in roofing applications comprising: non-oxidized base asphalt; and a low MW polyolefin present in an amount of from 0.1 to 1.8 wt % based on the total weight of the asphalt composition, wherein said asphalt composition has a softening point from 87.8 to 160 °C (190 to 320 °F), and a penetration of greater than 12 deci-millimeters (dmm, or 0.1mm) @ 25 °C, and wherein the low MW polyolefin has a crystallinity of from 30 to 100 percent (%). non-oxidized base asphalt; and a low MW polyolefin present in an amount of from 0.1 to 1.8 wt % based on the total weight of the asphalt composition, wherein said asphalt composition has a softening point from 87.8 to 160 °C (190 to 320 °F), and a penetration of greater than 12 deci-millimeters (dmm, or 0.1mm) @ 25 °C, and wherein the low MW polyolefin has a crystallinity of from 30 to 100 percent (%).
Method for performing crystalline growth a monocrystalline target layer by epitaxy successively comprising: - providing a substrate comprising a first monocrystalline layer made of silicon-germanium alloy with a first surface covered by a protective oxide obtained by wet process oxidation of the first surface or obtained by thermal process, the first surface having a degradation temperature at which the first surface forms dots, - subjecting the protective oxide to plasma treatment to form a fluorinated salt and then eliminating the fluorinated salt by means of an anneal, - inserting the substrate in a processing chamber at a loading temperature lower than the degradation temperature, - subjecting the substrate to a temperature ramp from the loading temperature to an annealing temperature higher than the degradation temperature, - annealing the first surface at a temperature higher than or equal to the annealing temperature in a hydrogen or nitrogen atmosphere, - depositing the monocrystalline target layer lattice matched with the first monocrystalline layer by chemical vapor deposition, method characterised in that during the temperature ramp and possibly when the anneal is performed, at least one silicon precursor is inserted in the processing chamber between the loading temperature and the degradation temperature so as to deposit a monocrystalline buffer layer lattice matched with the monocrystalline first layer , the monocrystalline buffer layer separating the monocrystalline target layer and the monocrystalline first layer . - providing a substrate comprising a first monocrystalline layer made of silicon-germanium alloy with a first surface covered by a protective oxide obtained by wet process oxidation of the first surface or obtained by thermal process, the first surface having a degradation temperature at which the first surface forms dots, - subjecting the protective oxide to plasma treatment to form a fluorinated salt and then eliminating the fluorinated salt by means of an anneal, - inserting the substrate in a processing chamber at a loading temperature lower than the degradation temperature, - subjecting the substrate to a temperature ramp from the loading temperature to an annealing temperature higher than the degradation temperature, - annealing the first surface at a temperature higher than or equal to the annealing temperature in a hydrogen or nitrogen atmosphere, - depositing the monocrystalline target layer lattice matched with the first monocrystalline layer by chemical vapor deposition,
Film bag assembly with a bag body having at least two front walls made of film and with a sleeve arranged on the bag body , which extends only over a part of height (h F ) of the front walls determined between a lower edge and an upper edge of the front walls , wherein the front walls have mutually opposite side edges which run between the upper edge and the lower edge and are provided with longitudinal seams and wherein the bag body has a constriction between the upper edge and the lower edge of the front walls , characterized in that the constriction is formed by an upper and a lower offset of the side edges , wherein the distance (h Z ) between the upper and lower offsets corresponds to at least one height (h B ) of the sleeve .
