mhurhangee/ep-ind-claims huggingface dataset:
An assembly of a module and a mounting frame for a modular conveyor, wherein the module comprises a body part extending transversely to a direction having a top surface and a bottom, wherein the body part at the front and rear viewed in the direction is provided with coupling elements and wherein the coupling elements of the module are couplable to coupling elements of similar modules successive in the direction, and wherein a receiving provision is provided for coupling the mounting frame, wherein the receiving provision comprises a quick coupling, wherein at least one lock (19, 30, 38) is provided which is configured for locking the mounting frame against uncoupling from the module, wherein an axle is mounted on the mounting frame, wherein the axle is provided with at least one roller (16,18), characterized in that the top surface of the module is a substantially closed and flat surface, and in that the receiving provision is provided on the flat top surface and the mounting frame is configured for placement of the mounting frame on the module and removal from the module, respectively, in an insertion direction along the flat top surface from the side of the module which is directed substantially transversely to the direction.
Biological or artificial valve prosthesis (4, 5) for use in the human or animal body for replacing an organ valve or vessel valve, in particular a heart valve prosthesis or venous valve prosthesis, comprising a supporting valve scaffold, comprising at least one valve and comprising at least one conductor loop, which forms the inductor of an electrical resonant circuit, wherein the at least one conductor loop forms the valve scaffold and/or the valve and/or supporting regions of the valve scaffold and/or supporting regions of the valve, characterized in that the valve scaffold and the valve are fixed by way of the conductor loop in a self-deployable or mechanically expandable stent in such a way that, in the case of compression and subsequent deployment, both the valve scaffold and the valve and also the conductor loop return to the desired form, position and geometry and in that the conductor loop simultaneously serves to attach the valve at the stent.
A downlink channel receiving method, comprising: receiving, by a terminal device, first downlink authorization information and second downlink authorization information that are sent by a network device, wherein the first downlink authorization information is used to indicate that the terminal device receives a first physical downlink shared channel, PDSCH, in a first time unit, the second downlink authorization information is used to indicate that the terminal device receives a second PDSCH in a second time unit, and at least one symbol of the first time unit and at least one symbol of the second time unit overlap in a time domain; the method further comprising: decoding, by the terminal device, according to a radio network temporary identifier, RNTI, used to scramble the first downlink authorization information and the second downlink authorization information, the first PDSCH and the second PDSCH, wherein the first downlink authorization information is downlink authorization information scrambled with a system information-radio network temporary identifier, SI-RNTI, and the second downlink authorization information is downlink authorization information scrambled with a random access-radio network temporary identifier, RA-RNTI, or a temporary cell-radio network temporary identifier, TC-RNTI; and wherein the terminal device is a terminal device in an idle state. receiving, by a terminal device, first downlink authorization information and second downlink authorization information that are sent by a network device, wherein the first downlink authorization information is used to indicate that the terminal device receives a first physical downlink shared channel, PDSCH, in a first time unit, the second downlink authorization information is used to indicate that the terminal device receives a second PDSCH in a second time unit, and at least one symbol of the first time unit and at least one symbol of the second time unit overlap in a time domain; the method further comprising: decoding, by the terminal device, according to a radio network temporary identifier, RNTI, used to scramble the first downlink authorization information and the second downlink authorization information, the first PDSCH and the second PDSCH, wherein the first downlink authorization information is downlink authorization information scrambled with a system information-radio network temporary identifier, SI-RNTI, and the second downlink authorization information is downlink authorization information scrambled with a random access-radio network temporary identifier, RA-RNTI, or a temporary cell-radio network temporary identifier, TC-RNTI; and wherein the terminal device is a terminal device in an idle state.
