mhurhangee/ep-ind-claims huggingface dataset:
An accessory device, comprising: a case defining a first cavity configured to receive a portable electronic device and a second cavity configured to receive at least a portion of an aerosol delivery device comprising a battery, and an interface configured to establish an electrical connection between the battery of the aerosol delivery device and the portable electronic device, the portable electronic device being selected from a group consisting of a personal digital assistant, a cellular telephone, a smartphone, and a digital media player, the case being configured to substantially entirely surround the portable electronic device and defining one or more openings (608; 660; 662; 666) configured to provide access to one or more user interface mechanisms (208a; 208b; 208c; 208d; 208e) of the portable electronic device, the case being configured to releasably retain the portable electronic device in the first cavity. a case defining a first cavity configured to receive a portable electronic device and a second cavity configured to receive at least a portion of an aerosol delivery device comprising a battery, and an interface configured to establish an electrical connection between the battery of the aerosol delivery device and the portable electronic device, the portable electronic device being selected from a group consisting of a personal digital assistant, a cellular telephone, a smartphone, and a digital media player, the case being configured to substantially entirely surround the portable electronic device and defining one or more openings (608; 660; 662; 666) configured to provide access to one or more user interface mechanisms (208a; 208b; 208c; 208d; 208e) of the portable electronic device, the case being configured to releasably retain the portable electronic device in the first cavity.
Apparatus for calibrating at least one heat image camera (1; 2), wherein said apparatus comprises: A first and a second calibrating radiator (5, 6), which are configured such that they can be brought to different temperatures at the same time, a mounting module for mounting said heat image camera (1; 2) movably at said apparatus, wherein said mounting module is configured for movably mounting said heat image camera (1; 2) in such a way that it is enabled that the heat image camera (1; 2) is at first directed to said first and then to said second calibrating radiator (5, 6) to take an image of the calibrating radiators (5, 6), which have been brought to different temperatures, to calibrate said heat image camera (1, 2), wherein said mounting module is configured such that a first and a second heat image camera are movably mountable to said apparatus, then are movably mounted such that said first heat image camera is directable to said first calibrating radiator, while at the same time the second heat image camera is directable to said second calibrating radiator, and further being mounted such that the first heat image camera is directable to said second calibrating radiator while at the same time the second heat image camera is directable to said first calibrating radiator. A first and a second calibrating radiator (5, 6), which are configured such that they can be brought to different temperatures at the same time, a mounting module for mounting said heat image camera (1; 2) movably at said apparatus, wherein said mounting module is configured for movably mounting said heat image camera (1; 2) in such a way that it is enabled that the heat image camera (1; 2) is at first directed to said first and then to said second calibrating radiator (5, 6) to take an image of the calibrating radiators (5, 6), which have been brought to different temperatures, to calibrate said heat image camera (1, 2), wherein said mounting module is configured such that a first and a second heat image camera are movably mountable to said apparatus, then are movably mounted such that said first heat image camera is directable to said first calibrating radiator, while at the same time the second heat image camera is directable to said second calibrating radiator, and further being mounted such that the first heat image camera is directable to said second calibrating radiator while at the same time the second heat image camera is directable to said first calibrating radiator.
