mhurhangee/ep-ind-claims huggingface dataset:
A downmixer (100;500;600;800;1020) for providing a downmix signal (592;1022) on the basis of a plurality of input signals (110a,110b;210a,210b;500a,500n,1010a,1010n), which are input audio signals, wherein the downmixer is configured to determine a magnitude value (M R, M Mod R; 122;221,222;505,506a) of a spectral domain value (112;511a,511b) of the downmix signal on the basis of a loudness information of the input signals, and wherein the downmixer is configured to determine a phase value (P P,P Mod P;132;398;508a,510a) of the spectral domain value of the downmix signal; and wherein the downmixer is configured to apply the phase value (P P,P Mod P; 132;398;508a,510a) in order to obtain a complex valued number representation (112;511a,511b) of the spectral domain value of the downmix signal on the basis of the magnitude value of the spectral domain value of the downmix signal; wherein the downmixer is configured to determine a sum (507b,507d) or a weighted sum of complex-valued spectral domain values of the input signals and to determine the phase value (P P,P Mod P;132;398;508a,510a) on the basis of a real part and an imaginary part of the sum or on the basis of a real part and an imaginary part of the weighted sum of spectral domain values of the input signals. wherein the downmixer is configured to determine a magnitude value (M R, M Mod R; 122;221,222;505,506a) of a spectral domain value (112;511a,511b) of the downmix signal on the basis of a loudness information of the input signals, and wherein the downmixer is configured to determine a phase value (P P,P Mod P;132;398;508a,510a) of the spectral domain value of the downmix signal; and wherein the downmixer is configured to apply the phase value (P P,P Mod P; 132;398;508a,510a) in order to obtain a complex valued number representation (112;511a,511b) of the spectral domain value of the downmix signal on the basis of the magnitude value of the spectral domain value of the downmix signal; wherein the downmixer is configured to determine a sum (507b,507d) or a weighted sum of complex-valued spectral domain values of the input signals and to determine the phase value (P P,P Mod P;132;398;508a,510a) on the basis of a real part and an imaginary part of the sum or on the basis of a real part and an imaginary part of the weighted sum of spectral domain values of the input signals.
A pharmaceutical preparation for use in preventing or treating a pathological immune response, comprising a supernatant obtainable from co-culture of phagocytes with apoptotic cells.
Adjustable camshaft for the valve gear of an internal combustion engine, having outer shaft and an inner shaft running concentrically in the outer shaft and rotatably mounted therein, wherein at least one cam element is rotatably supported on the outer surface of the outer shaft, forming a slide bearing gap, and wherein the cam element is connected to the inner shaft in a rotationally fixed manner, characterized in that at least one oil channeling groove is made in the outer surface of the outer shaft in a position and with an axial length such that the oil channeling groove is formed at least over the axial width of the slide bearing gap and is led out of the slide bearing gap with an exposed groove portion on at least one side of the cam element.
A method for securely processing data, comprising: acquiring, by a first security unit, security data from a second security unit of a security server, wherein the first security unit is configured on a terminal in form of a software module and the second security unit is configured on the security server in form of a software module, and wherein the first security unit comprises a key management module and the security data comprises key data; performing, by a secure element, SE, application of the first security unit, security processing on a trusted application, TA, of a trusted execution environment, TEE, using the security data, wherein the security processing comprises: performing, by the SE application, encryption/decryption processing on processing data of the TA using the key data acquired from the second security unit. acquiring, by a first security unit, security data from a second security unit of a security server, wherein the first security unit is configured on a terminal in form of a software module and the second security unit is configured on the security server in form of a software module, and wherein the first security unit comprises a key management module and the security data comprises key data; performing, by a secure element, SE, application of the first security unit, security processing on a trusted application, TA, of a trusted execution environment, TEE, using the security data, wherein the security processing comprises: performing, by the SE application, encryption/decryption processing on processing data of the TA using the key data acquired from the second security unit.
