mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing Compound 11A: comprising converting Compound 12: into Compound 11A in the presence of NaNO 3 and AlCl 3, wherein the methyl (Me) of the -OCO 2 Me of Compound 12 is optionally replaced by a group selected from aliphatic, heteroaliphatic, aryl, and heteroaryl, wherein "aliphatic" means a straight-chain or branched, substituted, or unsubstituted hydrocarbon chain that is completely saturated or that contains one or more units of unsaturation, but which is not aromatic, that has a single point of attachment to the rest of the molecule, and includes haloaliphatic groups; and wherein "heteroaliphatic" means aliphatic groups wherein one or two carbon atoms are independently replaced by one or more of oxygen, sulfur, nitrogen, phosphorus, or silicon, that is substituted or unsubstituted, branched or unbranched, cyclic or acyclic, and includes heterocyclic groups which are non-aromatic, monocyclic, bicyclic, or tricyclic ring systems in which one or more ring members is an independently selected heteroatom. into Compound 11A in the presence of NaNO 3 and AlCl 3, wherein the methyl (Me) of the -OCO 2 Me of Compound 12 is optionally replaced by a group selected from aliphatic, heteroaliphatic, aryl, and heteroaryl, wherein "aliphatic" means a straight-chain or branched, substituted, or unsubstituted hydrocarbon chain that is completely saturated or that contains one or more units of unsaturation, but which is not aromatic, that has a single point of attachment to the rest of the molecule, and includes haloaliphatic groups; and wherein "heteroaliphatic" means aliphatic groups wherein one or two carbon atoms are independently replaced by one or more of oxygen, sulfur, nitrogen, phosphorus, or silicon, that is substituted or unsubstituted, branched or unbranched, cyclic or acyclic, and includes heterocyclic groups which are non-aromatic, monocyclic, bicyclic, or tricyclic ring systems in which one or more ring members is an independently selected heteroatom.
A transport container, in particular for postal distribution, comprising a base, side walls which connect onto the base and an openable covering which connects onto the side walls, wherein the transport container is provided for assembly on a transport vehicle, characterised in that the covering is foldable and for this comprises an overlay which is supported by a foldable linkage, wherein the linkage comprises: • at least two outer bows and two inner bows, which are each rotatably assembled about a rotation axis (514, 524), wherein the rotation axes (514, 524) of these four bows (51, 52) run parallel to one another, • two scissor bows, wherein each of the scissor bows is rotatably connected to one of the two inner bows about an assigned outer scissor axis and both scissor bows are rotatably connected to one another about a central scissor axis, and the scissor bows and the inner bows together form a scissor mechanism, • wherein each of the inner bows and each of the scissor bows in each case comprise two lateral arms (521, 522, 531, 532) which are arranged on a first and on a second side of the covering, run parallel to one another and are connected by at least one transverse strut (523, 533), wherein the transverse strut (523, 533) supports the overlay, and • wherein in the opened condition of the covering, the transverse struts of the scissor bows are distanced further from the rotation axes of the inner bows than the transverse struts of the inner bows themselves, • characterised in that a further transverse strut runs along the central scissor axis of the two scissor bows, and • wherein the further transverse strut forms a further support of the overlay. • at least two outer bows and two inner bows, which are each rotatably assembled about a rotation axis (514, 524), wherein the rotation axes (514, 524) of these four bows (51, 52) run parallel to one another, • two scissor bows, wherein each of the scissor bows is rotatably connected to one of the two inner bows about an assigned outer scissor axis and both scissor bows are rotatably connected to one another about a central scissor axis, and the scissor bows and the inner bows together form a scissor mechanism, • wherein each of the inner bows and each of the scissor bows in each case comprise two lateral arms (521, 522, 531, 532) which are arranged on a first and on a second side of the covering, run parallel to one another and are connected by at least one transverse strut (523, 533), wherein the transverse strut (523, 533) supports the overlay, and • wherein in the opened condition of the covering, the transverse struts of the scissor bows are distanced further from the rotation axes of the inner bows than the transverse struts of the inner bows themselves, • characterised in that a further transverse strut runs along the central scissor axis of the two scissor bows, and • wherein the further transverse strut forms a further support of the overlay.