Storage compartment for a vehicle, for receiving at least one mobile device, comprising: - a storage element which forms a receiving space for receiving the device, - a cover element which at least partially covers the receiving space, - a lid element which is formed on the cover element and at least partially surrounds it, so that the lid element forms a storage surface, the storage compartment being designed to be inserted into a receptacle of a center console of the vehicle, or the storage compartment being designed to be inserted into a receptacle between an instrument panel and a center console of the vehicle, and the lid element being hingedly connected to the storage element and at least partially covering the receiving space, and the cover element being designed to stabilize at least the lid element, characterized in that the cover element is produced from a hard component, the storage element and the lid element each being produced from a soft component, and the lid element having at least one wall element which protrudes from an edge of the storage surface, in particular orthogonally, and thus delimits the storage surface, so that the lid element forms a tray for receiving objects. - a storage element which forms a receiving space for receiving the device, - a cover element which at least partially covers the receiving space, - a lid element which is formed on the cover element and at least partially surrounds it, so that the lid element forms a storage surface, the storage compartment being designed to be inserted into a receptacle of a center console of the vehicle, or the storage compartment being designed to be inserted into a receptacle between an instrument panel and a center console of the vehicle, and the lid element being hingedly connected to the storage element and at least partially covering the receiving space, and the cover element being designed to stabilize at least the lid element, characterized in that the cover element is produced from a hard component, the storage element and the lid element each being produced from a soft component, and the lid element having at least one wall element which protrudes from an edge of the storage surface, in particular orthogonally, and thus delimits the storage surface, so that the lid element forms a tray for receiving objects. the storage compartment being designed to be inserted into a receptacle of a center console of the vehicle, or the storage compartment being designed to be inserted into a receptacle between an instrument panel and a center console of the vehicle, and the lid element being hingedly connected to the storage element and at least partially covering the receiving space, and the cover element being designed to stabilize at least the lid element, characterized in that the cover element is produced from a hard component, the storage element and the lid element each being produced from a soft component, and the lid element having at least one wall element which protrudes from an edge of the storage surface, in particular orthogonally, and thus delimits the storage surface, so that the lid element forms a tray for receiving objects.
An electric power conversion device for generating a PWM output signal using a carrier frequency and outputting an AC voltage using the PWM output signal, comprising: a carrier frequency setting unit configured to set a plurality of carrier frequencies to be switched for varying the carrier frequency used for generation of the PWM output signal periodically; a carrier frequency restricting unit configured to restrict carrier frequencies; a carrier frequency generating unit configured to generate the carrier frequency used for PWM generation from an output of the carrier frequency setting unit and the carrier frequency restricting unit; a PWM generating unit configured to generate the PWM output signal using the carrier frequency generated by the carrier frequency generating unit; and an AC converting unit configured to output the AC voltage using the PWM output signal, characterised in that the carrier frequency restricting unit is configured to determine for each of the plurality of set carrier frequencies whether or not any of its frequency and its frequency components of n times its frequency, with n being a positive integer, is in a predetermined range and, if not, output the carrier frequency whereas, if yes, do not output the carrier frequency or output it for a shorter period than the period of carrier frequencies outside said predetermined range, in order to reduce an output current noise of the electric power conversion device. a carrier frequency setting unit configured to set a plurality of carrier frequencies to be switched for varying the carrier frequency used for generation of the PWM output signal periodically; a carrier frequency restricting unit configured to restrict carrier frequencies; a carrier frequency generating unit configured to generate the carrier frequency used for PWM generation from an output of the carrier frequency setting unit and the carrier frequency restricting unit; a PWM generating unit configured to generate the PWM output signal using the carrier frequency generated by the carrier frequency generating unit; and an AC converting unit configured to output the AC voltage using the PWM output signal, characterised in that the carrier frequency restricting unit is configured to determine for each of the plurality of set carrier frequencies whether or not any of its frequency and its frequency components of n times its frequency, with n being a positive integer, is in a predetermined range and, if not, output the carrier frequency whereas, if yes, do not output the carrier frequency or output it for a shorter period than the period of carrier frequencies outside said predetermined range, in order to reduce an output current noise of the electric power conversion device.
An apparatus, comprising: a memory controller configured to provide memory instructions; a memory coupled to the memory controller and configured to receive a memory instruction therefrom and perform a memory operation responsive thereto, the memory further configured to provide an acknowledgement indicative of an end of a variable latency period, characterized in that the acknowledgement includes information related to whether the memory instruction is accepted or rejected, the memory further configured to exchange data associated with the memory instruction with the memory controller following the acknow ledgement, wherein: the acknowledgement includes the information that the latency period has ended with further qualifications, the further qualifications comprising information indicative that the memory instruction is accepted with an error or a warning, or the acknowledgement includes information that the memory instruction is rejected. a memory controller configured to provide memory instructions; a memory coupled to the memory controller and configured to receive a memory instruction therefrom and perform a memory operation responsive thereto, the memory further configured to provide an acknowledgement indicative of an end of a variable latency period, characterized in that the acknowledgement includes information related to whether the memory instruction is accepted or rejected, the memory further configured to exchange data associated with the memory instruction with the memory controller following the acknow ledgement, wherein: the acknowledgement includes the information that the latency period has ended with further qualifications, the further qualifications comprising information indicative that the memory instruction is accepted with an error or a warning, or the acknowledgement includes information that the memory instruction is rejected. the acknowledgement includes the information that the latency period has ended with further qualifications, the further qualifications comprising information indicative that the memory instruction is accepted with an error or a warning, or the acknowledgement includes information that the memory instruction is rejected.