A process for extracting pectin having a high degree of polymerization comprising: adding oxalic acid and/or a water-soluble oxalate to an aqueous suspension of a peel in an amount sufficient to provide a mixture having a pH of between 3.0 and 3.6 and a total molarity of oxalate greater than a total molarity of calcium in the peel; heating the mixture to a temperature from about 50 to about 80°C for 0.5 hours to 5 hours; contacting the mixture containing the extracted pectin with a cation-exchanging resin, and separating the extracted pectin from the mixture by precipitating the extracted pectin from the mixture, wherein the extracted pectin has a degree of esterification of at least 72 as measured by titration and a high degree of polymerization as characterized by an intrinsic viscosity of greater than about 6.5 dL/g as determined using size exclusion chromatography. adding oxalic acid and/or a water-soluble oxalate to an aqueous suspension of a peel in an amount sufficient to provide a mixture having a pH of between 3.0 and 3.6 and a total molarity of oxalate greater than a total molarity of calcium in the peel; heating the mixture to a temperature from about 50 to about 80°C for 0.5 hours to 5 hours; contacting the mixture containing the extracted pectin with a cation-exchanging resin, and separating the extracted pectin from the mixture by precipitating the extracted pectin from the mixture, wherein the extracted pectin has a degree of esterification of at least 72 as measured by titration and a high degree of polymerization as characterized by an intrinsic viscosity of greater than about 6.5 dL/g as determined using size exclusion chromatography.
A microwave processing device comprising: a periodic structure body which forms a surface-wave transmission line to transmit surface waves of microwaves; an oscillator which generates microwave power; and a transmitting part which transmits the microwave power generated by the oscillator to the periodic structure body, wherein a matching part (5, 15, 25) is provided at a connecting portion between the periodic structure body and the transmitting part, and an impedance of the matching part (5, 15, 25) is set to a value between an impedance of the periodic structure body and an impedance of the transmitting part, wherein the matching part (5, 15, 25) has an impedance-changing portion that is positioned such that reflection waves of microwaves created at the impedance-changing portion at least partially cancel reflection waves of microwaves created at the connecting portion between the periodic structure body and the matching part (5, 15, 25); wherein changing of a shape of the matching part (5, 15, 25) forms the impedance-changing portion of the matching part (5, 15, 25); and characterized in that the matching part (5, 15, 25) is formed by a metallic plate having a tab of a different width in comparison with the width of the rest of the matching part (5, 15, 25) formed at an intermediate portion in a longitudinal direction thereof. a periodic structure body which forms a surface-wave transmission line to transmit surface waves of microwaves; an oscillator which generates microwave power; and a transmitting part which transmits the microwave power generated by the oscillator to the periodic structure body, wherein a matching part (5, 15, 25) is provided at a connecting portion between the periodic structure body and the transmitting part, and an impedance of the matching part (5, 15, 25) is set to a value between an impedance of the periodic structure body and an impedance of the transmitting part, wherein the matching part (5, 15, 25) has an impedance-changing portion that is positioned such that reflection waves of microwaves created at the impedance-changing portion at least partially cancel reflection waves of microwaves created at the connecting portion between the periodic structure body and the matching part (5, 15, 25); wherein changing of a shape of the matching part (5, 15, 25) forms the impedance-changing portion of the matching part (5, 15, 25); and characterized in that the matching part (5, 15, 25) is formed by a metallic plate having a tab of a different width in comparison with the width of the rest of the matching part (5, 15, 25) formed at an intermediate portion in a longitudinal direction thereof.
Device for removing plant parts from at least one elongate, tensile-resistant, flexible growth support during a movement of the device along the growth support, the growth support passing through the device, especially for removing vine shoots from at least one trellis wire, comprising - a growth support guide means, for guiding the growth support during the movement of the device along the growth support, - a stripping unit and - a plant guide unit for compressing and/or feeding the plant parts adhering to the growth support to the stripping unit, which stripping unit comprises at least one stripping element, which stripping element is arranged on the device so as to be movable in such a way that, during operation, plant parts are at least partly strippable from the growth support by movement of the stripping element (4a, 4b), wherein in the throughput direction of the growth support the plant guide unit is arranged before the stripping unit and before the growth support guide means, and wherein the growth support passes through the plant guide unit, the stripping unit and the growth support guide means, characterised in that the plant guide unit comprises a lower intake wheel and an upper intake wheel, the device has at least two motor-driven introduction aids (12, 13, 12', 13') which are arranged before the plant guide unit in the throughput direction of the growth support and the introduction aids (12, 13, 12', 13') are arranged and configured so as to co-operate with the plant guide unit in such a way that, when the device is in use, the growth support passes between the two introduction aids and through the plant guide unit, the stripping unit and the growth support guide means so that, by co-operation of the introduction aids (12, 13, 12', 13'), the plant guide unit and the growth support guide means, for approximately linear paths of the growth support there is created a delimitation zone for the growth support and the plants, which delimitation zone does not overlap the operating region of the stripping element (4a, 4b) of the stripping unit, wherein the introduction aids (12, 13, 12', 13') delimit the region of introduction of the growth support and the plants into the plant guide unit at least horizontally to right and left, and the delimitation zone is delimited towards top and bottom by the intake wheels (7a, 7b). - a growth support guide means, for guiding the growth support during the movement of the device along the growth support, - a stripping unit and - a plant guide unit for compressing and/or feeding the plant parts adhering to the growth support to the stripping unit,
A compound having the following structure: or a pharmaceutically acceptable stereoisomer enantiomer, racemate, salt, prodrug, hydrate or solvate thereof, wherein the prodrug is selected from esters of carboxylic acid groups.
