mhurhangee/ep-ind-claims huggingface dataset:
A solar cell module comprising: a plurality of solar cells wherein at least one solar cell includes a photoelectric conversion unit and an electrode formed on a light receiving surface of the photoelectric conversion unit; a wiring material that electrically connects the plurality of solar cells; and a resin adhesive, wherein the solar cell and the wiring material are bonded by the resin adhesive, characterized in that: the electrode is in direct contact with the wiring material, and a non-contiguous adhesive resin region is present in an area between the wiring material and the solar cell in which the resin adhesive is not located continuously from the wiring material to the solar cell in a direction in which the wiring material and the solar cell oppose each other, such that the resin adhesive is formed so as to partially reach the surface of the photoelectric conversion unit from a back surface of the wiring material via a side surface of the electrode, such that the wiring material is only partially bonded to the solar cell by the resin adhesive. a plurality of solar cells wherein at least one solar cell includes a photoelectric conversion unit and an electrode formed on a light receiving surface of the photoelectric conversion unit; a wiring material that electrically connects the plurality of solar cells; and a resin adhesive, wherein the solar cell and the wiring material are bonded by the resin adhesive, characterized in that: the electrode is in direct contact with the wiring material, and a non-contiguous adhesive resin region is present in an area between the wiring material and the solar cell in which the resin adhesive is not located continuously from the wiring material to the solar cell in a direction in which the wiring material and the solar cell oppose each other, such that the resin adhesive is formed so as to partially reach the surface of the photoelectric conversion unit from a back surface of the wiring material via a side surface of the electrode, such that the wiring material is only partially bonded to the solar cell by the resin adhesive. the electrode is in direct contact with the wiring material, and a non-contiguous adhesive resin region is present in an area between the wiring material and the solar cell in which the resin adhesive is not located continuously from the wiring material to the solar cell in a direction in which the wiring material and the solar cell oppose each other, such that the resin adhesive is formed so as to partially reach the surface of the photoelectric conversion unit from a back surface of the wiring material via a side surface of the electrode, such that the wiring material is only partially bonded to the solar cell by the resin adhesive.
A method comprising: monitoring, by a stationary apparatus (100, 330), at least one criterion for an adjustment of a transmit power of a positioning packet by a mobile apparatus (100, 300), the positioning packet enabling a determination of a position of the mobile apparatus to be made; and when it is detected that the at least one criterion is met, the stationary apparatus causing a transmission of a reconfiguration message to the mobile apparatus; and in response to receiving the reconfiguration message, the mobile apparatus adjusting the transmit power of positioning packets at the mobile apparatus, starting a timer and increasing the transmit power upon expiry of the timer. monitoring, by a stationary apparatus (100, 330), at least one criterion for an adjustment of a transmit power of a positioning packet by a mobile apparatus (100, 300), the positioning packet enabling a determination of a position of the mobile apparatus to be made; and when it is detected that the at least one criterion is met, the stationary apparatus causing a transmission of a reconfiguration message to the mobile apparatus; and in response to receiving the reconfiguration message, the mobile apparatus adjusting the transmit power of positioning packets at the mobile apparatus, starting a timer and increasing the transmit power upon expiry of the timer.
A method for manufacturing a quenched and tempered seamless pipe for a hollow spring, a steel composition of the seamless pipe comprising, in percent by mass: C: 0.35 to 0.5%, Si: 1.5 to 2.2%, Mn: 0.1 to 1%, Cr: 0.1 to 1.2%, Al: more than 0% and 0.1% or less, P: more than 0% and 0.02% or less, S: more than 0% and 0.02% or less, N: more than 0% and 0.02% or less, at least one element selected from the group consisting of V: 0.01% or more and 0.2% or less, Ti: 0.01% or more and 0.2% or less, and Nb: 0.01% or more and 0.2% or less, and at least one element selected from the group consisting of Ni: 0.2% or more and 1% or less, and Cu: 0.2% or more and 1% or less, with the balance being iron and inevitable impurities, wherein the quenching is performed to satisfy quenching conditions mentioned below, and the tempering is performed to satisfy tempering conditions mentioned below, quenching conditions: 26,000 ≤ T 1 + 273 × log t 1 + 20 ≤ 29,000 900°C ≤ T1 ≤ 1,050°C, 10 seconds ≤ t1 ≤ 1,800 