Sorting device for transporting preforms made of a thermoplastic material in the region of a blowing machine for the blow moulding of containers, comprising a transport wheel with a plurality of holding recesses arranged in a distributed manner on its circumference in the circumferential direction for holding and conveying the preforms and comprising a guide collar that runs around the transport wheel spaced away in sections in a radial manner, wherein the preforms in the region of the sorting device are transported between the transport wheel and the guide collar while hanging, as well as comprising a selecting unit for selectively separating, in each case, a preform transported in one of the holding recesses of the transport wheel, characterized in that the selecting unit comprises a rotatably mounted ejection star with a plurality of ejection arms, which, in the rest position, using a first ejection arm directly adjoining the guide collar in the transport direction of the preforms, grips into the circumferential area of the transport wheel in such a way that the preforms transported in the holding recesses along the first ejection arm are secured against falling out of the respective holding recesses, wherein the ejection star ejects an individual preform to be separated out of one of the holding recesses of the transport wheel with a rotational movement using a second ejection arm running after the first ejection arm, and wherein the second ejection arm moves into the position securing the preforms against falling out after ejection of the preform to be separated takes place.
Process for manufacturing a self-supporting battery made of thin layers, including the following steps: a) forming, on the upper face of a carrier substrate, a vertical active stack the lower layer of which is a metal layer in which a first contact terminal (103; 103a) of a first polarity of the battery is formed and the upper layer of which is a metal layer in which a second contact terminal (127; 127a) of a second polarity of the battery is formed; b) bonding a carrier film to the upper face of the upper layer; and c) debonding the lower layer of the substrate by means of a laser beam that is projected through the substrate from its lower face. a) forming, on the upper face of a carrier substrate, a vertical active stack the lower layer of which is a metal layer in which a first contact terminal (103; 103a) of a first polarity of the battery is formed and the upper layer of which is a metal layer in which a second contact terminal (127; 127a) of a second polarity of the battery is formed; b) bonding a carrier film to the upper face of the upper layer; and c) debonding the lower layer of the substrate by means of a laser beam that is projected through the substrate from its lower face.
A cartridge assembly for use in an aerosol-generating system, the cartridge assembly comprising: a cartridge comprising: a cartridge body comprising a first compartment having a first air inlet and a first air outlet, and comprising a second compartment having a second air inlet and a second air outlet; and an enclosure comprising a third air inlet, a third air outlet, a fourth air inlet and a fourth air outlet, wherein the cartridge body is slidably received within the enclosure; and a mouthpiece comprising a mouthpiece cavity for receiving the cartridge; wherein the cartridge body is configured to slide with respect to the enclosure from a first position in which the enclosure obstructs each of the first air inlet, the first air outlet, the second air inlet and the second air outlet, to a second position in which the third air inlet is in fluid communication with the first air inlet, the third air outlet is in fluid communication with the first air outlet, the fourth air inlet is in fluid communication with the second air inlet, and the fourth air outlet is in fluid communication with the second air outlet; and wherein the cartridge assembly is configured so that insertion of the cartridge into the mouthpiece cavity moves the cartridge body from the first position to the second position. a cartridge comprising: a cartridge body comprising a first compartment having a first air inlet and a first air outlet, and comprising a second compartment having a second air inlet and a second air outlet; and an enclosure comprising a third air inlet, a third air outlet, a fourth air inlet and a fourth air outlet, wherein the cartridge body is slidably received within the enclosure; and a cartridge body comprising a first compartment having a first air inlet and a first air outlet, and comprising a second compartment having a second air inlet and a second air outlet; and an enclosure comprising a third air inlet, a third air outlet, a fourth air inlet and a fourth air outlet, wherein the cartridge body is slidably received within the enclosure; and a mouthpiece comprising a mouthpiece cavity for receiving the cartridge; wherein the cartridge body is configured to slide with respect to the enclosure from a first position in which the enclosure obstructs each of the first air inlet, the first air outlet, the second air inlet and the second air outlet, to a second position in which the third air inlet is in fluid communication with the first air inlet, the third air outlet is in fluid communication with the first air outlet, the fourth air inlet is in fluid communication with the second air inlet, and the fourth air outlet is in fluid communication with the second air outlet; and wherein the cartridge assembly is configured so that insertion of the cartridge into the mouthpiece cavity moves the cartridge body from the first position to the second position.
A stone extraction basket, comprising a mesh basket, an outer tube and an operation portion, the mesh basket being connected to the operation portion, the operation portion controlling the mesh basket to move, a proximal end of the outer tube being connected to the operation portion, the outer tube axially extending from the proximal end to a distal end, the distal end of the outer tube being provided with a double lumen end cap, a guide wire passing through one lumen channel of the double lumen end cap, the mesh basket passing through the other lumen channel of the double lumen end cap, wherein the double lumen end cap comprises a connection portion and a double lumen portion, the double lumen portion comprising the one lumen channel and the other lumen channel, characterized in that an outer surface of one end of the connection portion has a spiral barb structure for connection with the outer tube, and an outer surface of the other end of the connection portion has a protrusion structure for connection with the double lumen portion.