A vibrating Coriolis meter, comprising: one or more conduits (103A, 103B) formed from a first material; a driver coupled to a conduit of the one or more conduits (103A, 103B) and configured to vibrate at least a portion of the conduit at one or more drive frequencies; one or more pick-offs (105, 105') coupled to a conduit of the one or more conduits (103A, 103B) and configured to detect a motion of the vibrating portion of the conduit; characterized in that said meter further comprises a case comprising a plurality of ribs, enclosing the one or more conduits (103A, 103B), the driver and the one or more pick-offs (105, 105') and formed from a second material comprising a higher vibrational damping characteristic than the first material. one or more conduits (103A, 103B) formed from a first material; a driver coupled to a conduit of the one or more conduits (103A, 103B) and configured to vibrate at least a portion of the conduit at one or more drive frequencies; one or more pick-offs (105, 105') coupled to a conduit of the one or more conduits (103A, 103B) and configured to detect a motion of the vibrating portion of the conduit; characterized in that said meter further comprises a case comprising a plurality of ribs, enclosing the one or more conduits (103A, 103B), the driver and the one or more pick-offs (105, 105') and formed from a second material comprising a higher vibrational damping characteristic than the first material.
A method for preparing a spreadable cheese product, comprising the steps of (a) coagulating wholly or partly the protein of a milk product through the action of rennet or other suitable coagulating agents, preferably wherein the milk product is obtained from cow, buffalo, goat or sheep, more preferably from cow; (b) partially draining the whey resulting from the coagulation to obtain a cheese curd; (c) preparing a mixture of the cheese curd, water, an amylomaltase-treated starch and a pregelatinized starch; (d) heating and shearing the mixture at a temperature between 70 and 80°C; followed by (e) cooling the mixture under stirring to obtain a spreadable cheese product. (a) coagulating wholly or partly the protein of a milk product through the action of rennet or other suitable coagulating agents, preferably wherein the milk product is obtained from cow, buffalo, goat or sheep, more preferably from cow; (b) partially draining the whey resulting from the coagulation to obtain a cheese curd; (c) preparing a mixture of the cheese curd, water, an amylomaltase-treated starch and a pregelatinized starch; (d) heating and shearing the mixture at a temperature between 70 and 80°C; followed by (e) cooling the mixture under stirring to obtain a spreadable cheese product.
Method for operating a three-phase cage motor on a multiphase electrical grid by means of a soft starter, with which one or more grid phases (a, b, c) of the grid can respectively be switched by firing thyristors, wherein, apart from a grid-related firing criterion, a rotor-flux-related firing criterion is taken into account, wherein both the grid-related firing criterion and the rotor-flux-related firing criterion must be satisfied for a firing decision that a firing possibility of one or more thyristors is used, wherein firing is either on a 2-phase basis or on a 3-phase basis, a 2-phase firing leading to a current vector which is fixed in its alignment and pulsating in its amplitude and a 3-phase firing leading to a rotating current vector in a space vector representation, characterized in that the grid-related firing criterion is satisfied if in a space vector representation the current vector of a firing possibility of two or more grid phases (a, b, c) lies within a firing angle region which is defined by a lower firing angle region limit (α min) and an upper firing angle region limit (α max) in relation to the grid voltage and/or the grid current, and the rotor-flux-related firing criterion is satisfied if in a space vector representation a firing possibility of two or more grid phases (a, b, c) lies within a flux and torque angle region of which the region limit values (γ start; γ end) are defined in relation to the rotor flux. wherein, apart from a grid-related firing criterion, a rotor-flux-related firing criterion is taken into account, wherein both the grid-related firing criterion and the rotor-flux-related firing criterion must be satisfied for a firing decision that a firing possibility of one or more thyristors is used, wherein firing is either on a 2-phase basis or on a 3-phase basis, a 2-phase firing leading to a current vector which is fixed in its alignment and pulsating in its amplitude and a 3-phase firing leading to a rotating current vector in a space vector representation, characterized in that the grid-related firing criterion is satisfied if in a space vector representation the current vector of a firing possibility of two or more grid phases (a, b, c) lies within a firing angle region which is defined by a lower firing angle region limit (α min) and an upper firing angle region limit (α max) in relation to the grid voltage and/or the grid current, and the rotor-flux-related firing criterion is satisfied if in a space vector representation a firing possibility of two or more grid phases (a, b, c) lies within a flux and torque angle region of which the region limit values (γ start; γ end) are defined in relation to the rotor flux.
