mhurhangee/ep-ind-claims huggingface dataset:
A food-waste tank with at least two chambers (7, 8) located one after the other separated by an internal separating wall and comprising a first inlet for food waste mixed with water and an end wall (2, 3) at each end that seals the tank, wherein the internal separating wall extends essentially over the complete diameter of the tank, dividing the food-waste tank into two chambers (7, 8), one of which follows the other, characterised in that the food-waste tank comprises a second inlet principally for dish-washing water without food waste, wherein the food-waste tank is formed by an extended double-walled pipe formed by an element of duct, preferably square, wound as a screw, such that one side of the sides of the element of duct forms the inner surface of the double walled pipe, and the opposite side forms the outer surface of the pipe, while the intermediate sides are glued or welded to each other.
A valve assembly having a housing, the valve assembly comprising: a cylindrical member through which a fluid is flowed, the cylindrical member having two opposing ends, one end being an inlet through which the fluid is introduced and the other end being an outlet through which the fluid is discharged; a first valve disposed at the inlet of the cylindrical member such that the fluid in the cylindrical member is first introduced through the first valve; a strainer configured to remove particulate matter from the fluid, the strainer being within the cylindrical member; an angled port that extends from the cylindrical member; an air release valve connected to the angled port; a second valve disposed at the outlet of the cylindrical member such that the fluid in the cylindrical member is dischargeable through the second valve, characterised in that the cylindrical member, the first valve, the strainer, the angled port and the second valve are housed in the housing of the valve assembly. a cylindrical member through which a fluid is flowed, the cylindrical member having two opposing ends, one end being an inlet through which the fluid is introduced and the other end being an outlet through which the fluid is discharged; a first valve disposed at the inlet of the cylindrical member such that the fluid in the cylindrical member is first introduced through the first valve; a strainer configured to remove particulate matter from the fluid, the strainer being within the cylindrical member; an angled port that extends from the cylindrical member; an air release valve connected to the angled port; a second valve disposed at the outlet of the cylindrical member such that the fluid in the cylindrical member is dischargeable through the second valve, characterised in that the cylindrical member, the first valve, the strainer, the angled port and the second valve are housed in the housing of the valve assembly.
Feeder for spreading feed, the feeder comprising a housing having an upper feed compartment and a lower feed compartment, wherein the feeder is adapted to be loaded with feed in the upper feed compartment, the feeder further comprising a partition wall between the upper feed compartment and the lower feed compartment, the partition wall comprising an upper plate having at least one through-going opening (21a-c), a lower plate having at least one through-going opening (23a-c), and a disc having a height (h) and at least one through-going opening (22a-d), the disc being arranged between the upper and lower plates (21, 23), whereby relative rotation between the upper and lower plates (21, 23) and the disc about a first axis oriented with a major component in a vertical direction allows feed to be transferred from the upper feed compartment to the lower feed compartment, wherein the feed is transferred to the through-going opening (22a-d) of the disc when the through-going opening (22a-d) of the disc at least partly overlaps with the through-going opening (21a-c) of the upper plate, wherein the feed is transferred to the lower feed compartment when the through-going opening (22a-d) of the disc at least partly overlaps with the through-going opening (23a-c) of the lower plate, the feeder further comprising a spreader motor, a rotatable spreader plate arranged beneath a feed outlet from the lower feed compartment, a spreader shaft between and connected to the spreader motor and to the rotatable spreader plate, the spreader shaft extending at least partly through the lower feed compartment and being oriented to rotate about a second axis oriented with a major component in a vertical direction, and a lower agitator for feed agitation, the lower agitator being positioned inside the lower feed compartment and being connected to and extending from the spreader shaft such that when the spreader shaft is rotated the lower agitator will sweep around the second axis inside the lower feed compartment, wherein the lower agitator comprises a first connecting portion comprising a self-supporting wire being coiled around the spreader shaft.
A complex of sodium calcium [3-((1S,3R)-1-biphenyl-4-ylmethyl-3-ethoxy carbonyl-1-butylcarbamoyl)propionate- -3'-methyl-2'-(pentanoyl{2"-(tetrazol-5 -yla te)biphenyl-4'-ylmethyl}amino)butyrate].
