mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: identifying a message to a plug and play, PnP, manager of an operating system, the message comprising an identifier of a device to be configured by the PnP manager, determining that the device is targeted for device identifier translation based upon one or more target device criteria by determining that the device satisfies the one or more target device criteria, the one or more target device criteria specifying that the device is to be accessed during a boot process executable by the operating system, and replacing the identifier of the device with a reference identifier different from the identifier of the device in response to determining that the device is targeted for device identifier translation, the reference identifier being usable by the PnP manager to install or configure the device. identifying a message to a plug and play, PnP, manager of an operating system, the message comprising an identifier of a device to be configured by the PnP manager, determining that the device is targeted for device identifier translation based upon one or more target device criteria by determining that the device satisfies the one or more target device criteria, the one or more target device criteria specifying that the device is to be accessed during a boot process executable by the operating system, and replacing the identifier of the device with a reference identifier different from the identifier of the device in response to determining that the device is targeted for device identifier translation, the reference identifier being usable by the PnP manager to install or configure the device.
Method for multi-dimensionally structuring at least one connection section of a ceramic component, wherein the connection section is provided for forming an adhesive bond with fibre-reinforced polymer laminate, and wherein the method comprises the following steps: 1.) Producing a milliscale structure, i.e. a macrostructure having dimensions larger than 1000 μm, by forming anchoring elements at the connection section; 2.) Producing a microscale structure, i.e. a microstructure having dimensions between 1 μm and 1000 μm, on the connection section and the anchoring elements; 3.) Producing a nanoscale structure, i.e. a nanostructure having dimensions smaller than 1 μm, over the microscale structure on the connection section and the anchoring elements. 1.) Producing a milliscale structure, i.e. a macrostructure having dimensions larger than 1000 μm, by forming anchoring elements at the connection section; 2.) Producing a microscale structure, i.e. a microstructure having dimensions between 1 μm and 1000 μm, on the connection section and the anchoring elements; 3.) Producing a nanoscale structure, i.e. a nanostructure having dimensions smaller than 1 μm, over the microscale structure on the connection section and the anchoring elements.
Controlling device for an information display system for displaying an operating condition of a hybrid vehicle, comprising: an input interface that is designed to receive at least one first operating signal comprising information about an operating condition of an internal combustion engine of the hybrid vehicle, and a second operating signal comprising information about an operating condition of an electric motor of the hybrid vehicle; and a processor that is designed to generate a display signal , such that a display device produces a rendering of a circular or annular display area within which the information about the operating condition of the internal combustion engine in a first segment of the circular or annular display area ; the controlling device is characterized in that the information about the operating condition of the electric motor is displayed in a second segment of the circular or annular display area ; wherein the processor is designed to generate the display signal such that a rotational speed of the internal combustion engine is displayed in the first segment and a charging power of a battery of the electric motor is displayed in a first sector of the second segment , and in that an output interface is designed to provide the display signal to the display device . an input interface that is designed to receive at least one first operating signal comprising information about an operating condition of an internal combustion engine of the hybrid vehicle, and a second operating signal comprising information about an operating condition of an electric motor of the hybrid vehicle; and a processor that is designed to generate a display signal , such that a display device produces a rendering of a circular or annular display area within which the information about the operating condition of the internal combustion engine in a first segment of the circular or annular display area ; the controlling device is characterized in that the information about the operating condition of the electric motor is displayed in a second segment of the circular or annular display area ; wherein the processor is designed to generate the display signal such that a rotational speed of the internal combustion engine is displayed in the first segment and a charging power of a battery of the electric motor is displayed in a first sector of the second segment , and in that an output interface is designed to provide the display signal to the display device .
A method for a transmission to a station, STA, the method comprising: parsing an encoded bit stream into a plurality of spatial streams; determining an allocation of encoded bits associated with the plurality of spatial streams to a plurality of interleavers, wherein the allocation is based on a resource unit, RU, configuration and channel related feedback information, and wherein each of the plurality of interleavers is associated with one or more RUs of multiple RUs associated with the transmission; allocating the encoded bits to the plurality of interleavers based on the determined allocation; interleaving the encoded bits using the plurality of interleavers; and transmitting the interleaved encoded bits using the associated one or more RUs. parsing an encoded bit stream into a plurality of spatial streams; determining an allocation of encoded bits associated with the plurality of spatial streams to a plurality of interleavers, wherein the allocation is based on a resource unit, RU, configuration and channel related feedback information, and wherein each of the plurality of interleavers is associated with one or more RUs of multiple RUs associated with the transmission; allocating the encoded bits to the plurality of interleavers based on the determined allocation; interleaving the encoded bits using the plurality of interleavers; and transmitting the interleaved encoded bits using the associated one or more RUs.