A computer-implemented automatic diagnosis method for thread turning, comprising: a. acquiring a main shaft actual speed and a feed shaft actual speed of a lathe; and characterized by further comprising: b. continuously computing a thread error on the basis of the main shaft actual speed and feed shaft actual speed, to obtain a thread error curve, wherein the step of continuously computing a thread error further comprises bl. computing a feed shaft theoretical speed on the basis of the main shaft actual speed; b2. computing the thread error by comparing the feed shaft actual speed with the feed shaft theoretical speed; and c. analyzing and determining an error cause according to a graphic form of the thread error curve. a. acquiring a main shaft actual speed and a feed shaft actual speed of a lathe; and characterized by further comprising: b. continuously computing a thread error on the basis of the main shaft actual speed and feed shaft actual speed, to obtain a thread error curve, wherein the step of continuously computing a thread error further comprises bl. computing a feed shaft theoretical speed on the basis of the main shaft actual speed; b2. computing the thread error by comparing the feed shaft actual speed with the feed shaft theoretical speed; and c. analyzing and determining an error cause according to a graphic form of the thread error curve. b. continuously computing a thread error on the basis of the main shaft actual speed and feed shaft actual speed, to obtain a thread error curve, wherein the step of continuously computing a thread error further comprises bl. computing a feed shaft theoretical speed on the basis of the main shaft actual speed; b2. computing the thread error by comparing the feed shaft actual speed with the feed shaft theoretical speed; and c. analyzing and determining an error cause according to a graphic form of the thread error curve.
A composite material of aluminium oxide as a ceramic matrix, zirconium oxide dispersed therein, wherein the composite material contains as a first phase a proportion of aluminium oxide of at least 65% by volume and as a second phase a proportion of zirconium oxide of 10 to 35% by volume, and wherein the zirconium oxide, relative to the total zirconium-oxide content, is present to 80 to 99% in the tetragonal phase, characterised in that the total content of chemical stabilizers is < 0.2 mol % so that the stabilization of the tetragonal phase of the zirconium oxide for the most part does not take place chemically, but mechanically by embedding into the aluminium-oxide matrix.
A backlight unit comprising: a light guide plate which is adapted to guide incident light from a lateral side of the light guide plate toward a liquid crystal display, LCD, panel placed in front of the light guide plate; a light source unit which comprises a light source which is operable to emit the light and a light source supporting member which is adapted to support the light source and is arranged adjacent to the lateral side of the light guide plate; a backlight supporting frame (125,126,128) which is arranged in the backlight unit; a quantum dot, QD, bar which is arranged between the lateral side of the light guide plate and the light source and is operable to change a color of the light emitted from the light source; and characterised in that the backlight unit further comprises; a QD-bar fastening member (125/129) which is adapted to fasten the QD bar, wherein the QD-bar fastening member (125/129) comprises one of the light source supporting member or the backlight supporting frame (125,126,128). a light guide plate which is adapted to guide incident light from a lateral side of the light guide plate toward a liquid crystal display, LCD, panel placed in front of the light guide plate; a light source unit which comprises a light source which is operable to emit the light and a light source supporting member which is adapted to support the light source and is arranged adjacent to the lateral side of the light guide plate; a backlight supporting frame (125,126,128) which is arranged in the backlight unit; a quantum dot, QD, bar which is arranged between the lateral side of the light guide plate and the light source and is operable to change a color of the light emitted from the light source; and characterised in that the backlight unit further comprises; a QD-bar fastening member (125/129) which is adapted to fasten the QD bar, wherein the QD-bar fastening member (125/129) comprises one of the light source supporting member or the backlight supporting frame (125,126,128).
A cooking device comprising a panel that is provided by cutting and bending a rectangular sheet metal in the form of an open-top rectangular prism, and that has a front wall whereon the control buttons are disposed, and two side walls, a bottom wall and a top wall which surround the front wall the panel having almost square cut-outs which are located at all four corners of the sheet and which are formed by cutting the sheet along a first cutting line being parallel to the long edges of the sheet, and along a second cutting line extending orthogonally to the first cutting line and parallel to the short edge of the sheet; characterized in that the panel has more than one arc-shaped recess formed by cutting the sheet before the sheet is folded, said arc-shaped recess being located at the junction point of the cutting lines (C1, C2) forming the cut-outs, and which extending towards between the sheet portions forming the front wall and the top wall or bottom wall of the panel when the sheet is folded, and in that the panel comprises flaps which remain between a first folding line and the first cutting line that extend parallel to the long edges of the sheet, and which are formed on the side walls by folding the sheet along the first folding line, whereby the panel comprises more than one slit which is formed by folding the sheet orthogonally along the first folding lines and by bending the sheet by rounding it along the second folding line, which slit remains between the flaps and the top wall or bottom wall, such that the slits and the recesses are shaped as an upside-down "J" together, whereby the initially straight first cutting line is bent by rounding such that it extends along the arc-shaped recess and the second cutting line.
