mhurhangee/ep-ind-claims huggingface dataset:
A vehicle-onboard apparatus in a multi-hop network, performing radio communication comprising: a location information requester for making a location information request for location information of one or more other vehicle-onboard apparatuses (100-2, 100-3, 100-4) to said one or more other vehicle-onboard apparatuses (100-2, 100-3, 100-4); a receiver for receiving a location reply, in response to the location information request, transmitted from each of said one or more other vehicle-onboard apparatuses (100-2, 100-3, 100-4), the location reply including usage channel information representing communication channels that said vehicle-onboard apparatus is using; and a transmission processor that, when the communication channels represented by the usage channel information included in the location reply transmitted from said other vehicle-onboard apparatus are the same as previously set two communication channels, transmits a multi-hop packet by multi-hop communication, to said other vehicle-onboard apparatus in such a manner that the multi-hop packet is transmitted in the first hop through a first communication channel that is previously set as a communication channel to be used for the first hop, of the two previously set communication channels, and in second and following hops through a second communication channel other than the first communication channel, of the two previously set communication channels. a location information requester for making a location information request for location information of one or more other vehicle-onboard apparatuses (100-2, 100-3, 100-4) to said one or more other vehicle-onboard apparatuses (100-2, 100-3, 100-4); a receiver for receiving a location reply, in response to the location information request, transmitted from each of said one or more other vehicle-onboard apparatuses (100-2, 100-3, 100-4), the location reply including usage channel information representing communication channels that said vehicle-onboard apparatus is using; and a transmission processor that, when the communication channels represented by the usage channel information included in the location reply transmitted from said other vehicle-onboard apparatus are the same as previously set two communication channels, transmits a multi-hop packet by multi-hop communication, to said other vehicle-onboard apparatus in such a manner that the multi-hop packet is transmitted in the first hop through a first communication channel that is previously set as a communication channel to be used for the first hop, of the two previously set communication channels, and in second and following hops through a second communication channel other than the first communication channel, of the two previously set communication channels.
A stereoscopic display device, comprising: a display panel configured to display a composite image having stripe-shaped right eye sub-images and left eye sub-images arranged alternately; a switch liquid crystal panel located on a front side of the display panel and capable of forming a parallax barrier having transparent portions for transmitting light and light-shielding portions for blocking light arranged alternately; a touch panel located on a front side of the switch liquid crystal panel; a driving circuit configured to drive the switch liquid crystal panel to form the parallax barrier; and an RC circuit located between the switch liquid crystal panel and the driving circuit, for blunting a waveform of a voltage applied to the switch liquid crystal panel, wherein the RC circuit includes: a resistor formed by a line for applying the voltage; and a capacitor connected with the line, the RC circuit has a cutoff frequency that is equal to or smaller than a driving frequency for the touch panel, the capacitor has one terminal connected with a line connected with the common electrode and the other terminal that is grounded, and the voltage satisfies the following equation: ∫ 0 T 2 V t dt ≥ 1.5 T where V(t) is the magnitude of the voltage at a time t, and T is the cycle of the waveform of the voltage. a display panel configured to display a composite image having stripe-shaped right eye sub-images and left eye sub-images arranged alternately; a switch liquid crystal panel located on a front side of the display panel and capable of forming a parallax barrier having transparent portions for transmitting light and light-shielding portions for blocking light arranged alternately; a touch panel located on a front side of the switch liquid crystal panel; a driving circuit configured to drive the switch liquid crystal panel to form the parallax barrier; and an RC circuit located between the switch liquid crystal panel and the driving circuit, for blunting a waveform of a voltage applied to the switch liquid crystal panel, wherein the RC circuit includes: a resistor formed by a line for applying the voltage; and a capacitor connected with the line, the RC circuit has a cutoff frequency that is equal to or smaller than a driving frequency for the touch panel, the capacitor has one terminal connected with a line connected with the common electrode and the other terminal that is grounded, and the voltage satisfies the following equation: ∫ 0 T 2 V t dt ≥ 1.5 T a resistor formed by a line for applying the voltage; and a capacitor connected with the line, the RC circuit has a cutoff frequency that is equal to or smaller than a driving frequency for the touch panel, the capacitor has one terminal connected with a line connected with the common electrode and the other terminal that is grounded, and the voltage satisfies the following equation: ∫ 0 T 2 V t dt ≥ 1.5 T where V(t) is the magnitude of the voltage at a time t, and T is the cycle of the waveform of the voltage.