A method for embedding a deterministic number of dopant atoms in a surface portion of a group IV semiconductor lattice, the method comprising the steps of: a) forming one or more lithographic sites on the surface portion; b) dosing, at a temperature below 100 K, the surface portion using a gas with molecules comprising the dopant atom and hydrogen atoms in a manner such that, a portion of the molecules bonds to the surface portion; and c) incorporating one or more dopant atoms in a respective lithographic site by transferring an amount of energy to the dopant atoms; wherein the number of dopant atoms incorporated in a lithographic site is deterministic and related to the size of the lithographic site. a) forming one or more lithographic sites on the surface portion; b) dosing, at a temperature below 100 K, the surface portion using a gas with molecules comprising the dopant atom and hydrogen atoms in a manner such that, a portion of the molecules bonds to the surface portion; and c) incorporating one or more dopant atoms in a respective lithographic site by transferring an amount of energy to the dopant atoms;
A mixed cathode active material comprising: a first cathode active material as layered-structure ternary lithium-containing metal oxide represented by Chemical Formula 1; and a second cathode active material as olivine-structured lithium phosphate represented by Chemical Formula 2a, wherein the second cathode active material is included in an amount of 5 parts by weight to 50 parts by weight based on 100 parts by weight of the mixed cathode active material, [Chemical Formula 1] Li 1+a Ni x Mn y Co z O 2 where, 0≤a≤0.2; 0.4≤x≤0.6; 0.2≤y≤0.5; 0.1 ≤z≤0.3; and x+y+z= 1, [Chemical Formula 2a] LiFe 1-x Mn x PO 4 where, 0.1≤x≤0.5. a first cathode active material as layered-structure ternary lithium-containing metal oxide represented by Chemical Formula 1; and a second cathode active material as olivine-structured lithium phosphate represented by Chemical Formula 2a, wherein the second cathode active material is included in an amount of 5 parts by weight to 50 parts by weight based on 100 parts by weight of the mixed cathode active material, [Chemical Formula 1] Li 1+a Ni x Mn y Co z O 2 where, 0≤a≤0.2; 0.4≤x≤0.6; 0.2≤y≤0.5; 0.1 ≤z≤0.3; and x+y+z= 1, [Chemical Formula 2a] LiFe 1-x Mn x PO 4 where, 0.1≤x≤0.5.
Clamping device on a profiled tube (3a; 3b; 3c) of a driver's protective roof of a vehicle for fastening an add-on part, in particular a fairing part formed by a window or a canopy-top tarpaulin, wherein the profiled tube (3a; 3b; 3c) has a profile cross section with two convex, outwardly curved circumferential walls (11a, 11b) and with two V-shaped undercuts (14a, 14b) facing inwards, wherein a first V-shaped undercut is formed by two profiled walls (12a, 12b) which are inclined inwards and in undercut form on the circumferential walls (11a, 11b), and a second undercut is formed by two profiled walls (13a, 13b) which are inclined inwards and in undercut form on the circumferential walls (11a, 11b), characterized in that the clamping device is provided with a holding lug, by means of which the add-on part (20; 20a) is secured in a form-fitting manner on the profiled tube (3a; 3b; 3c), wherein the holding lug is provided with a contact surface for the add-on part (20; 20a), which contact surface, in the installed state of the clamping device, is arranged parallel to one of the inwardly inclined profiled walls (13b; 12b) of the profiled tube (3a; 3b; 3c), said profiled walls forming a further contact surface for the add-on part (29; 20a), wherein the add-on part (20; 20a) is arranged, and secured in a form-fitting manner, in the intermediate space between the contact surface of the holding lug and the contact surface formed by the inwardly inclined profiled wall (13b; 12b).
