mhurhangee/ep-ind-claims huggingface dataset:
Path-controlled press, comprising: at least one drive shaft with an entrainer eccentric relative to a shaft axis, and a slide block, wherein the slide block is driven by the entrainer to execute a constrained motion, wherein the slide block during execution of a press stroke is guided at at least one thrust-side slide surface relative to a thrust-side surface of a guide, wherein the slide block has a draw-side slide surface which is opposite the thrust-side slide surface and which is guided at a draw-side surface of the guide, wherein the thrust-side slide surface at the slide block has a concave or convex curvature, wherein the draw-side slide surface of the slide block has a respectively different concave or convex curvature, characterised in that an ejecting mechanism, which is mounted to be stationary relative to the guide, with an ejector movable relative to the guide and acting on a workpiece is provided, wherein the ejection mechanism is actuated by the movement of the slide block. at least one drive shaft with an entrainer eccentric relative to a shaft axis, and a slide block, wherein the slide block is driven by the entrainer to execute a constrained motion, wherein the slide block during execution of a press stroke is guided at at least one thrust-side slide surface relative to a thrust-side surface of a guide, wherein the slide block has a draw-side slide surface which is opposite the thrust-side slide surface and which is guided at a draw-side surface of the guide, wherein the thrust-side slide surface at the slide block has a concave or convex curvature, wherein the draw-side slide surface of the slide block has a respectively different concave or convex curvature, characterised in that an ejecting mechanism, which is mounted to be stationary relative to the guide, with an ejector movable relative to the guide and acting on a workpiece is provided, wherein the ejection mechanism is actuated by the movement of the slide block.
Method for automated repalletizing of packaged goods, the method to be carried out with a conveyor table with devices for the omnidirectional movement of packaged goods from an original layer, formed by units of packaged goods to be reconfigured, to a target layer, formed by units of packaged goods, wherein the conveyor table has an area that is larger than the area that is occupied by an original layer of the units of packaged goods to be configured, having the following steps: • providing an original layer of units of packaged goods on the conveyor table, • automated separation of the units of packaged goods by the conveyor table such that manoeuvring distances are created between at least two of the units of packaged goods, • moving the units of packaged goods to a predetermined position of the target layer, and • optionally completing and optionally compressing the target layer of units of packaged goods, wherein at least more than one of the units of packaged goods of the target layer are on the conveyor table during the entire process. • providing an original layer of units of packaged goods on the conveyor table, • automated separation of the units of packaged goods by the conveyor table such that manoeuvring distances are created between at least two of the units of packaged goods, • moving the units of packaged goods to a predetermined position of the target layer, and • optionally completing and optionally compressing the target layer of units of packaged goods,
A communication method, comprising: receiving, by a terminal device, configuration information from a network device; wherein the configuration information indicates configuration parameters of a plurality of synchronization signal blocks, SSBs, located at different frequency domain positions on one carrier, the configuration parameters comprise transmission pattern information, and the transmission pattern information indicates a portion of the plurality of SSBs, wherein the plurality of SSBs comprises a SSB for initial access and SSBs other than the SSB for initial access; receiving, by a terminal device, the portion of the plurality of SSBs indicated by the transmission pattern information; wherein the configuration information is received through radio resource control signaling. receiving, by a terminal device, configuration information from a network device; wherein the configuration information indicates configuration parameters of a plurality of synchronization signal blocks, SSBs, located at different frequency domain positions on one carrier, the configuration parameters comprise transmission pattern information, and the transmission pattern information indicates a portion of the plurality of SSBs, wherein the plurality of SSBs comprises a SSB for initial access and SSBs other than the SSB for initial access; receiving, by a terminal device, the portion of the plurality of SSBs indicated by the transmission pattern information; wherein the configuration information is received through radio resource control signaling.
An installation for manufacturing receptacles by thermoforming, and for putting decorative banderoles in place thereon, the installation including at least one set made up of a thermoforming chamber and of an insertion chamber associated with said thermoforming chamber, and means (36, 46, 44) for feeding a strip to the vicinity of the insertion chamber, for cutting a decorative banderole from said strip, for disposing said banderole in the insertion chamber, and for transferring said banderole into the thermoforming chamber, the means for disposing the banderole in the insertion chamber comprising a wheel located in the insertion chamber, characterized in that the wheel located in the insertion chamber is a drive wheel configured to be driven in rotation and to cooperate with the wall of said chamber in a manner such as to nip the banderole between said wheel and said wall, and such as to cause the banderole to advance into the chamber.