An inductive coupling device comprising: a. a metal housing comprising an upper layer and a lower layer , b. a primary comprising: i. a first winding with first turns (N1) each having a first cross section (S1), located adjacent to the upper layer of the housing, and ii. a first element of ferromagnetic material arranged between the first winding and the upper layer , and c. a secondary comprising: i. a second winding with second turns (N2) each having a second cross section (S2), and ii. a second element of ferromagnetic material arranged between the second winding and the lower layer of the housing, d. at least one layer of dielectric material arranged between the first winding and the second winding , separating the upper layer and the lower layer , wherein the first element of ferromagnetic material and the second ferromagnetic material correspond to portions of a ferromagnetic core of the inductive coupling device, characterised in that the first and second windings have a planar distribution and the first and second elements of ferromagnetic material are disc-shaped. a. a metal housing comprising an upper layer and a lower layer , b. a primary comprising: i. a first winding with first turns (N1) each having a first cross section (S1), located adjacent to the upper layer of the housing, and ii. a first element of ferromagnetic material arranged between the first winding and the upper layer , and i. a first winding with first turns (N1) each having a first cross section (S1), located adjacent to the upper layer of the housing, and ii. a first element of ferromagnetic material arranged between the first winding and the upper layer , and c. a secondary comprising: i. a second winding with second turns (N2) each having a second cross section (S2), and ii. a second element of ferromagnetic material arranged between the second winding and the lower layer of the housing, i. a second winding with second turns (N2) each having a second cross section (S2), and ii. a second element of ferromagnetic material arranged between the second winding and the lower layer of the housing, d. at least one layer of dielectric material arranged between the first winding and the second winding , separating the upper layer and the lower layer , wherein the first element of ferromagnetic material and the second ferromagnetic material correspond to portions of a ferromagnetic core of the inductive coupling device,
A driving assistance device comprising: a second acquisition unit that acquires traffic mirror information that includes position information for a traffic mirror (LM); a third acquisition unit that acquires position information for a moving body (MV); characterized by a first acquisition unit that acquires information about the surroundings of said moving body (MV), acquired by using a laser radar mounted to the moving body (MV); and an extraction unit that, on the basis of the results of acquisition by using said second acquisition unit and by using said third acquisition unit, extracts information about the surroundings acquired via said traffic mirror (LM) from among the results of acquisition by using said first acquisition unit. a second acquisition unit that acquires traffic mirror information that includes position information for a traffic mirror (LM); a third acquisition unit that acquires position information for a moving body (MV); characterized by a first acquisition unit that acquires information about the surroundings of said moving body (MV), acquired by using a laser radar mounted to the moving body (MV); and an extraction unit that, on the basis of the results of acquisition by using said second acquisition unit and by using said third acquisition unit, extracts information about the surroundings acquired via said traffic mirror (LM) from among the results of acquisition by using said first acquisition unit.
A luminescent particle including a surface comprising glass that surrounds one or more particles of one or more light emissive materials, the glass comprising a vitrified metal oxide or a vitrified fumed metal oxide, wherein said light emissive materials comprise light emissive nanomaterials, wherein at least one of the light emissive nanomaterials comprises a plurality of quantum dots, wherein the quantum dots comprises a core comprising a semiconductor material and a shell comprising a semiconductor material having a composition that is different from a composition of the core, wherein the semiconductor material comprises a Group II-VI compound, a Group II-V compound, a Group III- VI compound, a Group III-V compound, a Group IV-VI compound, a Group I-III-VI compound, a Group II-IV-VI compound, a Group II-IV-V compound, an alloy including any of the foregoing, and/or a mixture including any of the foregoing, wherein the particles are encapsulated in a host material and the glass surrounds the encapsulated particles, and wherein the light emissive nanomaterials are present in an amount of 0.05 to 10 weight percent of the host material.
