mhurhangee/ep-ind-claims huggingface dataset:
Data cable for high-speed data transmissions with at least one wire pair consisting of two wires extending in the longitudinal direction which for the purpose of forming a pair shielding are surrounded by a shielding foil and wherein a dielectric intermediate film has been spun around the wire pair as an additional film between shielding foil and the wire pair, characterized in that the intermediate film has been spun around the wire pair with a varying length of lay (l).
A composition comprising an antibody or antibody fragment that has antibody framework sequences of antibody variable domains VL and VH, wherein the VL domain has the framework sequence of Seq. Id. No. 1 and the VH domain has the framework sequence of Seq. Id. No. 11, wherein the antibody or antibody fragment is stable under reducing intracellular conditions.
A method implemented by a client device, the method comprising: determining an execution state of an application that is executed by the client device; receiving a notification to be displayed as part of a representation of an application in a user interface, the received notification associated with a tag specifying how the notification is to be displayed; examining a storage of the client device to determine whether a notification in the storage has a tag matching the tag of the received notification, wherein the determining comprises comparing the tag of the received notification to the tag associated with the notification in the storage by comparing text strings of the tag of the received notification with the tag associated with the notification in the storage; responsive to a determination that the tag of the received notification matches the tag associated with the notification in the storage, replacing the notification in the storage with the received notification for display as part of the representation of the application in the user interface; choosing the received notification to be displayed as part of the representation of the application in the user interface of the client device; and displaying the notification as part of the representation of the application in the user interface. determining an execution state of an application that is executed by the client device; receiving a notification to be displayed as part of a representation of an application in a user interface, the received notification associated with a tag specifying how the notification is to be displayed; examining a storage of the client device to determine whether a notification in the storage has a tag matching the tag of the received notification, wherein the determining comprises comparing the tag of the received notification to the tag associated with the notification in the storage by comparing text strings of the tag of the received notification with the tag associated with the notification in the storage; responsive to a determination that the tag of the received notification matches the tag associated with the notification in the storage, replacing the notification in the storage with the received notification for display as part of the representation of the application in the user interface; choosing the received notification to be displayed as part of the representation of the application in the user interface of the client device; and displaying the notification as part of the representation of the application in the user interface.
Method of installing a bucket foundation structure comprising one, two, three or more skirts, into soils of varying characteristics in a controlled manner, where the method comprises two stages: a first stage being a design phase and a second stage being an installation phase, such that in the first stage, design parameters are determined relating to the loads on the finished foundation structure; soil profile on the location of installation; allowable installation tolerances, which design parameters are used to estimate the minimum diameter and length of the skirt(s) of the bucket, which minimum diameter and length of the skirt(s) of the bucket is used to simulate load situations and penetration into foundation soil, in order to predict necessary penetration force, required suction inside the bucket and critical suction pressures, in which second stage the necessary penetration force, required suction inside the bucket and critical suction pressures determined in the first stage are used in order to control the installation of the bucket foundation structure; and that a control system activates and/or deactivates different means arranged in and around the bucket foundation structure for creating the penetration force needed and wherein the control system during the second stage controls the penetration of the bucket foundation structure by activating control actions by creating one or more of the following: - constant flow of fluid, air/gas or steam in one or more chambers; - constant pressure established by fluid, air/gas or steam in one or more chambers; - variations of flow or pressure established by fluid, air/gas or steam in one or more chambers; - pulsating flow and/or pressure established by fluid, air/gas or steam in one or more chambers, wherein - the necessary penetration force, required suction, and critical suction pressures are used as input for a control system in the second stage, and further - sensors provided in installation equipment, such as pumps (2,23), in conduits and on the bucket foundation structure feed input to the control system, where the input from the sensors are compared to the necessary penetration force, required suction inside the bucket and critical suction pressures derived in the first stage. - constant flow of fluid, air/gas or steam in one or more chambers; - constant pressure established by fluid, air/gas or steam in one or more chambers; - variations of flow or pressure established by fluid, air/gas or steam in one or more chambers; - pulsating flow and/or pressure established by fluid, air/gas or steam in one or more chambers, wherein - the necessary penetration force, required suction, and critical suction pressures are used as input for a control system in the second stage, and further - sensors provided in installation equipment, such as pumps (2,23), in conduits and on the bucket foundation structure feed input to the control system, where the input from the sensors are compared to the necessary penetration force, required suction inside the bucket and critical suction pressures derived in the first stage.