A speech coding apparatus comprising: a prediction parameter analyzing section that calculates a delay difference and an amplitude ratio between a first channel signal and a second channel signal as prediction parameters; and a quantizing section that calculates quantized prediction parameters from the prediction parameters based on a correlation between the delay difference and the amplitude ratio. a prediction parameter analyzing section that calculates a delay difference and an amplitude ratio between a first channel signal and a second channel signal as prediction parameters; and a quantizing section that calculates quantized prediction parameters from the prediction parameters based on a correlation between the delay difference and the amplitude ratio.
A sounding reference signal, SRS transmission method, comprising: scheduling a physical uplink shared channel, PUSCH transmission, to a first carrier such that it occupies an uplink slot of the first carrier; determining whether an SRS capacity of the first carrier is limited; when it is determined that the SRS capacity of the first carrier is limited, re-scheduling the PUSCH transmission to an idle time domain resource on a second carrier; sending, SRS time domain resource indication information to the terminal device, wherein the SRS time domain resource indication information indicates an SRS time domain resource, the SRS time domain resource is part or all of the uplink slot on the first carrier; receiving, on the SRS time domain resource, a SRS from the terminal device; performing, channel estimation based on the SRS. scheduling a physical uplink shared channel, PUSCH transmission, to a first carrier such that it occupies an uplink slot of the first carrier; determining whether an SRS capacity of the first carrier is limited; when it is determined that the SRS capacity of the first carrier is limited, re-scheduling the PUSCH transmission to an idle time domain resource on a second carrier; sending, SRS time domain resource indication information to the terminal device, wherein the SRS time domain resource indication information indicates an SRS time domain resource, the SRS time domain resource is part or all of the uplink slot on the first carrier; receiving, on the SRS time domain resource, a SRS from the terminal device; performing, channel estimation based on the SRS.
A washer/dryer comprising walls (2, 3, 300, 4) that enclose the space containing the tub and other elements from front, sides and behind and a housing disposed on the side of at least one wall (2, 3, 300, 4) where it is connected to the other wall (2, 3, 300, 4) and at least one connection member disposed on the side of the other wall (2, 3, 300, 4) aligned with the housing, providing the two walls (2, 3, 300, 4) to be connected perpendicularly from their sides to each other by being seated at least partially in the housing, the connection member having a plate shaped body, characterized by the connection member further having - at least one detent means shaped retainer, extending outwards from the body, so as to easily enter into the housing but preventing dislodging when pulled back by bearing against the sides of the housing such as to be seated snap-fittingly to the sides of the housing and - at least one extension disposed near the retainer, extending outwards from the body, providing the retainer to be guided together with the at least one extension into the housing. - at least one detent means shaped retainer, extending outwards from the body, so as to easily enter into the housing but preventing dislodging when pulled back by bearing against the sides of the housing such as to be seated snap-fittingly to the sides of the housing and - at least one extension disposed near the retainer, extending outwards from the body, providing the retainer to be guided together with the at least one extension into the housing.
A manufacturing apparatus for an optical fiber porous preform comprising: a reaction chamber having an air inlet and an exhaust duct; a gas supply unit that supplies a raw material gas and a flammable gas; at least one main burner, provided in the reaction chamber, that ignites and burns the flammable gas and the raw material gas to synthesize glass particles and supplies the synthesized glass particles to a starting material while being moved relative to the starting material to deposit the particulates generated by reaction of the gases on an outer circumference of the starting material to form a porous preform; and at least one auxiliary burner that heats an end portion of the porous preform, wherein a position of the auxiliary burner with respect to the starting material is immovable, characterized in that the manufacturing apparatus further comprises an airflow guiding unit that prevents an air flow from the air inlet to the exhaust duct from directly blowing against the auxiliary burner, the airflow guiding unit being provided in a vicinity of the auxiliary burner, the airflow guiding unit has a shape for which an emission side of flames that the auxiliary burner emits is open and a shape covering, with respect to the auxiliary burner, a side opposite to the emission side, and lateral sides as viewed from the emission side, an open portion of the airflow guiding unit is located on an exhaust duct side of an airflow generated in the reaction chamber. a reaction chamber having an air inlet and an exhaust duct; a gas supply unit that supplies a raw material gas and a flammable gas; at least one main burner, provided in the reaction chamber, that ignites and burns the flammable gas and the raw material gas to synthesize glass particles and supplies the synthesized glass particles to a starting material while being moved relative to the starting material to deposit the particulates generated by reaction of the gases on an outer circumference of the starting material to form a porous preform; and at least one auxiliary burner that heats an end portion of the porous preform, wherein a position of the auxiliary burner with respect to the starting material is immovable, characterized in that the manufacturing apparatus further comprises an airflow guiding unit that prevents an air flow from the air inlet to the exhaust duct from directly blowing against the auxiliary burner, the airflow guiding unit being provided in a vicinity of the auxiliary burner, the airflow guiding unit has a shape for which an emission side of flames that the auxiliary burner emits is open and a shape covering, with respect to the auxiliary burner, a side opposite to the emission side, and lateral sides as viewed from the emission side, an open portion of the airflow guiding unit is located on an exhaust duct side of an airflow generated in the reaction chamber.