A system (10, 20) comprising: at least two photovoltaic modules (11a, 11b, 11c, 11d, 13a, 13b, 13c, 13d, 21a, 21b), each comprising a respective module area being substantially perpendicular to the thickness of the corresponding photovoltaic module (11a, 11b, 11c, 11d, 13a, 13b, 13c, 13d, 21a, 21b), each of the at least two module areas comprising at least one of two first sides being substantially perpendicular to the thickness of the corresponding photovoltaic module (11a, 11b, 11c, 11d, 13a, 13b, 13c, 13d, 21a, 21b) and/or two second sides being substantially perpendicular to the thickness of the corresponding photovoltaic module (11a, 11b, 11c, 11d, 13a, 13b, 13c, 13d, 21a, 21b), wherein the at least two module areas are arranged in a substantially parallel manner with respect to each other and are shifted with respect to each other in an extension direction of the system (10, 20), wherein the at least two module areas are arranged in a staggering or alternating manner with respect to an extension plane in the extension direction of the system (10, 20), characterized in that the system (10, 20) and/or at least one of the at least two photovoltaic modules (11a, 11b, 11c, 11d, 13a, 13b, 13c, 13d, 21a, 21b) comprises multiple vanes (12a, 12b, 12c, 22a, 22b) being arranged in a region of at least one of the two first sides and/or the two second sides of the respective module area of the corresponding photovoltaic module (11a, 11b, 11c, 11d, 13a, 13b, 13c, 13d, 21a, 21b). wherein the at least two module areas are arranged in a substantially parallel manner with respect to each other and are shifted with respect to each other in an extension direction of the system (10, 20), wherein the at least two module areas are arranged in a staggering or alternating manner with respect to an extension plane in the extension direction of the system (10, 20), characterized in that the system (10, 20) and/or at least one of the at least two photovoltaic modules (11a, 11b, 11c, 11d, 13a, 13b, 13c, 13d, 21a, 21b) comprises multiple vanes (12a, 12b, 12c, 22a, 22b) being arranged in a region of at least one of the two first sides and/or the two second sides of the respective module area of the corresponding photovoltaic module (11a, 11b, 11c, 11d, 13a, 13b, 13c, 13d, 21a, 21b).
An assembly for use in a fuel cell, comprising a plurality of cell stack assembly components and a manifold for providing a reactant, including at least one inlet and at least one manifold surface establishing a flow path from the inlet along a direction in the manifold; and a baffle situated generally parallel to the direction, characterized in that the baffle having a first portion, a second portion, and a third portion, wherein the first portion is closer to the inlet than the second portion, the second portion is closer to the inlet than the third portion, the first portion has a first width (W 1) situated generally perpendicular to the direction, the second portion has a second width (W 2) situated generally perpendicular to the direction, the second width (W 2) is less than the first width (W 1), the third portion has a third width (W 3) situated generally perpendicular to the direction, and the third width (W 3) is greater than the second width (W 2), the various portions of the baffle establishing different fluid flow distribution regions, whereby the baffle comprises a generally planer sheet and is situated between the manifold surface and the cell stack assembly components and the first portion and the third portion establish first and third fluid supply regions that prevent fluid from moving away from the manifold surface toward the cell stack assembly components and the second portion establishes a second fluid supply region including a fluid flow path from the manifold surface toward the cell stack assembly components. a baffle situated generally parallel to the direction, characterized in that the baffle having a first portion, a second portion, and a third portion, wherein the first portion is closer to the inlet than the second portion, the second portion is closer to the inlet than the third portion, the first portion has a first width (W 1) situated generally perpendicular to the direction, the second portion has a second width (W 2) situated generally perpendicular to the direction, the second width (W 2) is less than the first width (W 1), the third portion has a third width (W 3) situated generally perpendicular to the direction, and the third width (W 3) is greater than the second width (W 2), the various portions of the baffle establishing different fluid flow distribution regions, whereby the baffle comprises a generally planer sheet and is situated between the manifold surface and the cell stack assembly components and the first portion and the third portion establish first and third fluid supply regions that prevent fluid from moving away from the manifold surface toward the cell stack assembly components and the second portion establishes a second fluid supply region including a fluid flow path from the manifold surface toward the cell stack assembly components.
Split air conditioner supplied with both an internal and an external unit characterized in that a frontal portion of the internal unit and its respective remote control, both comprise a secondary device that works as a meteorological station, using the information already available in the split air conditioner through its sensors in order to provide information related to the climate behavior tendency within a few period of hours, the several sensors present in the split air conditioner, such as for temperature, pressure and humidity, required to provide the suitable air treatment for the ambient in which is installed the split air conditioner, also work as measurement devices for the climate behavior determination, allowing it to point out its tendency in a short period of time of few hours, said climate tendency, noticed by the sensors, is exposed in the frontal portion of the internal unit, and on the remote control allowing the easy access to the information.