A backlight unit comprising: a light source; and a light-source driving unit configured to drive the light source and that includes a transformer, wherein the transformer comprises: a core comprising a plurality of metal powders; and a plurality of coils (791, 792) embedded in the core; wherein at least one coil has a diameter different from a diameter of another coil, and the plurality of coils (791, 792) is completely surrounded by the core. a light source; and a light-source driving unit configured to drive the light source and that includes a transformer, wherein the transformer comprises: a core comprising a plurality of metal powders; and a plurality of coils (791, 792) embedded in the core; wherein at least one coil has a diameter different from a diameter of another coil, and the plurality of coils (791, 792) is completely surrounded by the core. a core comprising a plurality of metal powders; and a plurality of coils (791, 792) embedded in the core; wherein at least one coil has a diameter different from a diameter of another coil, and the plurality of coils (791, 792) is completely surrounded by the core.
A plant for the production of spunbonded nonwoven, comprising • a spinning solution production, • a spinning system, • a device for the delivery of coagulation liquid, • at least one conveying device (7, 9) for depositing the spunbonded nonwoven, and • a collecting device for the spunbonded nonwoven, characterized in that at least one discharge device is provided between the device for the delivery of coagulation liquid and the collecting device for the spunbonded nonwoven. • a spinning solution production, • a spinning system, • a device for the delivery of coagulation liquid, • at least one conveying device (7, 9) for depositing the spunbonded nonwoven, and • a collecting device for the spunbonded nonwoven,
A waterborne polymer composition comprising a least one acrylic emulsion copolymer A and dispersion of ethylene-vinyl acetate copolymer B, wherein said copolymer A comprises an acrylic emulsion copolymer having a minimum film formation temperature below 25 °C, said acrylic emulsion copolymer comprising: 10-50 wt.% of repeating units from styrene and/or C1-C3-alkyl substituted styrene, 50-90 wt.% of repeating units from C1 - C12 esters of (meth or eth) acrylic monomers, 0.0-5 wt.% of repeating units from acid functional monomers repeating units, preferably acrylic, methacrylic acids, 0-10% of acrylonitrile and/or methacrylonitrile repeating units, and 0-20 wt.% of repeating units from other co-polymerizable monomers other than a1-a4 based on the weight of polymer A, wherein said acrylic emulsion copolymer further comprises 0.2-3 wt.% of N-methylol (meth)acrylamide repeating units, and wherein said dispersion of ethylene-vinyl acetate copolymer B comprises a dispersion of ethylene-vinyl acetate copolymer in a liquid media with a minimum film formation temperature of at least 60 °C, said copolymer B comprising: 50-95 wt.% ethylene repeating units, 5-50 wt.% vinyl acetate repeating units, and 0-5 wt.% repeating units from other co-monomers based on the weight of polymer B, and said copolymers A and copolymer B being present in weight ratios of 95:5 to 40:60. 10-50 wt.% of repeating units from styrene and/or C1-C3-alkyl substituted styrene, 50-90 wt.% of repeating units from C1 - C12 esters of (meth or eth) acrylic monomers, 0.0-5 wt.% of repeating units from acid functional monomers repeating units, preferably acrylic, methacrylic acids, 0-10% of acrylonitrile and/or methacrylonitrile repeating units, and 0-20 wt.% of repeating units from other co-polymerizable monomers other than a1-a4 based on the weight of polymer A, wherein said acrylic emulsion copolymer further comprises 0.2-3 wt.% of N-methylol (meth)acrylamide repeating units, and 50-95 wt.% ethylene repeating units, 5-50 wt.% vinyl acetate repeating units, and 0-5 wt.% repeating units from other co-monomers based on the weight of polymer B, and said copolymers A and copolymer B being present in weight ratios of 95:5 to 40:60.
Movable guide element for detachable attachment to a nail setting device or to a basic body of a kit for subsequent attachment to a nail setting device, which guide element can be attached to a nail setting device or a basic body in such a way that it can be moved between a radially inner guide position in relation to a firing channel axis of the nail setting device, in which it partially closes the open front end section of a barrel of a nail setting device and guides a nail to be driven in and a firing pin driving it along the firing channel axis, and a radially outer deflection position, in which a radial deflection of a nail to be driven in is possible, about a pivot axis relative to a base body of the nail setting device, wherein a linearly extending guide groove for guiding a nail to be driven in and a firing pin is provided in an inner end face facing the firing channel axis in the installed state, characterized in that the rear end of the guide groove opens into a central recess which completely penetrates the guide element from the inside to the outside and separates two rearwardly projecting, mutually opposite webs (27, 28).
