mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device, comprising: a workpiece; at least one first material layer (Mn) disposed over the workpiece; a second material layer disposed over the at least one first material layer (Mn), the second material layer including at least one bond pad; a conductive support structure (262; 272) disposed in the at least one first material layer (Mn) beneath the at least one bond pad, the conductive support structure (262; 272) consisting of a plurality of support members; an insulating material layer disposed between the at least one first material layer (Mn) and the at least one bond pad, the insulating material layer electrically insulating the at least one bond pad from the conductive support structure; and a wire coupled to the bond pad, the interface of the wire and the bond pad comprising a wire bond; characterized in that the plurality of support members of the conductive support structure is disposed only in a first annular shape beneath the at least one bond pad, the first annular shape of the support members being a ring having a width (w), wherein a first diameter is the diameter of the first annular shape at a mid-point of the width (w), the wire bond having a circular shape, wherein the circular shape of the wire bond has a second diameter, the second diameter being equal to the first diameter. a workpiece; at least one first material layer (Mn) disposed over the workpiece; a second material layer disposed over the at least one first material layer (Mn), the second material layer including at least one bond pad; a conductive support structure (262; 272) disposed in the at least one first material layer (Mn) beneath the at least one bond pad, the conductive support structure (262; 272) consisting of a plurality of support members; an insulating material layer disposed between the at least one first material layer (Mn) and the at least one bond pad, the insulating material layer electrically insulating the at least one bond pad from the conductive support structure; and a wire coupled to the bond pad, the interface of the wire and the bond pad comprising a wire bond; characterized in that the plurality of support members of the conductive support structure is disposed only in a first annular shape beneath the at least one bond pad, the first annular shape of the support members being a ring having a width (w), wherein a first diameter is the diameter of the first annular shape at a mid-point of the width (w), the wire bond having a circular shape, wherein the circular shape of the wire bond has a second diameter, the second diameter being equal to the first diameter.
A suspension of enriched type B synoviocytes for use in inducing repair of a joint tissue in a mammal by introduction of the suspension into an injured joint of said mammal, and wherein said suspension of enriched type B synoviocytes has been obtained by removing a sample of synovial membrane from a joint of said mammal and isolating said type B synoviocytes from said membrane, wherein said isolating step comprises removal of type A synoviocytes, and wherein the suspension has not been obtained by a method comprising in vitro cell culture.
A user equipment, UE, comprising: a receiver for using radio resources and being configured to receive a non-periodic request from a base station to provide downlink channel quality information, CQI, when the base station has a pending downlink transmission; a transmitter to transmit downlink channel quality information in response to the non-periodic request; the receiver is operable to receive an allocation of the radio resources based at least on the transmitted downlink channel quality information; the non-periodic request is to provide downlink channel quality information specified in the non-periodic request, wherein the downlink channel quality information specified in the non-periodic request comprises the downlink channel quality information regarding the radio resources or a subset of the radio resources; and the receiver is further operable to receive downlink data in the pending downlink transmission via the allocation of the radio resources. a receiver for using radio resources and being configured to receive a non-periodic request from a base station to provide downlink channel quality information, CQI, when the base station has a pending downlink transmission; a transmitter to transmit downlink channel quality information in response to the non-periodic request; the receiver is operable to receive an allocation of the radio resources based at least on the transmitted downlink channel quality information; the non-periodic request is to provide downlink channel quality information specified in the non-periodic request, wherein the downlink channel quality information specified in the non-periodic request comprises the downlink channel quality information regarding the radio resources or a subset of the radio resources; and the receiver is further operable to receive downlink data in the pending downlink transmission via the allocation of the radio resources.
A board arrangement structure comprising: a housing (33, 34, 35) having a reference mounting surface; a first board having a first facing surface and fastened to said housing (33, 34, 35); a second board having a second facing surface and arranged in an orientation enabling relative movement with respect to the first board; an electrically charged film; a counter electrode arranged facing said electrically charged film; and an output part outputting electric power generated between said electrically charged film and said counter electrode; wherein either one of said electrically charged film and said counter electrode is arranged at said first facing surface and the other is arranged at said second facing surface, and said first facing surface of said first board is fastened to said reference mounting surface, and characterized in that a shaft is provided with said second board and said shaft is able to rotate at an upper bearing part and a lower bearing part provided at said housing (33, 34, 35). a housing (33, 34, 35) having a reference mounting surface; a first board having a first facing surface and fastened to said housing (33, 34, 35); a second board having a second facing surface and arranged in an orientation enabling relative movement with respect to the first board; an electrically charged film; a counter electrode arranged facing said electrically charged film; and an output part outputting electric power generated between said electrically charged film and said counter electrode; wherein either one of said electrically charged film and said counter electrode is arranged at said first facing surface and the other is arranged at said second facing surface, and said first facing surface of said first board is fastened to said reference mounting surface, and characterized in that a shaft is provided with said second board and said shaft is able to rotate at an upper bearing part and a lower bearing part provided at said housing (33, 34, 35).