Metal cementing apparatus , formed by a vessel or tank having therein a liquid phase formed by a solution containing a noble metal, and a solid phase formed by a cementing metal or a metal less noble than the one mentioned above, placed in contact with the solution , characterized in that one of said phases moves at a high speed in relation to the other phase, with the difference in speeds being such that it allows the cementation of the noble metal on the solid phase and the simultaneous detachment and separation thereof, and comprises means for generating the movement of at least the phase having the high speed and removing means for removing the precipitated noble metal from the bottom of the tank to the outside thereof, wherein the means for generating movement comprise at least one shaft including at least one disc formed by cementing metal coupled thereto, where the at least one shaft is attached to at least one drive element which rotates it, such that the solid phase moves faster in relation to the liquid phase, and where the at least one disc associated with the shaft is completely submerged in the solution throughout the entire process, characterized in that the at least one shaft being located inside the vessel in a horizontal position, with the height thereof inside the vessel being such that the at least one disc is submerged in the solution .
A circuit for use in a first device and for transferring data from the first device to a second device , wherein the first device is a slave device and operates based on a first, non-continuous clock signal and the second device operates based on a second clock signal that is asynchronous with the first clock signal, the circuit comprising: a clock detection circuit that (i) is configured to receive a data transfer request signal from the second device for transferring data from the first device to the second device, and (ii) is configured to generate a sync signal that is inactive when the first clock signal is absent and asserted when the first clock signal is present and the data transfer request signal is active; a register bank that is configured to store the data; a temporary storage register connected to the clock detection circuit for receiving the sync signal and to the register bank for receiving the data therefrom, wherein the temporary storage register receives the data when the sync signal is asserted; and a datapath selector connected to the register bank and the temporary storage register, wherein the datapath selector is configured to output the data from the temporary storage register and in the event that the sync signal is asserted and from the register bank in the event that the sync signal is inactive. a clock detection circuit that (i) is configured to receive a data transfer request signal from the second device for transferring data from the first device to the second device, and (ii) is configured to generate a sync signal that is inactive when the first clock signal is absent and asserted when the first clock signal is present and the data transfer request signal is active; a register bank that is configured to store the data; a temporary storage register connected to the clock detection circuit for receiving the sync signal and to the register bank for receiving the data therefrom, wherein the temporary storage register receives the data when the sync signal is asserted; and a datapath selector connected to the register bank and the temporary storage register, wherein the datapath selector is configured to output the data from the temporary storage register and in the event that the sync signal is asserted and from the register bank in the event that the sync signal is inactive.
A method for providing a combustible beverage liquid to a beverage container , comprising: filling the beverage container, within an enclosure , with the combustible beverage liquid ; and inducing a non-hazardous zone within the enclosure and encompassing the beverage container during the operation of filling by: maintaining the beverage liquid at a temperature below a flash point temperature of the beverage liquid using a chilling module configured to reduce or maintain a reduced temperature of the beverage liquid within the enclosure ; diluting vapors of the beverage liquid associated with the operation of filling the beverage container using a ventilation module configured to dilute vapors of the beverage liquid within the enclosure ; and diluting stray beverage liquid associated with the operation of filling the beverage container using a capture module configured to dilute stray beverage liquid within the enclosure ; and wherein the capture module comprises, within the enclosure: a catch configured to collect stray beverage liquid, a flush adapted to provide a diluent to the catch for diluting the stray beverage liquid, and an exit for removing a combination of the diluent and the stray beverage liquid from the non-hazardous zone. filling the beverage container, within an enclosure , with the combustible beverage liquid ; and inducing a non-hazardous zone within the enclosure and encompassing the beverage container during the operation of filling by: maintaining the beverage liquid at a temperature below a flash point temperature of the beverage liquid using a chilling module configured to reduce or maintain a reduced temperature of the beverage liquid within the enclosure ; diluting vapors of the beverage liquid associated with the operation of filling the beverage container using a ventilation module configured to dilute vapors of the beverage liquid within the enclosure ; and diluting stray beverage liquid associated with the operation of filling the beverage container using a capture module configured to dilute stray beverage liquid within the enclosure ; and maintaining the beverage liquid at a temperature below a flash point temperature of the beverage liquid using a chilling module configured to reduce or maintain a reduced temperature of the beverage liquid within the enclosure ; diluting vapors of the beverage liquid associated with the operation of filling the beverage container using a ventilation module configured to dilute vapors of the beverage liquid within the enclosure ; and diluting stray beverage liquid associated with the operation of filling the beverage container using a capture module configured to dilute stray beverage liquid within the enclosure ; and wherein the capture module comprises, within the enclosure: a catch configured to collect stray beverage liquid, a flush adapted to provide a diluent to the catch for diluting the stray beverage liquid, and an exit for removing a combination of the diluent and the stray beverage liquid from the non-hazardous zone.