A method for the combustion of ammonia, wherein a first combustion chamber receives ammonia and hydrogen in controlled proportions, and an oxygen-containing gas, wherein combustion of the ammonia and hydrogen produces NH 2 - ions among other combustion products, and wherein a second combustion chamber receives the combustion products from the first combustion chamber and receives further ammonia and further hydrogen in controlled proportions, wherein combustion in the second combustion chamber produces nitrogen oxides among other combustion products, and wherein a third combustion chamber receives the combustion products of the second combustion chamber including nitrogen oxides along with further ammonia and further hydrogen in further controlled proportions along with further oxygen-containing gas, such that the nitrogen oxides are combusted into nitrogen and water.
An isolated human antibody or an antigen-binding fragment thereof that specifically binds to Respiratory Syncytial Virus F protein (RSV-F), wherein the antibody or antigen-binding fragment thereof comprises three heavy chain complementarity determining regions (HCDR1, HCDR2 and HCDR3) contained within the heavy chain variable region (HCVR) amino acid sequence of SEQ ID NO: 274; and three light chain complementarity determining regions (LCDR1, LCDR2 and LCDR3) contained within the light chain variable region (LCVR) amino acid sequence of SEQ ID NO: 282.
A method for providing channel feedback, the method comprising: receiving, by a reception point, a signal from a transmission point; estimating, by the RP, channel parameters from the signal as received; mapping, by the RP, the estimated channel parameters to a trellis in accordance with a Trellis Coded Quantization scheme; applying, by the RP, a Viterbi algorithm to the trellis to generate quantized channel parameters, the quantized channel parameters including a plurality of samples; wherein the method is characterized in that it further comprises the steps of: identifying, by the RP, samples of the estimated channel parameters associated with samples of quantized channel parameters having quantization errors above a predetermined threshold; generating, by the RP, indicators in accordance with the samples having the quantization error above the predetermined threshold; and transmitting, by the RP, the quantized channel parameters and the indicators to the TP. receiving, by a reception point, a signal from a transmission point; estimating, by the RP, channel parameters from the signal as received; mapping, by the RP, the estimated channel parameters to a trellis in accordance with a Trellis Coded Quantization scheme; applying, by the RP, a Viterbi algorithm to the trellis to generate quantized channel parameters, the quantized channel parameters including a plurality of samples; identifying, by the RP, samples of the estimated channel parameters associated with samples of quantized channel parameters having quantization errors above a predetermined threshold; generating, by the RP, indicators in accordance with the samples having the quantization error above the predetermined threshold; and transmitting, by the RP, the quantized channel parameters and the indicators to the TP.
An electric therapy system comprising a therapy device and a programming device, of which the therapy device has two therapy device data communication interfaces (14; 16), of which the first therapy device data transmission interface is designed as an inductive data communication interface for the bidirectional transmission of data by means of magnetic alternating fields and the second therapy device data communication interface is designed as a high frequency data communication interface for the bidirectional transmission of data by means of high-frequency electric alternating fields, and of which the programming device has two programming device data communication interfaces (32; 39), of which the first programming device data communication interface is designed to carry out a bidirectional data transmission by means of a magnetic alternating field with the inductive therapy device data communication interface of the therapy device, and of which the second programming device data communication interface is desgiend to carry out a bidirectional data transmission with the second therapy device data communication interface of the therapy device via a high-frequency, electric alternating field, wherein the therapy device data communication interfaces (14; 16) as well as the programming device data communication interfaces (32; 39) are each connected to a respective data communication control unit (12; 34), which is designed to control the respective data communication interfaces, wherein a respective data transmission takes place in one of at least two data transmission modes, characterized in that at least one of the two data communication control units (12; 34) is designed to select, on the basis of at least one predetermined selection criterium, one or both data communication interfaces with a respective data transmission mode to be used and, if an event occurs that corresponds to a selection criterium, is designed to switch from one data transmission mode to another such that an existing data connection of a data transmission mode is not interrupted, and the data transmission is continued via the data connection of another data transmission mode.
A gauze fabric comprising: a surface layer; a back layer; and at least one middle layer provided between the surface layer and the back layer; wherein the surface layer is composed of non-twisted yarns; wherein the back layer is composed of non-twisted yarns; wherein the at least one middle layer is composed of twisted yarns; and wherein the surface layer and the back layer are directly and/or indirectly joined with each other. a surface layer; a back layer; and at least one middle layer provided between the surface layer and the back layer; wherein the surface layer is composed of non-twisted yarns; wherein the back layer is composed of non-twisted yarns; wherein the at least one middle layer is composed of twisted yarns; and wherein the surface layer and the back layer are directly and/or indirectly joined with each other.