Shaft cover assembly for use in road construction and in renovation procedures, having a closing element and a shaft cover frame, wherein the shaft cover frame is formed in two parts from a casting receptacle for receiving the closing element and a concrete support shell, wherein the concrete support shell and the casting receptacle are connected at least in sections in a form-fit and positively bonded manner, the casting receptacle projects over the concrete support shell in the direction of the closing element, and the concrete support shell has a downward tapering side surface facing away from the shaft, characterised in that the casting receptacle on the side of the shaft cover assembly facing away from the shaft has a side piece angled downwards, which comprises the concrete support shell on the side thereof facing away from the shaft at least in sections.
A cutting tool comprising: a body; a first portion of the body having a first diameter and a first radial rake angle; and a second portion of the body adjacent the first portion, the second portion having a second diameter and a second radial rake angle, wherein the second diameter differs from the first diameter, and wherein the second radial rake angle differs from the first radial rake angle, wherein the first radial rake angle is a positive radial rake angle, and the second radial rake angle is a negative radial rake angle, and characterised in that the first radial rake angle is 10 degrees, and wherein the second radial rake angle is negative 10 degrees. a body; a first portion of the body having a first diameter and a first radial rake angle; and a second portion of the body adjacent the first portion, the second portion having a second diameter and a second radial rake angle, wherein the second diameter differs from the first diameter, and wherein the second radial rake angle differs from the first radial rake angle, wherein the first radial rake angle is a positive radial rake angle, and the second radial rake angle is a negative radial rake angle, and characterised in that the first radial rake angle is 10 degrees, and wherein the second radial rake angle is negative 10 degrees.
An additive manufacturing system suitable for selective laser melting for applying a powder layer to a substrate, comprising a rotary manufacturing unit, wherein the rotary manufacturing unit comprises a first manufacturing chamber and a second manufacturing chamber, wherein the first manufacturing chamber comprises a first openable cover and the second manufacturing chamber comprises a second openable cover, wherein the first manufacturing chamber comprises a first doctor blade configured to apply a powder layer on a first substrate, wherein the second manufacturing chamber comprises a second doctor blade configured to apply a powder layer on a second substrate, wherein the rotary manufacturing unit is configured to be rotatable into a first position in which the first manufacturing chamber is positioned for irradiating the powder layer on the first substrate and the second manufacturing chamber is positioned for enabling an opening of the second cover, and into a second position in which the second manufacturing chamber is positioned for irradiating the powder layer on the second substrate and the first manufacturing chamber is positioned for enabling an opening of the first cover.
A method of evolution of a template human protein in a manufacturing host that is a eukaryotic cell production host, the method comprising: a. evolving the template human protein to produce a set of mutant human proteins in the eukaryotic cell production host; b. screening the set of mutant human proteins for at least one predetermined property, characteristic or activity; c. selecting an up-mutant human protein from the set of mutant human proteins based upon the at least one predetermined property, characteristic or activity; and d. manufacturing the up-mutant human protein comprising expressing the up-mutant human protein in the same eukaryotic cell production host as used in the evolving step (a). a. evolving the template human protein to produce a set of mutant human proteins in the eukaryotic cell production host; b. screening the set of mutant human proteins for at least one predetermined property, characteristic or activity; c. selecting an up-mutant human protein from the set of mutant human proteins based upon the at least one predetermined property, characteristic or activity; and d. manufacturing the up-mutant human protein comprising expressing the up-mutant human protein in the same eukaryotic cell production host as used in the evolving step (a).