An electrolyte composition suitable for an alkali battery, said electrolyte composition comprising: a) at least one alkali metal salt of formula (I): wherein, M + is Li + , Na + or K + ; R F is -C n F 2n+1 , wherein n is an integer selected from 0, 1, 2, 3 and 4; R 1 is a -C m H 2m+1 alkyl group and R 2 is a -Cm'H 2m'+1 , wherein m and m' are integers so that 36 ≥ m + m' ≥ 5; and b) an electrochemical solvent, wherein the electrochemical solvent is any liquid, solid or gel compound capable of storing and transporting ions, so long as the compound is substantially electrochemically and chemically unreactive with respect to the anode and the cathode, and the compound facilitates the transport of ions between the anode and the cathode. a) at least one alkali metal salt of formula (I): wherein, M + is Li + , Na + or K + ; R F is -C n F 2n+1 , wherein n is an integer selected from 0, 1, 2, 3 and 4; R 1 is a -C m H 2m+1 alkyl group and R 2 is a -Cm'H 2m'+1 , wherein m and m' are integers so that 36 ≥ m + m' ≥ 5; and M + is Li + , Na + or K + ; R F is -C n F 2n+1 , wherein n is an integer selected from 0, 1, 2, 3 and 4; R 1 is a -C m H 2m+1 alkyl group and R 2 is a -Cm'H 2m'+1 , wherein m and m' are integers so that 36 ≥ m + m' ≥ 5; and b) an electrochemical solvent, wherein the electrochemical solvent is any liquid, solid or gel compound capable of storing and transporting ions, so long as the compound is substantially electrochemically and chemically unreactive with respect to the anode and the cathode, and the compound facilitates the transport of ions between the anode and the cathode.
A centrifugally cast composite metal product having an axis of rotational symmetry and an axially extending exterior surface and a mass of at least 5kg and comprising a ferrous metal matrix and 5-50 vol% solid particles of a refractory material throughout the ferrous metal matrix, the refractory particles being insoluble at a casting temperature, the refractory particles being carbides and/or borides and/or nitrides of one or more than one of the nine transition metals titanium, zirconium, hafnium, vanadium, niobium, tantalum, chromium, molybdenum and tungsten, where the particles are a chemical mixture, as opposed to a physical mixture, of the carbides and/or borides and/or nitrides of the transition metals, the refractory particles having a density that is within 20% of the density of the ferrous metal at its casting temperature, wherein a first concentration of refractory particles in an exterior surface layer of the product is in a range of 10-40 vol% of the total volume of the exterior surface layer, and wherein a second concentration of refractory particles in an interior layer of the product is in a range of 2-4.5 vol% of the total volume of the interior layer.
A method comprising: directing an x-ray excitation beam onto at least a portion of an item of interest , the x-ray excitation beam causing the item of interest to fluorescently emit x-rays at various energies; characterized by : measuring an intensity of a first energy that corresponds to an L-alpha energy emission line of gold, the first energy identified from x-rays fluorescently emitted from the item of interest ; measuring an intensity of a second energy that corresponds to an L-beta energy emission line of gold, the second energy identified from x-rays fluorescently emitted from the item of interest ; calculating a ratio of measured intensities between the intensity of the first energy and the intensity of the second energy ; and in response to identifying that the calculated ratio is greater than a first predetermined value or less than a second predetermined value, producing an indication that the item of interest is gold-plated. measuring an intensity of a first energy that corresponds to an L-alpha energy emission line of gold, the first energy identified from x-rays fluorescently emitted from the item of interest ; measuring an intensity of a second energy that corresponds to an L-beta energy emission line of gold, the second energy identified from x-rays fluorescently emitted from the item of interest ; calculating a ratio of measured intensities between the intensity of the first energy and the intensity of the second energy ; and in response to identifying that the calculated ratio is greater than a first predetermined value or less than a second predetermined value, producing an indication that the item of interest is gold-plated.
Method for controlling a deployment operation for motor vehicles in a parking environment in which motor vehicles can be automatically parked in a controlled manner by a management apparatus of the parking environment after being released by the driver and removed to a pick-up position in a pick-up region after a pick-up request by the driver has been ascertained, said parking environment having multiple pick-up regions , wherein, upon releasing the motor vehicle , the driver is supplied by the management apparatus with authentication information which can be retrieved optically and/or wirelessly via a reading connection , is specific to the parking process and is assigned to the motor vehicle , characterised in that the authentication information is read by a reading apparatus in the parking environment in order to pick up the motor vehicle , and the deployment operation is initiated only when authentication information is present, wherein a reading apparatus is assigned to each pick-up region , wherein the pick-up position of a motor vehicle is selected when there is a pick-up request in the pick-up region assigned to the reading apparatus reading the authentication information assigned to the motor vehicle .