Cylinder for pressurized fluid, notably pressurized gas, comprising a control valve housing a fluid circuit provided with at least one valve , the cylinder comprising a pressure indicator device comprising a piston sensitive to the pressure in the cylinder and mobile relative to the body of the control valve according to the pressure level in the cylinder between at least a first, retracted position and a second, deployed position, the pressure indicator device further comprising at least one information medium that can be displaced between at least two distinct positions or states to symbolize, respectively, at least two pressure levels depending on the position of the piston , the information medium being mobile relative to the control valve between at least a first position and a second position, the information medium being stressed towards its second position via a return member , the pressure indicator device comprising a stop that is mobile between a blocking position preventing the displacement of the information medium from its first position to its second position and an unblocking position allowing the displacement of the information medium from its first position to its second position, characterized in that the mobile stop is an intermediate part disposed between the piston and the information medium .
A handover control method of a network node of a cellular communication network, the cellular communication network comprising one or more other network nodes , the method comprising, receiving one or more signals from the other network node, wherein the one or more signals are indicative of: a result of uplink signal strength measurements performed by the other network node in relation to a wireless communication device operating in association with the cellular communication network; and an available downlink transmission power value of the other network node, wherein the available downlink transmission power value is defined by a maximum possible transmission power of the network node and/or by a currently used transmission power of the network node; and basing a handover decision on an estimated downlink received power of the wireless communication device in relation to the other network node, wherein the estimated downlink received power is based on the result of the uplink signal strength measurements adjusted by a factor comprising the available downlink transmission power. a result of uplink signal strength measurements performed by the other network node in relation to a wireless communication device operating in association with the cellular communication network; and an available downlink transmission power value of the other network node, wherein the available downlink transmission power value is defined by a maximum possible transmission power of the network node and/or by a currently used transmission power of the network node; and
A method for manufacturing a hot forming die comprising: providing a first die having a first die structure; forming a first die surface on the first die structure, the first die surface having a complex shape; forming a plurality of cooling channels in the first die structure, each of the cooling channels having a contour that generally follows the complex shape of the first die surface ; and forming a second die having a second die structure with a second die surface formed on the second die structure; the first and second die surfaces cooperating to form a die cavity, characterized in that the first die structure includes a cap comprising a cap wall and a flange extending partially around the cap wall , a cap insert and an end member , wherein the cap forms a first shell and wherein the end member is fixedly coupled to an associated end of the cap so that is forms the missing portion of the flange , the assembly of the cap and the end member forms a cavity in which the cap insert is at least partially disposed, wherein at least one cooling channel of the plurality of cooling channels is formed between the cap and the end member and further cooling channels of the plurality of cooling channels is formed between the cap and the cap insert . providing a first die having a first die structure; forming a first die surface on the first die structure, the first die surface having a complex shape; forming a plurality of cooling channels in the first die structure, each of the cooling channels having a contour that generally follows the complex shape of the first die surface ; and forming a second die having a second die structure with a second die surface formed on the second die structure; the first and second die surfaces cooperating to form a die cavity, characterized in that the first die structure includes a cap comprising a cap wall and a flange extending partially around the cap wall , a cap insert and an end member , wherein the cap forms a first shell and wherein the end member is fixedly coupled to an associated end of the cap so that is forms the missing portion of the flange , the assembly of the cap and the end member forms a cavity in which the cap insert is at least partially disposed, wherein at least one cooling channel of the plurality of cooling channels is formed between the cap and the end member and further cooling channels of the plurality of cooling channels is formed between the cap and the cap insert .