A device comprising a casing or casing front cover, a bracket, a back cover or inner frame and a locking device for fastening the casing or casing front cover to the bracket, wherein the back cover or inner frame is fixed to the casing or casing front cover, wherein the locking device is connected to the casing or casing front cover and is rotatable around an axis of rotation from an open position to a locked position to engage the bracket, wherein the locking device comprises a cylinder portion extending along the axis of rotation and having a first end and a second end, and an axially extending protrusion connected to the second end of the cylinder portion, wherein the casing or casing front cover is provided with a through aperture for receiving the cylinder portion of the locking device, and wherein the bracket is provided with a projection for interaction with the protrusion of the locking device, cha racterised in that the locking device comprises a flange extending radially from the first end of the cylinder portion, wherein the flange of the locking device engages a first side of the casing or casing front cover at the aperture, the locking device comprises a radial extension extending around a part of the circumference of the cylinder portion, the aperture is formed with a notch for receiving the radial extension, and the back cover or inner frame is provided with a stop to prevent the locking device from rotating to a position in which the extension is aligned with the notch.
A method for determining a multiplexing mode of a frequency division duplex radio bearer in an user equipment of a wireless communications system comprising: operating the user equipment in a Cell Dedicated Channel state; characterized by determining whether the frequency division duplex radio bearer, called RB hereinafter, has a second multiplexing option only when the RB does not have a first multiplexing option; and determining a multiplexing mode of the RB according to a determination result of the second multiplexing option; wherein the first multiplexing option is a multiplexing option with a transport channel type "Dedicated Channel" for the downlink, and with a transport channel type "Enhanced Dedicated Transport Channel" for the uplink; wherein the second multiplexing option is a multiplexing option with a transport channel type "Dedicated Channel" for the downlink, and with a transport channel type "Dedicated Channel" for the uplink. operating the user equipment in a Cell Dedicated Channel state; characterized by determining whether the frequency division duplex radio bearer, called RB hereinafter, has a second multiplexing option only when the RB does not have a first multiplexing option; and determining a multiplexing mode of the RB according to a determination result of the second multiplexing option; wherein the first multiplexing option is a multiplexing option with a transport channel type "Dedicated Channel" for the downlink, and with a transport channel type "Enhanced Dedicated Transport Channel" for the uplink; wherein the second multiplexing option is a multiplexing option with a transport channel type "Dedicated Channel" for the downlink, and with a transport channel type "Dedicated Channel" for the uplink.
Method for producing knitted fabric (7, 7') designed at least in part as single jersey knitted fabric, which is produced on a double jersey knitting machine having a first and a second needle carrier and a machine gauge of ≥ 24 needles/inch (24 needles/2.54 cm), the first needle carrier being arranged opposite the second needle carrier, the first needle carrier having a number of needles/inch (a number of needles/2.54 cm) of latch needles that corresponds to the machine gauge, and the second needle carrier having transfer needles, the number of needles/inch (number of needles/2.54 cm) of the transfer needles being smaller than the number of needles/inch (number of needles/2.54 cm) of the latch needles of the first needle carrier by at least a factor of 2; characterized in that the single jersey knitted fabric has a perforated structure, the transfer needles being used to form loop clusters having at least two tuck loops per hole, and the tuck loops then being transferred from the transfer needles to the latch needles with or without at least one stitch.