Method for operating a steam power plant, comprising a steam engine which is operated with a vaporous working medium, an evaporator for evaporating the working medium, a condenser for liquefying the working medium, and a reservoir for the working medium, characterized in that a lubricant sump in a housing of the steam engine is heated to a temperature above the evaporating temperature of the working medium by means of a heating device during the starting phase of the steam engine.
A method by wireless device for performing addition or release of a serving cell, the method comprising: receiving, from a network node, a first downlink message in a time resource, the wireless device being configured to operate in at least a first serving cell on a first carrier, the first downlink message requesting that a second serving cell on a second carrier be added or released; in response to the first downlink message, adding or releasing the second serving cell on the second carrier; and within a time period starting from the time resource, transmitting a first uplink message indicating completion of the addition or release of the second serving cell, the first uplink message transmitted on the second serving cell, characterised in that the time period starting from the time resource is of a length that is a function of at least one parameter related to a clear channel assessment, CCA, procedure performed by the wireless device on the second serving cell during the time period. receiving, from a network node, a first downlink message in a time resource, the wireless device being configured to operate in at least a first serving cell on a first carrier, the first downlink message requesting that a second serving cell on a second carrier be added or released; in response to the first downlink message, adding or releasing the second serving cell on the second carrier; and within a time period starting from the time resource, transmitting a first uplink message indicating completion of the addition or release of the second serving cell, the first uplink message transmitted on the second serving cell, characterised in that the time period starting from the time resource is of a length that is a function of at least one parameter related to a clear channel assessment, CCA, procedure performed by the wireless device on the second serving cell during the time period.
A system for forming a soft magnetic bulk material of a predetermined shape from a magnetic material and a source of insulating material, the system comprising: a support configured to support the soft magnetic bulk material of the predetermined shape; a heating device for heating the magnetic material to form particles having a softened state; a deposition device for depositing successive layers of particles of the magnetic material in the softened state on the support; and wherein an indexing mask subsystem configured as a negative of at least a portion of the predetermined shape, the mask subsystem located between the deposition device and the support and indexed relative to the support upon deposition of the successive layers to selectively block the successive layers of particles of the magnetic material in the softened state from being deposited on the support thus forming the soft magnetic bulk material of a predetermined shape on the support, wherein the soft magnetic bulk material has a plurality of adhered domains of metal material, wherein substantially all of the domains of the plurality of domains of metal material are separated by a predetermined layer of high resistivity insulating naterial, characterized in that the mask subsystem and the support are moveable relative to the deposition device. a support configured to support the soft magnetic bulk material of the predetermined shape; a heating device for heating the magnetic material to form particles having a softened state; a deposition device for depositing successive layers of particles of the magnetic material in the softened state on the support; and wherein an indexing mask subsystem configured as a negative of at least a portion of the predetermined shape, the mask subsystem located between the deposition device and the support and indexed relative to the support upon deposition of the successive layers to selectively block the successive layers of particles of the magnetic material in the softened state from being deposited on the support thus forming the soft magnetic bulk material of a predetermined shape on the support, wherein the soft magnetic bulk material has a plurality of adhered domains of metal material, wherein substantially all of the domains of the plurality of domains of metal material are separated by a predetermined layer of high resistivity insulating naterial, characterized in that the mask subsystem and the support are moveable relative to the deposition device.
A suturing device for suturing an opening in a heart wall, comprising: an elongate body comprising a proximal end and a distal end, a first section at the distal end, a second section proximal to the first section, and a distally facing body surface between the first and second sections, wherein the second section has a larger outer dimension than the first section; a plurality of arms near the distal end in the second section, wherein each arm is configured to move between a first position wherein the arm is retracted within the elongate body, and a second position wherein the arm has a free end extending away from the elongate body, each arm comprising at least one suture mount at the free end and configured to releasably retain a suture portion; a plurality of needles, each needle configured to move between a retracted position in which the needle is within the elongate body to a deployed position in which a distal point of the needle extends out of the elongate body and into a suture mount; the device further comprising at least one lumen within the elongate body and being characterized by one or more openings at an external surface of a distal end of the second section, the one or more openings connecting to the at least one lumen; wherein the distally facing body surface is configured to press against an external surface of a heart when the first section is advanced into the opening in the heart, wherein a proximal end of the at least one lumen is adapted to connect to a source of negative pressure. an elongate body comprising a proximal end and a distal end, a first section at the distal end, a second section proximal to the first section, and a distally facing body surface between the first and second sections, wherein the second section has a larger outer dimension than the first section; a plurality of arms near the distal end in the second section, wherein each arm is configured to move between a first position wherein the arm is retracted within the elongate body, and a second position wherein the arm has a free end extending away from the elongate body, each arm comprising at least one suture mount at the free end and configured to releasably retain a suture portion; a plurality of needles, each needle configured to move between a retracted position in which the needle is within the elongate body to a deployed position in which a distal point of the needle extends out of the elongate body and into a suture mount; the device further comprising at least one lumen within the elongate body and being characterized by one or more openings at an external surface of a distal end of the second section, the one or more openings connecting to the at least one lumen; wherein the distally facing body surface is configured to press against an external surface of a heart when the first section is advanced into the opening in the heart, wherein a proximal end of the at least one lumen is adapted to connect to a source of negative pressure.