seconds, where T1 is a quenching temperature in °C, and t1 is a holding time in seconds in a temperature range of 900°C or higher, and tempering conditions: 13,000 ≤ T 2 + 273 × log t 2 + 20 ≤ 15,500 T2 ≤ 550°C, and t2 ≤ 3,600 seconds, where T2 is a tempering temperature in °C, and t2 is a total time in seconds from start of heating to completion of cooling. C: 0.35 to 0.5%, Si: 1.5 to 2.2%, Mn: 0.1 to 1%, Cr: 0.1 to 1.2%, Al: more than 0% and 0.1% or less, P: more than 0% and 0.02% or less, S: more than 0% and 0.02% or less, N: more than 0% and 0.02% or less, at least one element selected from the group consisting of V: 0.01% or more and 0.2% or less, Ti: 0.01% or more and 0.2% or less, and Nb: 0.01% or more and 0.2% or less, and at least one element selected from the group consisting of Ni: 0.2% or more and 1% or less, and Cu: 0.2% or more and 1% or less, with the balance being iron and inevitable impurities, wherein the quenching is performed to satisfy quenching conditions mentioned below, and the tempering is performed to satisfy tempering conditions mentioned below, quenching conditions: 26,000 ≤ T 1 + 273 × log t 1 + 20 ≤ 29,000 900°C ≤ T1 ≤ 1,050°C, 10 seconds ≤ t1 ≤ 1,800 seconds, where T1 is a quenching temperature in °C, and t1 is a holding time in seconds in a temperature range of 900°C or higher, and 900°C ≤ T1 ≤ 1,050°C, 10 seconds ≤ t1 ≤ 1,800 seconds, where T1 is a quenching temperature in °C, and t1 is a holding time in seconds in a temperature range of 900°C or higher, and tempering conditions: 13,000 ≤ T 2 + 273 × log t 2 + 20 ≤ 15,500 T2 ≤ 550°C, and t2 ≤ 3,600 seconds, where T2 is a tempering temperature in °C, and t2 is a total time in seconds from start of heating to completion of cooling. T2 ≤ 550°C, and t2 ≤ 3,600 seconds, where T2 is a tempering temperature in °C, and t2 is a total time in seconds from start of heating to completion of cooling.
A circuit arrangement for balancing a split DC link, which comprises a series circuit comprising a first DC-link capacitor and a second DC-link capacitor between a first DC-voltage terminal and a second DC-voltage terminal and has a DC-link center point between the first DC-link capacitor and the second DC-link capacitor, wherein, in the case of the circuit arrangement, the first DC-voltage terminal is connected via a first semiconductor switch (T1, T4) to a first intermediate point, the first intermediate point is connected via a second semiconductor switch (T2, T3) to a bridge center point, the bridge center point is connected via a third semiconductor switch (T2, T3) to a second intermediate point, and the second intermediate point is connected via a fourth semiconductor switch (T1, T4) to the second DC-voltage terminal, wherein the semiconductor switches (T1, T2, T3, T4) each have a antiparallel diode (8, 9, 10, 11), and furthermore a first terminal of a resonant capacitor (Cres) is connected to the first intermediate point, and a second terminal of the resonant capacitor (Cres) is connected to the DC-link center point via a connecting path, in which a resonant inductor (Lres) is arranged in a series circuit with the third semiconductor switch (T2, T3), and which runs via the second intermediate point, characterized in that an additional winding is magnetically coupled to the resonant inductor (Lres), wherein a first terminal of the additional winding is connected via a first diode (D1, D2) to a first terminal (22, 25) of a countervoltage source, and a second terminal of the additional winding is connected to a second terminal of the countervoltage source in such a way that a discharge path is formed for discharging an energy coupled into the additional winding from the resonant inductor (Lres) into the countervoltage source via the first diode (D1, D2), wherein the countervoltage source is formed by the first DC-link capacitor and/or the second DC-link capacitor.
Tractor having a cab and having a supporting structure on which a rear axle, extending along a transverse direction, of the tractor is mounted, wherein - at least one cab-side portion of the tractor and at least one supporting-structure-side portion of the tractor in the region of the rear axle delimit a wheel housing for a rear wheel, characterized in that the wheel housing has, at individual boundary surfaces, at least one gap which is effectively covered by means of a cover at least in the transverse direction. - at least one cab-side portion of the tractor and at least one supporting-structure-side portion of the tractor in the region of the rear axle delimit a wheel housing for a rear wheel,
The use of a ferrierite zeolite as a catalyst in the isomerisation of a crude unsaturated fatty acid mixture comprising unsaturated C 10 -C 26 fatty acids or alkyl esters thereof to produce a composition having a ratio by weight of C 10 -C 26 monobranched fatty acids or alkyl esters thereof to C 10 -C 26 polybranched fatty acids or alkyl esters thereof of greater than 6 and less than 100, wherein the isomerisation reaction mixture does not comprise a Lewis base, and wherein the isomerisation reaction is carried out at 255 °C to 350 °C.