A method for receiving a data channel by a user equipment, UE, (100, 400) in a wireless communication system, the method comprising: receiving, from a base station, BS, configuration information which includes information for a multiplexing scheme based on single DCI related to Multiple-Transmission and Reception Points, TRPs, receiving, from the BS, downlink control information, DCI, wherein the DCI includes i) a transmission configuration indication, TCI, field and ii) an antenna port field; and receiving, from the BS, the data channel based on the DCI, wherein multiple TCI states are indicated based on the TCI field, a demodulation reference signal, DM-RS, port is indicated based on the antenna port field, wherein the data channel is received based on the multiplexing scheme related to the DCI, wherein the multiplexing scheme is based on at least one of i) a Time Division Multiplexing, TDM, scheme, ii) a Frequency Division Multiplexing, FDM, scheme, or iii) a Spatial Division Multiplexing, SDM, scheme, wherein the multiplexing scheme is determined based on the number of code division multiplexing, CDM, groups including a DM-RS port in which the data channel is received, wherein, based on the number of CDM groups being two or more, the multiplexing scheme is determined as the SDM scheme, wherein, based on the number of CDM groups being one, the multiplexing scheme is determined as a scheme other than the SDM scheme, wherein, based on the configuration information, the scheme other than the SDM scheme is determined as the TDM scheme or the FDM scheme. receiving, from a base station, BS, configuration information which includes information for a multiplexing scheme based on single DCI related to Multiple-Transmission and Reception Points, TRPs, receiving, from the BS, downlink control information, DCI, wherein the DCI includes i) a transmission configuration indication, TCI, field and ii) an antenna port field; and receiving, from the BS, the data channel based on the DCI, wherein multiple TCI states are indicated based on the TCI field, a demodulation reference signal, DM-RS, port is indicated based on the antenna port field, wherein the data channel is received based on the multiplexing scheme related to the DCI, wherein the multiplexing scheme is based on at least one of i) a Time Division Multiplexing, TDM, scheme, ii) a Frequency Division Multiplexing, FDM, scheme, or iii) a Spatial Division Multiplexing, SDM, scheme, wherein the multiplexing scheme is determined based on the number of code division multiplexing, CDM, groups including a DM-RS port in which the data channel is received, wherein, based on the number of CDM groups being two or more, the multiplexing scheme is determined as the SDM scheme, wherein, based on the number of CDM groups being one, the multiplexing scheme is determined as a scheme other than the SDM scheme, wherein, based on the configuration information, the scheme other than the SDM scheme is determined as the TDM scheme or the FDM scheme.
Compounds of the formula in which the radicals are defined as follows: R 1, R 2, R 3 and R 4 are independently of each other H or fluorine, wherein at least one of these substituents is a fluorine atom. R 1, R 2, R 3 and R 4 are independently of each other H or fluorine, wherein at least one of these substituents is a fluorine atom.
Plug-in connector for hollow profile of spacer frames, glazing bars or the like for insulating-glass units, wherein the plug-in connector has an essentially U-shaped or box-shaped cross section with a central crosspiece and side crosspieces, on which are arranged a push-in stop and one or more compliant, in particular resilient restraining elements (11, 12, 13), characterized in that the side crosspiece has arranged on it, alongside the push-in stop, a restraining element with a higher level of stiffness than compliant, in particular resilient restraining element (11, 12, 13).
A capacity control valve comprising a valve housing provided with a discharge port allowing a discharge fluid of a discharge pressure to pass therethrough, a suction port allowing a suction fluid of a suction pressure to pass therethrough, and a control port allowing a control fluid of a control pressure to pass therethrough, a rod driven by a solenoid, and a primary valve including a primary valve seat and a primary valve body and opening and closing a communication between the discharge port and the control port by the movement of the rod, the capacity control valve further comprising: a CS valve which opens and closes a communication between the control port and the suction port by the movement of the rod, the CS valve including a CS valve body, a first spring configured to urge the CS valve body in a closing direction of the CS valve, and a second spring configured to urge the CS valve body in an opening direction of the CS valve; and an urging member configured to urge the primary valve body and the rod in opposite directions, wherein the primary valve body and the rod are disposed so as to be relatively movable in an axial direction, characterized in that the control port includes a first control port and a second control port, and in that the suction port, the second control port, the discharge port, and the first control port are sequentially disposed from a side of the solenoid. a CS valve which opens and closes a communication between the control port and the suction port by the movement of the rod, the CS valve including a CS valve body, a first spring configured to urge the CS valve body in a closing direction of the CS valve, and a second spring configured to urge the CS valve body in an opening direction of the CS valve; and an urging member configured to urge the primary valve body and the rod in opposite directions, wherein the primary valve body and the rod are disposed so as to be relatively movable in an axial direction, characterized in that the control port includes a first control port and a second control port, and in that the suction port, the second control port, the discharge port, and the first control port are sequentially disposed from a side of the solenoid.