A device comprising: a camera; a screen for displaying an image captured by the camera and a set of modified images each representing a modification to the captured image and having parameters changed which are influenced by lighting conditions; a user input interface; and a processor, wherein the processor is adapted to: receive, from the user input interface, a user input representing a desired modification to the image displayed on the screen showing a scene; which user input relates to a selection of one of the of modified images, and derive required light output characteristics for a lighting device to change the illumination to the scene such that subsequent captured images reflect the desired modification; characterized in that the processor is adapted to derive a difference between a metric representing pixel properties of the selected modified image and a metric representing pixel properties of the captured image, and derive the required light output based on the difference. a camera; a screen for displaying an image captured by the camera and a set of modified images each representing a modification to the captured image and having parameters changed which are influenced by lighting conditions; a user input interface; and a processor, wherein the processor is adapted to: receive, from the user input interface, a user input representing a desired modification to the image displayed on the screen showing a scene; which user input relates to a selection of one of the of modified images, and derive required light output characteristics for a lighting device to change the illumination to the scene such that subsequent captured images reflect the desired modification; characterized in that receive, from the user input interface, a user input representing a desired modification to the image displayed on the screen showing a scene; which user input relates to a selection of one of the of modified images, and derive required light output characteristics for a lighting device to change the illumination to the scene such that subsequent captured images reflect the desired modification; characterized in that
A hot work tool steel comprising: 0.28 ≤ C ≤ 0.42 mass%, 0.40 < Si < 0.75 mass%, 0.65 ≤ Mn ≤ 1.20 mass%, 5.24 ≤ Cr ≤ 9.00 mass%, 1.08 < Mo ≤ 2.50 mass%, and 0.30 < V < 0.70 mass%, optionally further comprising at least one of up to 4.00 mass% of W, up to 3.00 mass% of Co, up to 0.100 mass% of Nb, up to 0.100 mass% of Ta, up to 0.100 mass% of Ti, up to 0.100 mass% of Zr, up to 0.050 mass% of Al, up to 0.050 mass% of N, up to 1.50 mass% of Cu, up to 1.50 mass% of Ni, up to 0.0100 mass% of B, up to 0.500 mass% of S, up to 0.200 mass% of Ca, up to 0.50 mass% of Se, up to 0.100 mass% of Te, up to 0.30 mass% of Bi, and up to 0.50 mass% of Pb, with the balance being Fe and unavoidable impurities. 0.28 ≤ C ≤ 0.42 mass%, 0.40 < Si < 0.75 mass%, 0.65 ≤ Mn ≤ 1.20 mass%, 5.24 ≤ Cr ≤ 9.00 mass%, 1.08 < Mo ≤ 2.50 mass%, and 0.30 < V < 0.70 mass%,
Dual-polarized antenna comprising a dipole radiator, a resonant cavity radiator and a reflector comprising a slot, wherein the resonant cavity radiator is arranged below the reflector and is designed to radiate through the slot in the reflector and wherein the dipole radiator is arranged above the reflector and wherein a signal line of the dipole radiator and preferably a carrier of the dipole radiator extend through the slot.
Method for configuring a control apparatus for a motor vehicle, in which - a respective representation of signals from the control apparatus is provided for selection and a completed selection is predetermined a predetermined as a predetermined first selection of signals from the control apparatus, - at least two representations of program processes which can be executed concurrently can be generated, wherein at least one of these representations is generated as a respective representation of an operating program process and at least one of these representations is generated as a respective representation of a supplementary program process and an access of the at least one supplementary program process is restricted to the predetermined first selection of signals from the control apparatus, and - program code (PROG) which can be executed on the control apparatus is generated in dependence on the predetermined first selection of signals from the control apparatus and in dependence on the generated at least two representations of program processes which can be executed concurrently. - a respective representation of signals from the control apparatus is provided for selection and a completed selection is predetermined a predetermined as a predetermined first selection of signals from the control apparatus, - at least two representations of program processes which can be executed concurrently can be generated, wherein at least one of these representations is generated as a respective representation of an operating program process and at least one of these representations is generated as a respective representation of a supplementary program process and an access of the at least one supplementary program process is restricted to the predetermined first selection of signals from the control apparatus, and - program code (PROG) which can be executed on the control apparatus is generated in dependence on the predetermined first selection of signals from the control apparatus and in dependence on the generated at least two representations of program processes which can be executed concurrently.