A method implemented by a user equipment for receiving broadcasted system information for a wireless communication system, the method being characterized in: receiving, over a first channel, a broadcasted first part of system information, said broadcasted first part of system information including explicit signaling that indicates a demodulation reference signal sequence with which the user equipment is to demodulate a broadcasted second part of system information, wherein the explicit signaling comprises one or more bits, symbols or other information elements that encode or represent the sequence; and receiving the broadcasted second part of system information over a second channel, by demodulating the second part using the indicated sequence; wherein the sequence used for demodulating the second part of system information is different than a demodulation reference signal sequence used for demodulating the first part of system information. receiving, over a first channel, a broadcasted first part of system information, said broadcasted first part of system information including explicit signaling that indicates a demodulation reference signal sequence with which the user equipment is to demodulate a broadcasted second part of system information, wherein the explicit signaling comprises one or more bits, symbols or other information elements that encode or represent the sequence; and receiving the broadcasted second part of system information over a second channel, by demodulating the second part using the indicated sequence; wherein the sequence used for demodulating the second part of system information is different than a demodulation reference signal sequence used for demodulating the first part of system information.
A method of 3-dimensional printing a printed part, the method comprising printing an inkjet dopant composition at selected locations on a layer of build material comprising polymer particles, wherein the inkjet dopant composition comprises a dopant dispersed or dissolved in liquid carrier; and fusing polymer particles at selected areas of the layer of build material to form a fused polymer layer comprising the dopant, wherein the selected areas of the layer of build material include areas of the layer of build material that have not been printed with the inkjet dopant composition, wherein the dopant comprises dopant particles selected from photoluminescent particles. printing an inkjet dopant composition at selected locations on a layer of build material comprising polymer particles, wherein the inkjet dopant composition comprises a dopant dispersed or dissolved in liquid carrier; and fusing polymer particles at selected areas of the layer of build material to form a fused polymer layer comprising the dopant, wherein the selected areas of the layer of build material include areas of the layer of build material that have not been printed with the inkjet dopant composition, wherein the dopant comprises dopant particles selected from photoluminescent particles.
Nozzle for use in a device for automatic refuelling of vehicles, which nozzle in turn comprises a connecting means and a flexible filler pipe with an open end, whereby the nozzle is arranged at a main body comprising a location means, arranged to bring the said nozzle to a position adjacent to an orifice of a tank pipe of the vehicle, characterised in that the filler pipe is arranged to, after the connecting means has been positioned in connection to an orifice of a tank pipe of the vehicle, be pressed, wherein the main body is movable further by the location means in a direction towards the vehicle, whereby the filler pipe is pressed, by an axial pressure applied to the filler pipe at a location spaced from the open end, with the open end first, into and down into the tank pipe and then to deliver the said fuel from a pump device, through the said open end and into the tank pipe, the filler pipe is between 15 and 100 cm long and comprises an inner fuel pipe of flexible hard plastic material, through which fuel pipe, fuel, which is delivered into the tank pipe, can flow on its way from the pump device, and an outer metal coil or a series of metal rings, the metal coil or metal rings is or are arranged to run in parallel to and outside of the fuel pipe, and in that the metal coil or metal rings is or are arranged to run in and along a recess in the surface of the fuel tube.
A power converter, which comprises a cooler having a cooling flow path, through which a refrigerant flows, a base plate, on which switching elements are mounted; a control circuit board, on which power-generating elements are mounted, and securing pins, which securely fix the base plate to a cooling flow path wall of the cooler, and also support the control circuit board a distance from the base plate, characterized in that: one end of each of the securing pins passes through the base plate and the cooling flow path wall, and reaches inside the cooling flow path, and a part of the securing pin that passes through the cooling flow path wall is fastened to the cooling flow path wall; and the other end of each of the securing pins is extended to a side opposite to the cooling flow path wall, and the control circuit board is fixed to a distal end of the securing pin. one end of each of the securing pins passes through the base plate and the cooling flow path wall, and reaches inside the cooling flow path, and a part of the securing pin that passes through the cooling flow path wall is fastened to the cooling flow path wall; and the other end of each of the securing pins is extended to a side opposite to the cooling flow path wall, and the control circuit board is fixed to a distal end of the securing pin.