A drag pumping mechanism for a turbomolecular pump, the drag pumping mechanism comprising: an impeller comprising an impeller shaft defining a rotation axis of the impeller; a motor configured to drive the rotation of the impeller; and a drag generation structure, the drag generation structure comprising: an annular body extending around the impeller shaft, the annular body comprising a frustoconical surface, and a plurality of walls extending from the frustoconical surface the plurality of walls defining a plurality of channels therebetween wherein the impeller is configured to rotate relative to the drag generation structure about the rotation axis to pump gas through the plurality of channels of the drag generation structure, characterised in that the drag generation structure is disposed on the motor, and in that the drag generation structure is integrally formed with a part of the motor. an impeller comprising an impeller shaft defining a rotation axis of the impeller; a motor configured to drive the rotation of the impeller; and a drag generation structure, the drag generation structure comprising: an annular body extending around the impeller shaft, the annular body comprising a frustoconical surface, and a plurality of walls extending from the frustoconical surface the plurality of walls defining a plurality of channels therebetween wherein the impeller is configured to rotate relative to the drag generation structure about the rotation axis to pump gas through the plurality of channels of the drag generation structure, an annular body extending around the impeller shaft, the annular body comprising a frustoconical surface, and a plurality of walls extending from the frustoconical surface the plurality of walls defining a plurality of channels therebetween wherein the impeller is configured to rotate relative to the drag generation structure about the rotation axis to pump gas through the plurality of channels of the drag generation structure, characterised in that the drag generation structure is disposed on the motor, and in that the drag generation structure is integrally formed with a part of the motor.
A ring-shaped iron core for an electric rotary machine comprising an outer peripheral surface provided with core notches extending in the axial direction of said core and formed at regular intervals in a circumferential direction, wherein said iron core is ring-shaped and formed by shaping a strip into a spirally laminated structure wherein said spirally laminated strip has an edge and strip notches, said edge constituting the outer peripheral surface when the strip is spirally laminated, and the strip is shaped into said spirally laminated structure by rolling such that plural strip notches constitute each of said core notches, characterized in that the strip has a thickness of less than 0.5 mm, and each of said strip notches has a depth that is not greater than half of the rolling width of the strip and not greater than half of the width of the strip notch after rolling of said strip.
An oven comprising: a cooking chamber configured to receive a food product; and a radio frequency heating system configured to provide RF energy into the cooking chamber using solid state electronic components to heat the food product, wherein the solid state electronic components include power amplifier electronics configured to provide a signal into the cooking chamber via a launcher assembly operably coupled to the cooking chamber via a waveguide assembly, wherein the power amplifier electronics are configured to control application of RF energy into the cooking chamber at least in part based on a learning procedure that generates a power cycling between high and low powers when the learning procedure is executed, wherein the power amplifier electronics include: a semiconductor die on which one or more RF power transistors are fabricated, an output matching network configured to provide impedance matching between the semiconductor die and external components operably coupled to an output tab, and bonding wires bonded at terminal ends thereof to operably couple the one or more RF power transistors of the semiconductor die to the output matching network, and wherein the bonding wires comprise copper bonding wires having a diameter of between about 10 microns and about 100 microns. a cooking chamber configured to receive a food product; and a radio frequency heating system configured to provide RF energy into the cooking chamber using solid state electronic components to heat the food product, wherein the solid state electronic components include power amplifier electronics configured to provide a signal into the cooking chamber via a launcher assembly operably coupled to the cooking chamber via a waveguide assembly, wherein the power amplifier electronics are configured to control application of RF energy into the cooking chamber at least in part based on a learning procedure that generates a power cycling between high and low powers when the learning procedure is executed, wherein the power amplifier electronics include: a semiconductor die on which one or more RF power transistors are fabricated, an output matching network configured to provide impedance matching between the semiconductor die and external components operably coupled to an output tab, and bonding wires bonded at terminal ends thereof to operably couple the one or more RF power transistors of the semiconductor die to the output matching network, and a semiconductor die on which one or more RF power transistors are fabricated, an output matching network configured to provide impedance matching between the semiconductor die and external components operably coupled to an output tab, and bonding wires bonded at terminal ends thereof to operably couple the one or more RF power transistors of the semiconductor die to the output matching network, and wherein the bonding wires comprise copper bonding wires having a diameter of between about 10 microns and about 100 microns.