A continuous process for making a laminate sheet, comprising: a) supplying a metal sheet from a continuous roll, the metal sheet having a textured face textured with a plurality of piercing structures, each piercing structure having a respective pointed tip; b) supplying a second material from a continuous roll of the second material; c) heating the second material so that the second material is softer than the metal sheet; d) after step c), bringing the textured face into contact with the second material; e) after step d), forcing the metal sheet and the second material together to partially pierce the second material with the plurality of piercing structures, leaving a contact gap between the metal sheet and the second material; f) after step e), cooling the second material to harden the second material; g) after step f), forcing the metal sheet and the second material together to fully pierce the second material with the plurality of piercing structures and bring the metal sheet and the second material into contact; h) after step g), bending over at least some of the pointed tips to lock the metal sheet and the second material together. a) supplying a metal sheet from a continuous roll, the metal sheet having a textured face textured with a plurality of piercing structures, each piercing structure having a respective pointed tip; b) supplying a second material from a continuous roll of the second material; c) heating the second material so that the second material is softer than the metal sheet; d) after step c), bringing the textured face into contact with the second material; e) after step d), forcing the metal sheet and the second material together to partially pierce the second material with the plurality of piercing structures, leaving a contact gap between the metal sheet and the second material; f) after step e), cooling the second material to harden the second material; g) after step f), forcing the metal sheet and the second material together to fully pierce the second material with the plurality of piercing structures and bring the metal sheet and the second material into contact; h) after step g), bending over at least some of the pointed tips to lock the metal sheet and the second material together.
Illumination device with an elongated lamp and a protection element composed of a plastic material, - wherein the lamp comprises at least one LED, - wherein the protection element comprises an elongated cavity, - wherein at least a section of the lamp is accommodated in the cavity, - wherein the protection element comprises a wall surrounding the cavity, - wherein the wall is a closed wall, - the lamp further comprises a light guiding body composed of a translucent plastic material, and an LED light exit surface, wherein the LED light exit surface is provided on the light guiding body, characterised in that at least a region of the wall having an inner surface facing the LED light exit surface is formed such that it is translucent, wherein the protection element is connectable to a holding element in a locking manner, wherein the protection element comprises a translucent element and a base element, wherein the translucent element is releasably connected to the base element, and wherein the base element is connectable to the holding element in a locking manner. - wherein the lamp comprises at least one LED, - wherein the protection element comprises an elongated cavity, - wherein at least a section of the lamp is accommodated in the cavity, - wherein the protection element comprises a wall surrounding the cavity, - wherein the wall is a closed wall, - the lamp further comprises a light guiding body composed of a translucent plastic material, and an LED light exit surface, wherein the LED light exit surface is provided on the light guiding body,
A retransmission request transmitting method in which a MAC sublayer of a receiving-side apparatus has no function to perform reordering processing and an RLC sublayer of the receiving-side apparatus transmits a STATUS-PDU for an RLC-data-PDU transmitted from an RLC sublayer of a transmitting-side apparatus, the method comprising the steps of: starting, at the RLC sublayer of the receiving-side apparatus, a reordering timer, in a case where a second RLC-data-PDU with a sequence number larger than a sequence number of a first RLC-data-PDU is received before one or a plurality of first RLC-data-PDUs are received; handling, at the RLC sublayer of the receiving-side apparatus at the time of expiration of the reordering timer, as a state variable, a minimum value of a sequence number of an RLC-data-PDU which is not yet received, amongst other RLC-data-PDUs with a sequence number larger than the sequence number of the second RLC-data-PDU, being part of a reception window; and generating and transmitting, by the RLC sublayer of the receiving-side apparatus, the STATUS-PDU when said reordering timer expires, based on the handled state variable and the sequence numbers of all the RLC-data-PDUs which are not yet received in the reception window. starting, at the RLC sublayer of the receiving-side apparatus, a reordering timer, in a case where a second RLC-data-PDU with a sequence number larger than a sequence number of a first RLC-data-PDU is received before one or a plurality of first RLC-data-PDUs are received; handling, at the RLC sublayer of the receiving-side apparatus at the time of expiration of the reordering timer, as a state variable, a minimum value of a sequence number of an RLC-data-PDU which is not yet received, amongst other RLC-data-PDUs with a sequence number larger than the sequence number of the second RLC-data-PDU, being part of a reception window; and generating and transmitting, by the RLC sublayer of the receiving-side apparatus, the STATUS-PDU when said reordering timer expires, based on the handled state variable and the sequence numbers of all the RLC-data-PDUs which are not yet received in the reception window.