A surgical clip cartridge, comprising: a surgical clip; a base portion and a plurality of dividers extending from the base portion, wherein the base portion extends in a longitudinal direction, the base portion having a bottom surface; and the plurality of dividers extends from the base portion in a direction opposite of the bottom surface; wherein the base portion defines a mounting groove for attaching the base portion onto a surgical instrument shaft, characterised in that the mounting groove defines at least two docking portions (316a, 316b), a first docking portion of the at least two docking portions (316a, 316b) being defined on a proximal end of the base portion in the longitudinal direction, and a second docking portion of the at least two docking portions (316a, 316b) being defined on a distal end of the base portion in the longitudinal direction, and wherein the first docking portion and the second docking portion both extend along a common longitudinal axis, each of the first and second docking portions (316a, 316b) defines a concave surface configured to snap on to, engage and conform around the surgical instrument shaft, and the concave surfaces extend between about 180° and about 270° around the longitudinal axis of the first and second docking portions (316a, 316b). a surgical clip; a base portion and a plurality of dividers extending from the base portion, wherein the base portion extends in a longitudinal direction, the base portion having a bottom surface; and the plurality of dividers extends from the base portion in a direction opposite of the bottom surface; wherein the base portion defines a mounting groove for attaching the base portion onto a surgical instrument shaft, characterised in that the mounting groove defines at least two docking portions (316a, 316b), a first docking portion of the at least two docking portions (316a, 316b) being defined on a proximal end of the base portion in the longitudinal direction, and a second docking portion of the at least two docking portions (316a, 316b) being defined on a distal end of the base portion in the longitudinal direction, and wherein the first docking portion and the second docking portion both extend along a common longitudinal axis, each of the first and second docking portions (316a, 316b) defines a concave surface configured to snap on to, engage and conform around the surgical instrument shaft, and the concave surfaces extend between about 180° and about 270° around the longitudinal axis of the first and second docking portions (316a, 316b).
A near-field communication system (1, 2, 3) comprising first and second communication devices (1, 2, 3), wherein said first and second communication devices (1, 2, 3) comprise: modulating means for sending data at one of a plurality of transfer rates by modulating an electromagnetic wave; demodulating means for obtaining data sent from another device at one of the plurality of transfer rates by demodulating the electromagnetic wave; and detecting means (23, 25) for detecting the electromagnetic wave, and wherein said first communication device is operable to initiate an active or a passive mode communication with the second communication device, the active mode including generation of the electromagnetic wave by both the first and second communication devices (1, 2), the passive mode providing a load modulated communication from the second communication device to the first communication device; wherein said detecting means (23, 25) detects the electromagnetic wave at the level of a first threshold or more; the first communication device starts to output the electromagnetic wave when said detecting means (23, 25) does not detect the electromagnetic wave at the level of the first threshold or more within a first time period which is defined by T IDT +n×T RFW, wherein T IDT is an initial delay time, T RFW is a RF waiting time, and n is a random number; said second communication device obtains the data by said demodulating means. modulating means for sending data at one of a plurality of transfer rates by modulating an electromagnetic wave; demodulating means for obtaining data sent from another device at one of the plurality of transfer rates by demodulating the electromagnetic wave; and detecting means (23, 25) for detecting the electromagnetic wave, and wherein said first communication device is operable to initiate an active or a passive mode communication with the second communication device, the active mode including generation of the electromagnetic wave by both the first and second communication devices (1, 2), the passive mode providing a load modulated communication from the second communication device to the first communication device; wherein said detecting means (23, 25) detects the electromagnetic wave at the level of a first threshold or more; the first communication device starts to output the electromagnetic wave when said detecting means (23, 25) does not detect the electromagnetic wave at the level of the first threshold or more within a first time period which is defined by T IDT +n×T RFW, wherein T IDT is an initial delay time, T RFW is a RF waiting time, and n is a random number; said second communication device obtains the data by said demodulating means.
A flexographic printing precursor that is laser-engraveable to provide a relief image, the flexographic printing precursor comprising a substrate, and having disposed over the substrate, in order: a non-printing laser-engraveable layer comprising: a first elastomer, a polymer that is nitrocellulose, a polymer comprising a triazene group, a glycidyl azide polymer, or a poly(vinyl nitrate), and a first near-infrared radiation absorber, and an outermost non-metallic printing laser-engraveable layer disposed over the non-printing laser-engraveable layer, the outermost non-metallic, printing laser-engraveable layer comprising: a second elastomer and a second near-infrared radiation absorber, wherein the non-printing laser-engraveable layer is more sensitive to laser irradiation at a wavelength of at least 700 nm and up to and including 1300 nm than the outermost non-metallic printing laser-engraveable layer. a non-printing laser-engraveable layer comprising: a first elastomer, a polymer that is nitrocellulose, a polymer comprising a triazene group, a glycidyl azide polymer, or a poly(vinyl nitrate), and a first near-infrared radiation absorber, and an outermost non-metallic printing laser-engraveable layer disposed over the non-printing laser-engraveable layer, the outermost non-metallic, printing laser-engraveable layer comprising: a second elastomer and a second near-infrared radiation absorber, wherein the non-printing laser-engraveable layer is more sensitive to laser irradiation at a wavelength of at least 700 nm and up to and including 1300 nm than the outermost non-metallic printing laser-engraveable layer.