A method for transmitting downlink data in a transport block which is divided into C code blocks, comprising: when determining that downlink data is broadcast data, performing bit selection according to a total number of bits for processing Hybrid Automatic Repeat Request, HARQ, transmissions of a code block by a terminal, N cb, that is set to be equal to a circular buffer size K w of each of the C code blocks; and transmitting the broadcast data according to selected bits; wherein the determining that downlink data is broadcast data comprises: when the downlink data is data that is delivered over a paging channel, PCH, to a physical layer, determining that the downlink data is the broadcast data; and/or when the downlink data is data that is delivered over a downlink shared channel, DL-SCH, associated with a random access radio network temporary identifier, RA-RNTI, to the physical layer, determining that the downlink data is the broadcast data; and/or when the downlink data is data that is delivered over a DL-SCH associated with a system information radio network temporary identifier SI-RNTI to the physical layer, determining that the downlink data is the broadcast data.
Device for thermally conditioning a receiving structure which comprises items of electronic equipment which dissipate thermal energy, these items of equipment being arranged in the receiving structure in rows which are superimposed in a specific direction, each row being constituted by juxtaposed items of equipment, each item of equipment being separated from those adjacent to it by means of a free space, each row further being separated from the adjacent rows by a free space, the device further comprising means for ensuring the circulation of a forced current of air in the receiving structure, characterised in that these means are configured and arranged in order to ensure the circulation of a forced current of air in a direction parallel with the direction of superimposition of the rows of equipment, the device further comprising means (62, 75) for ensuring regular refreshment of the forced current of air during its movement in the receiving structure, these means being arranged in the region of the free spaces (51, 71) which separate each of the rows of equipment.
Method for the reinforcement of a predefined edge region (1 ova) of a hole in a hole area in a work piece, the edge region comprising an edge of the hole, the hole area comprising thermoplastic ally bound fibres, preferably a thermoplastic ally bound tangle of fibres, the fibre material of the hole area having in its finished state a degree of compaction of less than 90%, preferably of less than 80% radially outside the predefined edge region, the method comprising the following steps: - providing the work piece with a softened thermoplastic binder, at least in the hole area, - penetrating the hole area of the work piece with a mandrel in a direction of penetration, thereby displacing fibres, the mandrel comprising a body portion with a cross-sectional area which is substantially constant in the direction of penetration and a longitudinal end portion (14b, 14c), tapering from the latter in the direction of penetration, - after penetrating the hole area with the mandrel: scraping fibres from the mandrel in the opposite direction to the direction of penetration by means of a scraper part which is movable in relation to the mandrel, - compacting the predefined edge region surrounding the mandrel with a pressing surface of the scraper part in relation to work piece portions of the hole area radially outside the edge region so that the thermoplastic ally bound fibre material of the finished work piece in the predefined edge region has a higher degree of compaction than in the regions radially outside the predefined edge region of the hole area, and so that the edge region of the hole in the finished work piece has substantially the same thickness in a passage direction of the hole corresponding to the direction of penetration as the regions of the hole area which are located radially outside the edge region. - providing the work piece with a softened thermoplastic binder, at least in the hole area, - penetrating the hole area of the work piece with a mandrel in a direction of penetration, thereby displacing fibres, the mandrel comprising a body portion with a cross-sectional area which is substantially constant in the direction of penetration and a longitudinal end portion (14b, 14c), tapering from the latter in the direction of penetration, - after penetrating the hole area with the mandrel: scraping fibres from the mandrel in the opposite direction to the direction of penetration by means of a scraper part which is movable in relation to the mandrel, - compacting the predefined edge region surrounding the mandrel with a pressing surface of the scraper part in relation to work piece portions of the hole area radially outside the edge region so that the thermoplastic ally bound fibre material of the finished work piece in the predefined edge region has a higher degree of compaction than in the regions radially outside the predefined edge region of the hole area, and so that the edge region of the hole in the finished work piece has substantially the same thickness in a passage direction of the hole corresponding to the direction of penetration as the regions of the hole area which are located radially outside the edge region.