Radiator bracket comprising upper and lower support members (5a, 5b) for engagement with a radiator or a retainer thereon, and fixing holes (3a, 3b) for fixing the bracket to a substrate, wherein the bracket has a transport state and a mounted state, and the bracket is deformable for transfer from the transport state to the mounted state, and wherein the fixing holes (3a, 3b) are arranged on at least one movable wall section (4a, 4b) of the bracket, said wall section (4a, 4b) being positioned closer to the substrate in the mounted state than in the transport state characterized in that the movable wall section (4a, 4b) has a connecting plate (8a, 8b) for connection with a body of the bracket, and that notches are provided for enabling a deformation of the bracket to its mounted state.
A thickness detection device (100, 200), comprising: a feed roller; a thickness measuring unit (120, 220); and a thickness detection unit (110, 210) including a detection roller (113, 213) in surface contact with the feed roller, a detection shaft (111, 211), and a thickness detecting reflection plate (112, 212), wherein: the thickness detecting reflection plate (112, 212) comprises an amplifying portion (112a, 212a) and a bended portion (112b, 212b) connected to one end of the amplifying portion (112a, 212a); the detection roller (113, 213) and the detection shaft (111, 211) are disposed at the bended portion (112b, 212b); there is an included angle between a line connecting an axle center of the detection roller (113, 213) with that of the detection shaft (111, 211) and the amplifying portion (112a, 212a) of the thickness detecting reflection plate (112, 212a); the thickness measuring unit (120, 220) comprises a sensor for measuring a rotation distance of the amplifying portion (112a, 212a) around the detection shaft (111, 211); and the thickness detection device (100, 200) further comprises a base comprising a bottom plate and an extension which is provided at a side of the bottom plate and which has two mounting arms, a pair of positioning holes are correspondingly provided through the mounting arms, the detection shaft (111, 211) passes through the positioning holes and the bended portion (112b, 212b) of the thickness detecting reflection plate (112, 212), and the bended portion (112b, 212b) is located between the two mounting arms. the thickness detecting reflection plate (112, 212) comprises an amplifying portion (112a, 212a) and a bended portion (112b, 212b) connected to one end of the amplifying portion (112a, 212a); the detection roller (113, 213) and the detection shaft (111, 211) are disposed at the bended portion (112b, 212b); there is an included angle between a line connecting an axle center of the detection roller (113, 213) with that of the detection shaft (111, 211) and the amplifying portion (112a, 212a) of the thickness detecting reflection plate (112, 212a); the thickness measuring unit (120, 220) comprises a sensor for measuring a rotation distance of the amplifying portion (112a, 212a) around the detection shaft (111, 211); and the thickness detection device (100, 200) further comprises a base comprising a bottom plate and an extension which is provided at a side of the bottom plate and which has two mounting arms, a pair of positioning holes are correspondingly provided through the mounting arms, the detection shaft (111, 211) passes through the positioning holes and the bended portion (112b, 212b) of the thickness detecting reflection plate (112, 212), and the bended portion (112b, 212b) is located between the two mounting arms.
A paper material comprising a support base, made up of a mixture of cellulose fibres containing at least one polymeric substance suitable for conferring strength to the mixture of fibres, and an inorganic filler suitable for conferring good workability characteristics to the mixture, said paper material having at least one external surface treated with at least one surface adhesive and whereon at least one coating is applied, characterized in that said coating comprises pearlescent pigments sensitive to a magnetic field applied to orient said pearlescent pigments according to a predefined design.
Method for producing a solar cell consisting of a p-doped or n-doped silicon substrate, which comprises a first major surface used as a light incident side during use and a second major surface used as a rear side, the method comprising the following steps: - doping the first major surface with phosphorus, in particular by diffusion and subsequent driving-in step, for generating a phosphorus-doped layer in the first major surface having a substantially identical concentration profile over the entire first major surface and/or having a substantially identical surface concentration over the entire first major surface, - removing a phosphorus silicate glass layer obtained by the diffusion from the first major surface and/or the second major surface, - applying at least one antireflection layer and/or passivation layer, in particular comprising SiN or SiO 2 /SiN, to the first major surface, and - stripping the or each antireflection layer and/or passivation layer from parts of the first major surface to produce island-like and/or linear openings for contacting the silicon substrate, wherein the phosphorus-doped layer of the first major surface is not altered during stripping. - doping the first major surface with phosphorus, in particular by diffusion and subsequent driving-in step, for generating a phosphorus-doped layer in the first major surface having a substantially identical concentration profile over the entire first major surface and/or having a substantially identical surface concentration over the entire first major surface, - removing a phosphorus silicate glass layer obtained by the diffusion from the first major surface and/or the second major surface, - applying at least one antireflection layer and/or passivation layer, in particular comprising SiN or SiO 2 /SiN, to the first major surface, and - stripping the or each antireflection layer and/or passivation layer from parts of the first major surface to produce island-like and/or linear openings for contacting the silicon substrate, wherein the phosphorus-doped layer of the first major surface is not altered during stripping.