Loading aid, formed and adapted for the temporary intermediate storage of transport containers which are at least partially open to the top, are exclusively empty and are standing ready in a stack formed of at least three transport containers, during filling of the transport containers with live poultry animals, comprising a rack which can be positioned on a solid and flat ground surface, wherein the rack has on a front side facing the stack that is to be filled at least two vertical support struts arranged spaced apart from one another and at least two insertion openings for transport containers arranged one above the other and formed between the vertical support struts, and wherein the rack has on a rear side remote from the stack that is to be filled at least two vertical support struts arranged spaced apart from one another, and wherein slide rails extend on both sides of the rack from the vertical support struts on the front side to the vertical support struts on the rear side to form a receptacle for a transport container, wherein the rack has at least two receptacles arranged one above the other for in each case one transport container and wherein the slide rails on the front side of the rack facing the stack of transport containers that is to be filled protrude beyond the vertical support struts, characterised in that the rack has an associated handling device which is formed and adapted for lifting the transport containers from the stack, in such a manner that the stacked transport containers can be brought out of engagement with one another at least on the side facing the rack.
A method of preparing an electrochemically active cathode material, comprising: (i) reacting an alkali metal-containing layered nickel oxide having a formula A 1-a Ni 1+a O 2, wherein A comprises an alkali metal and 0 < a ≤ 0.2 and a chemical oxidant comprising a peroxydisulfate salt, a monopersulfate salt, or a combination thereof, in a fluid composition at an elevated temperature for at least a period of time sufficient to form a Ni -containing mixture, the Ni -containing mixture comprising a Ni -containing alkali metal-deficient layered nickel oxide electrochemically active cathode material, the Ni containing mixture having a total nickel (Ni) content; and (ii) reacting the Ni -containing mixture of step (i) with a mineral acid, wherein the mineral acid is added in an amount of 0.60 moles or less per mole of total nickel, at an elevated temperature for at least a period of time sufficient to form an additional amount of the Ni -containing alkali metal-deficient layered nickel oxide electrochemically active cathode material; the Ni -containing alkali metal-deficient layered nickel oxide electrochemically active cathode material formed during steps (i) and (ii) having the general formula A x H y Ni 1+a O 2: wherein A comprises an alkali metal; 0.08 ≤ x < 0.2; 0 ≤ y < 0.3; and 0.02 < a ≤ 0.2. (i) reacting an alkali metal-containing layered nickel oxide having a formula A 1-a Ni 1+a O 2, wherein A comprises an alkali metal and 0 < a ≤ 0.2 and a chemical oxidant comprising a peroxydisulfate salt, a monopersulfate salt, or a combination thereof, in a fluid composition at an elevated temperature for at least a period of time sufficient to form a Ni -containing mixture, the Ni -containing mixture comprising a Ni -containing alkali metal-deficient layered nickel oxide electrochemically active cathode material, the Ni containing mixture having a total nickel (Ni) content; and (ii) reacting the Ni -containing mixture of step (i) with a mineral acid, wherein the mineral acid is added in an amount of 0.60 moles or less per mole of total nickel, at an elevated temperature for at least a period of time sufficient to form an additional amount of the Ni -containing alkali metal-deficient layered nickel oxide electrochemically active cathode material; the Ni -containing alkali metal-deficient layered nickel oxide electrochemically active cathode material formed during steps (i) and (ii) having the general formula A x H y Ni 1+a O 2: wherein A comprises an alkali metal; 0.08 ≤ x < 0.2; 0 ≤ y < 0.3; and 0.02 < a ≤ 0.2.
A method of processing a cast product to form a medical implant, the method comprising: investment casting of a cast metal part in a mold; removing the mold from the cast metal part without cold working surfaces of the cast metal part, wherein said removing comprises chemical cleaning; thermally treating the cast metal part; and finishing the surfaces of the cast metal part after thermally treating, wherein said finishing comprises at least one cleaning process selected from the group consisting of: sandblast, grit blast and shot blast, such that any cold working of the surfaces of the cast metal part occurs after thermally treating such that no recast layer is formed in the cast metal part. investment casting of a cast metal part in a mold; removing the mold from the cast metal part without cold working surfaces of the cast metal part, wherein said removing comprises chemical cleaning; thermally treating the cast metal part; and finishing the surfaces of the cast metal part after thermally treating, wherein said finishing comprises at least one cleaning process selected from the group consisting of: sandblast, grit blast and shot blast, such that any cold working of the surfaces of the cast metal part occurs after thermally treating such that no recast layer is formed in the cast metal part.