A computer-implemented method for analyzing a tumor in 3D image data comprising the steps of: - segmenting a first contour of the tumor in the 3D image data, wherein said first contour defines a first segmented contour volume within said 3D image data, - generating a first 2D pattern based on at least a portion of the surface of said first contour or based on at least a portion of the said first segmented contour volume, - performing a texture analysis on said first 2D pattern, and - outputting a texture analysis information, - wherein a plurality of further contours are generated by expanding or shrinking said first contour, thereby creating a plurality of further segmented contour volumes, - wherein a plurality of 2D patterns are generated based on at least a portion of a plurality of segmented contour volumes or based on at least a portion of a plurality of segmented peel volumes, wherein a segmented peel volume is defined by two different contours, and - wherein the step of texture analysis being carried out on each of the unfolded 2D patterns. - segmenting a first contour of the tumor in the 3D image data, wherein said first contour defines a first segmented contour volume within said 3D image data, - generating a first 2D pattern based on at least a portion of the surface of said first contour or based on at least a portion of the said first segmented contour volume, - performing a texture analysis on said first 2D pattern, and - outputting a texture analysis information, - wherein a plurality of further contours are generated by expanding or shrinking said first contour, thereby creating a plurality of further segmented contour volumes, - wherein a plurality of 2D patterns are generated based on at least a portion of a plurality of segmented contour volumes or based on at least a portion of a plurality of segmented peel volumes, wherein a segmented peel volume is defined by two different contours, and - wherein the step of texture analysis being carried out on each of the unfolded 2D patterns.
A retracting rail clamp (100; 200) for braking or anchoring a rail-mounted machine by clamping opposite sides of a longitudinal rail member (108; 208), the rail clamp (100; 200) comprising a load transfer frame (102; 202) rigidly secured to the machine; and a clamp mechanism (104; 204) comprising a clamp frame (122; 222) including at least two spaced-apart guide posts (124; 224) connecting an upper frame plate or assembly (126; 226) with a lower main lever connector plate or assembly (128; 228); characterized in that said clamp mechanism (104; 204) is suspended within said load transfer frame (102; 202) by at least one lateral pair of pivotally mounted lift levers (106; 206), and operable between a raised, brake release position and a lowered, brake set position wherein at least one opposed facing pair of main levers (110; 210) of the clamp mechanism (104; 204) engage the side surfaces of the rail (108; 208).
A network-based real-time video transmission method, comprising: 1) caching, by a transmitting terminal, an already transmitted original data packet, and recording the transmission moment of the original data packet; 2) counting, by a receiving terminal, lost data packets and current real-time network condition information, and feeding back this information to the transmitting terminal, wherein the real-time network condition information comprises a real-time packet loss rate; 3) constructing, by the transmitting terminal, a retransmission data packet according to the cached lost data packet using a variable-code forward error correction technology, and transmitting the retransmission data packet to the receiving terminal, wherein the error correction rate of the retransmission data packet is determined according to the remaining lifetime of the lost data packet and the real-time network condition information; and 4) receiving, by the receiving terminal, the retransmission data packet and recovering the lost data packet. 1) caching, by a transmitting terminal, an already transmitted original data packet, and recording the transmission moment of the original data packet; 2) counting, by a receiving terminal, lost data packets and current real-time network condition information, and feeding back this information to the transmitting terminal, wherein the real-time network condition information comprises a real-time packet loss rate; 3) constructing, by the transmitting terminal, a retransmission data packet according to the cached lost data packet using a variable-code forward error correction technology, and transmitting the retransmission data packet to the receiving terminal, wherein the error correction rate of the retransmission data packet is determined according to the remaining lifetime of the lost data packet and the real-time network condition information; and 4) receiving, by the receiving terminal, the retransmission data packet and recovering the lost data packet.