Bonding wire for semiconductor device use with an Ag content of 90 mass% or more, wherein said bonding wire for semiconductor device use optionally contains one or more of Pd, Cu, Au, Zn, Pt, Ge, Sn, Ti, and Ni, and a balance of impurities, when containing Pd, Cu, Au, and Zn, contains these in a total of 0.01 mass% to 8 mass%, when containing Pt, Ge, Sn, Ti, and Ni, contains these in a total of 0.001 mass% to 1 mass%, wherein, if S and Cl is contained in said impurities, S is 1 mass ppm or less and Cl is 0.5 mass ppm or less; wherein, in a wire center cross-section, which is a cross-section containing the wire center and parallel to the wire longitudinal direction, there are no crystal grains with a ratio a/b of a long axis "a" and a short axis "b" of 10 or more and with an area of 15 μm 2 or more, when measuring a crystal direction in the wire longitudinal direction in said wire center cross-section, the ratio of crystal direction <100> with an angle difference with respect to said wire longitudinal direction of 15° or less is, by area ratio, 10% to less than 50%, and when measuring a crystal direction in the wire longitudinal direction at the wire surface, the ratio of crystal direction <100> with an angle difference with respect to said wire longitudinal direction of 15° or less is, by area ratio, 70% or more. wherein said bonding wire for semiconductor device use optionally contains one or more of Pd, Cu, Au, Zn, Pt, Ge, Sn, Ti, and Ni, and a balance of impurities, when containing Pd, Cu, Au, and Zn, contains these in a total of 0.01 mass% to 8 mass%, when containing Pt, Ge, Sn, Ti, and Ni, contains these in a total of 0.001 mass% to 1 mass%, wherein, if S and Cl is contained in said impurities, S is 1 mass ppm or less and Cl is 0.5 mass ppm or less; wherein, in a wire center cross-section, which is a cross-section containing the wire center and parallel to the wire longitudinal direction, there are no crystal grains with a ratio a/b of a long axis "a" and a short axis "b" of 10 or more and with an area of 15 μm 2 or more, when measuring a crystal direction in the wire longitudinal direction in said wire center cross-section, the ratio of crystal direction <100> with an angle difference with respect to said wire longitudinal direction of 15° or less is, by area ratio, 10% to less than 50%, and when measuring a crystal direction in the wire longitudinal direction at the wire surface, the ratio of crystal direction <100> with an angle difference with respect to said wire longitudinal direction of 15° or less is, by area ratio, 70% or more.
A nucleated propylene-butylene-copolymer which i) has been produced in the presence of a Ziegler-Natta catalyst and is ii) free of phthalic acid esters as well as their respective decomposition products, and comprises - based on the total weight of the propylene-butylene copolymer - A. 88.0 -96.0 wt.-% of propylene B. 4.0 - 12.0 wt.-% of 1-butylene, wherein the nucleated propylene-butylene copolymer is further characterised by a) a molecular weight distribution of at least 5.0 when measured according to ISO16014 b) and fulfils the following requirements: c1) Flexural Modulus of at least 1000 MPa when measured according to ISO178 and c2) Notched Impact strength of at least 3.0 kJ/m 2 when measured according to ISO 179/1eA +23 °C. i) has been produced in the presence of a Ziegler-Natta catalyst and is ii) free of phthalic acid esters as well as their respective decomposition products, and comprises - based on the total weight of the propylene-butylene copolymer - A. 88.0 -96.0 wt.-% of propylene B. 4.0 - 12.0 wt.-% of 1-butylene, A. 88.0 -96.0 wt.-% of propylene B. 4.0 - 12.0 wt.-% of 1-butylene, a) a molecular weight distribution of at least 5.0 when measured according to ISO16014 b) and fulfils the following requirements: c1) Flexural Modulus of at least 1000 MPa when measured according to ISO178 and c2) Notched Impact strength of at least 3.0 kJ/m 2 when measured according to ISO 179/1eA +23 °C. c1) Flexural Modulus of at least 1000 MPa when measured according to ISO178 and c2) Notched Impact strength of at least 3.0 kJ/m 2 when measured according to ISO 179/1eA +23 °C.
An ocular device (100; 200; 300) configured to be worn on a scleral surface of an eye of a user, the device comprising: a body component (110; 210; 1010); at least one light source component mounted in the body component (110; 210; 1010) and configured for providing light energy to an eye; a microcontroller component mounted in the body component (110; 210; 1010) and configured for controlling the operation of at least the light source component; an antenna component (150; 250) at least partially mounted in the body component (110; 210; 1010) and connected to the microcontroller component, the antenna component being configured for at least receiving external signals and for passing them to the microcontroller component; at least one energy source component (130a, 130b) configured for supplying power to at least the light source component and the microcontroller component; and at least one flexible printed circuit board mounted in the body component (110; 210; 1010), with at least one of said at least one light source component, the microcontroller component, and said at least one energy source component (130a, 130b) being mounted thereon; characterized in that said body component (110; 210; 1010) is configured to be positioned in an upper fornix of the eye of a user; and in that said at least one flexible printed circuit board comprises a plurality of sections (1210, 1220, 1230) hinged relative to one another, the plurality of sections comprising a central section and two side sections. a body component (110; 210; 1010); at least one light source component mounted in the body component (110; 210; 1010) and configured for providing light energy to an eye; a microcontroller component mounted in the body component (110; 210; 1010) and configured for controlling the operation of at least the light source component; an antenna component (150; 250) at least partially mounted in the body component (110; 210; 1010) and connected to the microcontroller component, the antenna component being configured for at least receiving external signals and for passing them to the microcontroller component; at least one energy source component (130a, 130b) configured for supplying power to at least the light source component and the microcontroller component; and at least one flexible printed circuit board mounted in the body component (110; 210; 1010), with at least one of said at least one light source component, the microcontroller component, and said at least one energy source component (130a, 130b) being mounted thereon; characterized in that said body component (110; 210; 1010) is configured to be positioned in an upper fornix of the eye of a user; and in that said at least one flexible printed circuit board comprises a plurality of sections (1210, 1220, 1230) hinged relative to one another, the plurality of sections comprising a central section and two side sections.