Method for the recurrent parking of a vehicle in a parking area , in which during a first parking operation into the parking area surroundings information of the parking area is registered with an acquisition device of the vehicle , wherein during the first parking operation the surroundings information is displayed on a display unit , wherein a vehicle user selects from the displayed surroundings information at least one object from a first object category as surroundings information which characterizes the parking area and/or selects from the displayed surroundings information at least one object from at least one second object category, different from the first, as surroundings information which characterizes the parking area , wherein the selected objects (6 to 9) are stored and, for the recurrent parking in accordance with selected and stored objects (6 to 9), a currently registered parking area is detected as the parking area during the first parking operation, characterized in that during the first parking operation into the parking area at least one positionally fixed, immovable object is displayed, and this object is assigned by selecting the first object category, wherein a number m of objects of the first object category is selected and stored, and when a maximum of m-1 objects of the first object category is subsequently detected for a subsequent recurrent parking operation, an informative value is determined for the probability with which the current parking area corresponds to the parking area during the first parking operation.
A cooling device comprising a body having a liner , an outer case comprising a back wall made of a papery material, an intermediate volume between the liner and the outer case and an insulation material filled into the intermediate volume , wherein the back wall of the outer case comprises an outer surface and plurality of protrusions and/or recesses arranged on the outer surface ; characterized in that the protrusions and/or recesses are arranged substantially on the whole outer surface of the back wall , defining a plurality of concentric closed shapes spaced apart from one another on the outer surface of the back wall .
A device comprising: a display package comprising a moulding compound ; a plurality of light emitting diode (LED) dies arranged on a top surface of the display package , wherein each LED die of the plurality of dies comprises a plurality of LEDs; a backplane die embedded within the moulding compound of the display package , wherein the backplane die is electrically coupled to each LED die of the plurality of LED dies; and at least one spacer structure embedded within the moulding compound of the display package , wherein: the backplane die and the at least one spacer structure together provide mechanical support and planar alignment for the plurality of LED dies arranged on the top surface of the display package , and the at least one spacer structure has a first thermal conductivity, and the moulding compound has a second thermal conductivity lower than the first thermal conductivity, and the at least one spacer structure occupies a larger portion of a volume of the display package than the moulding compound .
A camera module , comprising: a camera motor , wherein the camera motor comprises a focusing part , and the focusing part comprises a base , a carrier , and a driver ; the driver is fastened to the base , and is configured to drive the carrier to move relative to the base in a specified direction; and in the specified direction, an installation hole is formed on the carrier ; a lens , wherein the lens is fastened in the installation hole , and an optical axis of the lens is parallel to the specified direction; a variable aperture , wherein the variable aperture is fastened on the carrier and is located on a light incoming side of the lens and the variable aperture comprises a drive structure ; and an image sensor assembly , wherein the image sensor assembly is disposed at one end that is of the base and that is away from the variable aperture , wherein the focusing part further comprises a control assembly , the control assembly is electrically connected to the driver , and the control assembly is electrically connected to the variable aperture by using a connection assembly, wherein the connection assembly comprises a first spring , the first spring is disposed on a side that is of the carrier and that faces the variable aperture , and the first spring and the drive structure of the variable aperture are connected, and the first spring is electrically connected to the variable aperture and the control assembly separately. a camera motor , wherein the camera motor comprises a focusing part , and the focusing part comprises a base , a carrier , and a driver ; the driver is fastened to the base , and is configured to drive the carrier to move relative to the base in a specified direction; and in the specified direction, an installation hole is formed on the carrier ; a lens , wherein the lens is fastened in the installation hole , and an optical axis of the lens is parallel to the specified direction; a variable aperture , wherein the variable aperture is fastened on the carrier and is located on a light incoming side of the lens and the variable aperture comprises a drive structure ; and an image sensor assembly , wherein the image sensor assembly is disposed at one end that is of the base and that is away from the variable aperture , wherein the focusing part further comprises a control assembly , the control assembly is electrically connected to the driver , and the control assembly is electrically connected to the variable aperture by using a connection assembly, wherein the connection assembly comprises a first spring , the first spring is disposed on a side that is of the carrier and that faces the variable aperture , and the first spring and the drive structure of the variable aperture are connected, and the first spring is electrically connected to the variable aperture and the control assembly separately.