A lighting assembly comprising: a mounting structure; a solid state light source mounted on the mounting structure; an optical device formed by a light pipe optically coupled to the solid state light source; and a support structure for connecting the optical device to the mounting structure surrounding the light pipe and enclosing a region between the first end of the light pipe and the mounting structure, wherein the solid state light source is enclosed within a space formed by the mounting structure, the support structure, and the optical device, and the support structure absorbs thermal energy to reduce an operating temperature of the optical device, and the optical device is formed from a first material and the support structure is formed from a different, second material, the lighting assembly being characterized in that the support structure supports the light pipe above the solid state light source and the mounting structure such that the light pipe does not directly contact the mounting structure and the solid sate light source, and the solid state light source can vent to atmosphere for pressure and humidity control. a mounting structure; a solid state light source mounted on the mounting structure; an optical device formed by a light pipe optically coupled to the solid state light source; and a support structure for connecting the optical device to the mounting structure surrounding the light pipe and enclosing a region between the first end of the light pipe and the mounting structure, wherein the solid state light source is enclosed within a space formed by the mounting structure, the support structure, and the optical device, and the support structure absorbs thermal energy to reduce an operating temperature of the optical device, and the optical device is formed from a first material and the support structure is formed from a different, second material, the lighting assembly being characterized in that the support structure supports the light pipe above the solid state light source and the mounting structure such that the light pipe does not directly contact the mounting structure and the solid sate light source, and the solid state light source can vent to atmosphere for pressure and humidity control.
An LED lighting apparatus comprising: a printed circuit board, an LED chip arranged on one side of the printed circuit board, and an optical device arranged on the printed circuit board and enclosing the LED chip, wherein the LED lighting apparatus further comprises a reinforcing board arranged on a region at least corresponding to a region defined by the optical device on the printed circuit board and on the other side of the printed circuit board, characterized in that the LED lighting apparatus is encapsulated with an encapsulating glue and the reinforcing board is welded via a soldering pad on the other side of the printed circuit board, and wherein a coverage region of the soldering pad at least corresponds to a region where the optical device contacts the printed circuit board, and wherein the soldering pad is configured to be ring-shaped, and the ring-shaped soldering pad defines a closed buffer cavity between the reinforcing board and the printed circuit board.
A method for determining at least one mode m of reconstruction of a reflecting object having a portion capable of generating specular reflections of ultrasonic waves, within a given volume Zr, characterized in that it comprises at least the following steps: • for each point P of the given volume Zr, determining an ultrasonic field value A ij m P for N emitter-receiver pairs (i, j) and for one detection mode m, • computing a number C m P n → = ∑ i, j = 1 N c ij m P n → of reflections of the wave, where c ij m = { 1 if n → ij m P ⋅ n → = 1 0 if not with n → ij m P the normal formed by the "forward" direction Cl and the "backward" direction d j of the ultrasonic wave emitted and reflected by the reflecting element, • computing the energy value E m ( P, n) for each point P of the zone Zr, with n the normal to the reflecting element, and for several detection modes m, by summing, over the N emitter-receiver pairs, (i, j), the product of the value of the ultrasonic field and the number of reflections of the wave: with E m P n → = ∑ i, j = 1 N A ij m P c ij P n → • comparing said one or more obtained energy values E m ( P, n) to a given criterion and on the basis of the obtained result, selecting at least one reconstruction mode m to be used to detect and characterize the reflecting element. • for each point P of the given volume Zr, determining an ultrasonic field value A ij m P for N emitter-receiver pairs (i, j) and for one detection mode m, • computing a number C m P n → = ∑ i, j = 1 N c ij m P n → of reflections of the wave, where c ij m = { 1 if n → ij m P ⋅ n → = 1 0 if not with n → ij m P the normal formed by the "forward" direction Cl and the "backward" direction d j of the ultrasonic wave emitted and reflected by the reflecting element, • computing the energy value E m ( P, n) for each point P of the zone Zr, with n the normal to the reflecting element, and for several detection modes m, by summing, over the N emitter-receiver pairs, (i, j), the product of the value of the ultrasonic field and the number of reflections of the wave: with E m P n → = ∑ i, j = 1 N A ij m P c ij P n → • comparing said one or more obtained energy values E m ( P, n) to a given criterion and on the basis of the obtained result, selecting at least one reconstruction mode m to be used to detect and characterize the reflecting element.