A charging method, applied to a terminal device, wherein the terminal device comprises a charging module and a sensitive module component, and the method comprises: obtaining, by the sensitive module component, a working status of the sensitive module component; sending, by the sensitive module component, the working status to the charging module, wherein the sensitive module component is a module component that is interfered with in a process in which a charging device charges the terminal device at a sensitive frequency, and the sensitive frequency is within a range of a charging frequency band of the charging device; when the working status is an enabled state, determining, by the charging module, a safe charging parameter, wherein the safe charging parameter comprises at least one of a safe charging frequency, a safe charging current, and a safe charging voltage; and sending, by the charging module, the safe charging parameter to the charging device, so that the charging device charges the terminal device by using the safe charging parameter, wherein in a process in which the charging device charges the terminal device by using the safe charging parameter, the sensitive module component operates normally; wherein the sending, by the sensitive module component, the working status to the charging module comprises writing, by the sensitive module component, the working status into a node file, wherein the charging module obtains the working status from the node file. obtaining, by the sensitive module component, a working status of the sensitive module component; sending, by the sensitive module component, the working status to the charging module, wherein the sensitive module component is a module component that is interfered with in a process in which a charging device charges the terminal device at a sensitive frequency, and the sensitive frequency is within a range of a charging frequency band of the charging device; when the working status is an enabled state, determining, by the charging module, a safe charging parameter, wherein the safe charging parameter comprises at least one of a safe charging frequency, a safe charging current, and a safe charging voltage; and sending, by the charging module, the safe charging parameter to the charging device, so that the charging device charges the terminal device by using the safe charging parameter, wherein in a process in which the charging device charges the terminal device by using the safe charging parameter, the sensitive module component operates normally; wherein the sending, by the sensitive module component, the working status to the charging module comprises writing, by the sensitive module component, the working status into a node file, wherein the charging module obtains the working status from the node file.
A circuit for detecting junction temperature of a MOSFET (12, 22), comprising: a MOSFET (12, 22), a sense resistor (Rs) connected in series to drain or source of the MOSFET (12, 22), an amplifier (14, U2A) for amplifying a voltage (Vr) across the sense resistor (Rs) by a predetermined value, and a comparator (16, U1A) for comparing the amplified voltage (KVr) with a drain voltage (Vds) of the MOSFET, wherein a Drain-to-Source On Resistance (Rdson) of the MOSFET (12, 22) represents junction temperature based on a linear relation between the Rdson and junction temperature of the MOSFET (12, 22), characterized in that the drain voltage (Vds) is described as Vds = I * (Rdson + Rs), where Rdson is the Drain-Source on Resistance of the MOSFET (12, 22) as a function of junction temperature of the MOSFET (12, 22), Rs is a resistance of the sense resistor (Rs), and I is the current flow through the MOSFET (12, 22) and the sense resistor (Rs). a MOSFET (12, 22), a sense resistor (Rs) connected in series to drain or source of the MOSFET (12, 22), an amplifier (14, U2A) for amplifying a voltage (Vr) across the sense resistor (Rs) by a predetermined value, and a comparator (16, U1A) for comparing the amplified voltage (KVr) with a drain voltage (Vds) of the MOSFET, wherein a Drain-to-Source On Resistance (Rdson) of the MOSFET (12, 22) represents junction temperature based on a linear relation between the Rdson and junction temperature of the MOSFET (12, 22), characterized in that the drain voltage (Vds) is described as Vds = I * (Rdson + Rs), where Rdson is the Drain-Source on Resistance of the MOSFET (12, 22) as a function of junction temperature of the MOSFET (12, 22), Rs is a resistance of the sense resistor (Rs), and I is the current flow through the MOSFET (12, 22) and the sense resistor (Rs).