A method for transmitting and receiving a signal by a base station in a mobile communication system, the method comprising: identifying whether to steer a traffic related to a terminal to a wireless local area network, WLAN; identifying the traffic to be steered to the WLAN; transmitting, to a gateway, a first message including mapping information between a flow and a bearer corresponding to a downlink transmission of the traffic to be steered to the WLAN; and transmitting, to the terminal, a second message including information on an uplink transmission of the traffic to be steered to the WLAN and filter information related to the traffic, the filter information being received from the gateway and used by the terminal to steer the uplink transmission of the traffic, wherein the mapping information includes preference information of the bearer to which the flow corresponding to the traffic is mapped. identifying whether to steer a traffic related to a terminal to a wireless local area network, WLAN; identifying the traffic to be steered to the WLAN; transmitting, to a gateway, a first message including mapping information between a flow and a bearer corresponding to a downlink transmission of the traffic to be steered to the WLAN; and transmitting, to the terminal, a second message including information on an uplink transmission of the traffic to be steered to the WLAN and filter information related to the traffic, the filter information being received from the gateway and used by the terminal to steer the uplink transmission of the traffic, wherein the mapping information includes preference information of the bearer to which the flow corresponding to the traffic is mapped.
A portable terminal comprising: an audio output unit configured to output audio signals to a plurality of external headphones; an event occurrence detection unit configured to detect occurrence of a predetermined event; and a control unit configured to, when the event occurrence detection unit detects the occurrence of the predetermined event while the audio output unit is outputting the audio signals to the plurality of external headphones; and characterised in, that the control unit is configured to control the audio output unit to reduce the volume of an audio signal output to a particular external headphone specified in advance from among the plurality of external headphones to which the audio signals are output and to continue to output the audio signals to the remaining headphones. an audio output unit configured to output audio signals to a plurality of external headphones; an event occurrence detection unit configured to detect occurrence of a predetermined event; and a control unit configured to, when the event occurrence detection unit detects the occurrence of the predetermined event while the audio output unit is outputting the audio signals to the plurality of external headphones; and characterised in, that the control unit is configured to control the audio output unit to reduce the volume of an audio signal output to a particular external headphone specified in advance from among the plurality of external headphones to which the audio signals are output and to continue to output the audio signals to the remaining headphones.
A planetary gear stage for a gearbox, the planetary gear stage comprising a ring gear, a sun gear and a planet carrier for driving at least three planet shafts each onto which at least one planet gear is rotatably mounted by means of a plain bearing arrangement, the planet gears having a radial contact surface and an axial contact surface, wherein the plain bearing arrangement comprises: - two bushings fixedly connected to the planet shaft, each fixed bushing being L-shaped in cross-section and having a radial contact surface and an axial contact surface, the fixed L-shaped bushings being mounted to form a cross-sectional U-shape and being locked in axial direction at both outer sides by an abutment (15, 16, 24), and whereby at least part of the planet gear is located within the U-shape formed by the fixed L-shaped bushings, - a radial sliding support in between the radial contact surface of the fixed L-shaped bushings and the radial contact surface of the planet gear, and - an axial sliding support in between the axial contact surface of the fixed L-shaped bushings and the axial contact surface of the planet gears. - two bushings fixedly connected to the planet shaft, each fixed bushing being L-shaped in cross-section and having a radial contact surface and an axial contact surface, the fixed L-shaped bushings being mounted to form a cross-sectional U-shape and being locked in axial direction at both outer sides by an abutment (15, 16, 24), and whereby at least part of the planet gear is located within the U-shape formed by the fixed L-shaped bushings, - a radial sliding support in between the radial contact surface of the fixed L-shaped bushings and the radial contact surface of the planet gear, and - an axial sliding support in between the axial contact surface of the fixed L-shaped bushings and the axial contact surface of the planet gears.
A method for configuring a control unit of a piece of home automation equipment, the control unit being intended, once configured, to control the piece of home automation equipment based on input signals received from remote controls and current values of adjustable operating parameters (P01,... P32), characterized in that in response to a selection on an entry interface of a configuration profile (PR1... PR4) from among several available configuration profiles for the home automation equipment, the control unit stores, as current values, for at least several adjustable operating parameters associated with the selected configuration profile, default values depending on the selected configuration profile and in that the adjustable operating parameters (P01 to P32) remain stored and available for successive executions of the control program executed by the control unit and calling on the stored values of at least some of said parameters (P01 to P32).