Banner support assembly comprising: - a banner comprising a flexible body provided with a slot (11, 12) and a flexible and/or folding rod having a longitudinal axis and disposed inside said slot (11, 12); - fixing means fixed to the banner in order to attach the banner to a support; characterized in that said rod is made of multiple portions and comprises: - a fixed portion with a longitudinal axis; - at least one mobile portion movably fixed to the fixed portion; and - at least one hinging means that hinges each mobile portion with respect to the fixed portion, in such a way to let each mobile portion rotate with respect to the fixed portion around a hinging axis that is orthogonal to said longitudinal axis of the fixed portion. - a banner comprising a flexible body provided with a slot (11, 12) and a flexible and/or folding rod having a longitudinal axis and disposed inside said slot (11, 12); - fixing means fixed to the banner in order to attach the banner to a support; - a fixed portion with a longitudinal axis; - at least one mobile portion movably fixed to the fixed portion; and - at least one hinging means that hinges each mobile portion with respect to the fixed portion, in such a way to let each mobile portion rotate with respect to the fixed portion around a hinging axis that is orthogonal to said longitudinal axis of the fixed portion.
A recoater for applying a layer of build material capable of solidification on a working surface, wherein the recoater comprises a discharge port and a flattening member, wherein the discharge port is configured to, in use, discharge build material to form a heap of build material on the working surface at a position ahead of the flattening member relative a direction of spreading of the building material along the working surface, wherein the flattening member is configured to spread material from the heap of build material along the working surface in order to form the layer of build material on top of the working surface through a gap formed between a lower surface of the flattening member and the working surface by relative movement of the flattening member and the working surface, wherein the recoater further includes a shutter distanced from the discharge port in a height direction, wherein the shutter is configured to be movable between a closed position in which build material is not dispensed onto the working surface, and an opened position in which build material is dispensed onto the working surface, wherein the shutter is configured to, in the closed position, at least partially intercept the heap of build material so as to carry on the shutter at least a portion of the heap of build material at an area adjacent and ahead of the lower surface of the flattening member, and wherein in the closed position a lower surface of the shutter is substantially aligned with respect to the lower surface of the flattening member. wherein the discharge port is configured to, in use, discharge build material to form a heap of build material on the working surface at a position ahead of the flattening member relative a direction of spreading of the building material along the working surface, wherein the flattening member is configured to spread material from the heap of build material along the working surface in order to form the layer of build material on top of the working surface through a gap formed between a lower surface of the flattening member and the working surface by relative movement of the flattening member and the working surface, wherein the recoater further includes a shutter distanced from the discharge port in a height direction, wherein the shutter is configured to be movable between a closed position in which build material is not dispensed onto the working surface, and an opened position in which build material is dispensed onto the working surface, wherein the shutter is configured to, in the closed position, at least partially intercept the heap of build material so as to carry on the shutter at least a portion of the heap of build material at an area adjacent and ahead of the lower surface of the flattening member, and wherein in the closed position a lower surface of the shutter is substantially aligned with respect to the lower surface of the flattening member.
A radio frequency identification (RFID)-enabled shelf comprising: a substrate providing a shelf for items having RFID tags; a signal line structure comprising: a plurality of signal lines (38, 42, 44, 48) affixed to a first side of the substrate to generate one or more radio frequency electromagnetic field for interrogating one or more of the RFID tags; characterized in that the plurality of signal lines (38; 42, 44,48) extend longitudinally from a respective first end to a respective second end along a length of the shelf; an electrical conductor providing an electrical ground plane on a second side of the substrate opposite the signal lines (38, 42, 44, 48); and an electrical load coupling a signal line of the plurality of signal lines (38, 42, 44, 48) and the ground plane. a substrate providing a shelf for items having RFID tags; a signal line structure comprising: a plurality of signal lines (38, 42, 44, 48) affixed to a first side of the substrate to generate one or more radio frequency electromagnetic field for interrogating one or more of the RFID tags; a plurality of signal lines (38, 42, 44, 48) affixed to a first side of the substrate to generate one or more radio frequency electromagnetic field for interrogating one or more of the RFID tags; the plurality of signal lines (38; 42, 44,48) extend longitudinally from a respective first end to a respective second end along a length of the shelf; an electrical conductor providing an electrical ground plane on a second side of the substrate opposite the signal lines (38, 42, 44, 48); and an electrical load coupling a signal line of the plurality of signal lines (38, 42, 44, 48) and the ground plane. an electrical conductor providing an electrical ground plane on a second side of the substrate opposite the signal lines (38, 42, 44, 48); and an electrical load coupling a signal line of the plurality of signal lines (38, 42, 44, 48) and the ground plane.