Mould with a mould body for forming therearound a body with a body cavity which is defined by the mould body and accessible via an opening (11, 21), wherein the mould body is assembled from a set of mutually cohesive body parts (30, 40), wherein the body parts are mutually releasable, wherein the body parts are removable via the opening, wherein the body parts comprise an engaging member which extends from the mould wall into the mould cavity and is accessible through the mould opening, characterized in that the body parts comprise a primary type of body part with a first coupling member (43, 44) and a secondary type of body part with a second coupling member (33, 34) complementary to the first coupling member, which first and second coupling members are coupled in mutually releasable manner, in that the primary type of body part comprises a first type of engaging member, and in that the secondary type of body part comprises a second type of engaging member differing visually from the first type of engaging member.
An orthopaedic walker boot for protecting and treating a metatarsal fracture, the orthopaedic walker boot comprising a compression walker boot and an offloader sole, wherein the compression walker boot comprises a compression inner section and a substantially rigid outer shell, and the offloader sole is externally offloaded and comprises a midsole and a tapered undersole portion, wherein the tapered undersole portion is arranged so that the vertical height of the tapered undersole portion is reduced as it extends towards the rear of the foot, to thereby elevate the front, toe end of the foot and to promote weight bearing on or towards the heel of a subject wearing the orthopaedic walker boot.
Method for increasing the frequency of meiotic CO in a plant, characterised in that it comprises the inhibition in said plant, of a protein hereinafter called FIDG, said protein having at least 45% sequence identity, or at least 60% sequence similarity with the protein AtFIDG of sequence SEQ ID NO: 1, said percentages being calculated with the EMBOSS needle algorithm using the default parameters for the identity calculation and the BLOSUM62 matrix for the similarity calculation, and containing an AAA-ATPase domain and a VSP4 domain, respectively listed under references PFAM PF00004 and PF09336.
Light control apparatus for providing an encoded image (kB) for transmission via a data transfer system, wherein the light control apparatus has: - a first interface for receiving a first raster image as an illumination specification with a light distribution information for a high-resolution light source of a headlamp; - an encoder for transforming the first raster image into the encoded image (kB), the redundancy of which is less than a redundancy of the first raster image, by means of an image encoding method; and - a second interface for outputting the encoded image (kB) to the data transfer system, - wherein the encoder on the one hand is designed to divide the first raster image into first raster partial images and for a transforming of at least one of the raster partial images into encoded raster partial images and/or the encoder on the other hand is designed to generate a motion vector; - wherein the light control apparatus is designed by means of a chroma channel of the image encoding method to encode and to send control signals and/or brightness signals instead of colour information. - a first interface for receiving a first raster image as an illumination specification with a light distribution information for a high-resolution light source of a headlamp; - an encoder for transforming the first raster image into the encoded image (kB), the redundancy of which is less than a redundancy of the first raster image, by means of an image encoding method; and - a second interface for outputting the encoded image (kB) to the data transfer system, - wherein the encoder on the one hand is designed to divide the first raster image into first raster partial images and for a transforming of at least one of the raster partial images into encoded raster partial images and/or the encoder on the other hand is designed to generate a motion vector; - wherein the light control apparatus is designed by means of a chroma channel of the image encoding method to encode and to send control signals and/or brightness signals instead of colour information.