mhurhangee/ep-ind-claims huggingface dataset:
Device for comminuting grains of bulk material, in particular cereal grains and kernels, comprising: - a first element with a first surface and a first receiving section, - a second element with a second surface and a second receiving section, - a feed device, wherein the first surface and the second surface are arranged parallel to one another and facing each other, preferably are in contact with one another, the first element and the second element are movable back and forth relative to one another between a first position and a second position, wherein the direction of movement is located in the plane of the first and second surfaces (3, 6), in the first position, the first receiving section and the second receiving section communicate with each other via a passage and form a receiving area, in which a grain of bulk material can be positioned via the feed device, when the first element and the second element are moved from the first position into the second position, a cross section of the through-passage is narrowed, characterized in that - the first element is formed as a rotor rotatably mounted about a rotor axis and having a cylindrical circumferential surface, wherein the first receiving section is an at least partially formed circumferential groove, and the rotor has at least one axial groove crossing the circumferential groove, wherein the first surface is a side wall of the axial groove, and - the second element is designed in the form of a shear bar and is arranged in the axial groove so as to be movable back and forth along the axial groove, wherein the second receiving section is a recess of the shear bar. - a first element with a first surface and a first receiving section, - a second element with a second surface and a second receiving section, - a feed device, wherein - the first element is formed as a rotor rotatably mounted about a rotor axis and having a cylindrical circumferential surface, wherein the first receiving section is an at least partially formed circumferential groove, and the rotor has at least one axial groove crossing the circumferential groove, wherein the first surface is a side wall of the axial groove, and - the second element is designed in the form of a shear bar and is arranged in the axial groove so as to be movable back and forth along the axial groove, wherein the second receiving section is a recess of the shear bar.
A method of cooking popcorn using a popcorn popper comprising activating a heating element via a controller to bring a cooking temperature for the popcorn to a first temperature and characterized by: providing a controller which based on temperature readings from a temperature sensor adjusts a power setting of the heating element and adjusts a vibration element; maintaining a temperature at least as high as said first temperature using the controller which controls a power setting of the heating element, said maintaining based on readings from a temperature sensor; vibrating the popcorn during the maintaining step with the vibration element activated by the controller; reducing the power setting of the heating element with the controller after expiration of a period of time. providing a controller which based on temperature readings from a temperature sensor adjusts a power setting of the heating element and adjusts a vibration element; maintaining a temperature at least as high as said first temperature using the controller which controls a power setting of the heating element, said maintaining based on readings from a temperature sensor; vibrating the popcorn during the maintaining step with the vibration element activated by the controller; reducing the power setting of the heating element with the controller after expiration of a period of time.
A cubic boron nitride sintered body tool, comprising, at least at a cutting edge, a cubic boron nitride sintered body comprising a cubic boron nitride particle and a binder phase, said cubic boron nitride sintered body having a cubic boron nitride content of not less than 20 volume % and not more than 60 volume %, said binder phase containing at least Al 2 O 3 and a Zr compound, on any straight line in said cubic boron nitride sintered body, a mean value of a continuous distance occupied by Al 2 O 3 being not less than 0.1 μm and not more than 1.0 μm, and a standard deviation of the continuous distance occupied by Al 2 O 3 being not more than 0.8, on the straight line, X/Y being not less than 0.1 and not more than 1 where X represents the number of points of contact between Al 2 O 3 and the Zr compound, and Y represents the sum of the number of points of contact between Al 2 O 3 and cubic boron nitride and the number of points of contact between Al 2 O 3 and binder phase component other than Al 2 O 3 and the Zr compound, and the Zr compound having an average particle size of not less than 0.01 μm and not more than 0.1 μm.
A method comprising: mounting at a first temperature at least one light emitting device die (104, 304) to a submount (106, 306) through contact elements (120, 320); and bonding an optical element (102, 302) to the at least one light emitting device die after the light emitting device die is mounted to the submount, wherein the bonding of the optical element to the at least one light emitting device die is effected by a transparent bonding layer (122, 322) disposed between the optical element and the at least one light emitting device die, and wherein the optical element is bonded to the light emitting device die at a second temperature that is greater than the first temperature and is less than the melting temperature of the contact elements. mounting at a first temperature at least one light emitting device die (104, 304) to a submount (106, 306) through contact elements (120, 320); and bonding an optical element (102, 302) to the at least one light emitting device die after the light emitting device die is mounted to the submount, wherein the bonding of the optical element to the at least one light emitting device die is effected by a transparent bonding layer (122, 322) disposed between the optical element and the at least one light emitting device die, and wherein the optical element is bonded to the light emitting device die at a second temperature that is greater than the first temperature and is less than the melting temperature of the contact elements.
A component to generate a magnetic field, comprising: a plurality of slots; and a plurality of sets of strands, each of said sets of strands consisting of a plurality of strands, said sets forming windings, each set of strands being enclosed in a respective one of the plurality of slots, each set of strands being divided into a plurality of collections (205, 710) of strands configured to be twisted over a portion of a length of the respective one of the plurality of slots, wherein each collection (205, 710) of strands is configured to change cross sectional shape over the portion; characterized in that within a set of strands, a non-prime number of the collections (205, 710) of strands are first twisted individually and then twisted all together. a plurality of slots; and a plurality of sets of strands, each of said sets of strands consisting of a plurality of strands, said sets forming windings, each set of strands being enclosed in a respective one of the plurality of slots, each set of strands being divided into a plurality of collections (205, 710) of strands configured to be twisted over a portion of a length of the respective one of the plurality of slots, wherein each collection (205, 710) of strands is configured to change cross sectional shape over the portion; characterized in that within a set of strands, a non-prime number of the collections (205, 710) of strands are first twisted individually and then twisted all together.
A method of manufacturing a multi-piece flow through connector, the method comprising: forming a ceramic body including a flow path that extends through the ceramic body; forming at least one non-ceramic body that includes a flow path that extends through the at least one non-ceramic body and one or more attachment features formed therein; and attaching the ceramic body to the at least one non-ceramic body, wherein the flow path of the ceramic body is aligned with the flow path of the at least one non-ceramic body, and attaching a pressure sensing device to a portion of the ceramic body that deforms due to pressure within the flow path to sense the pressure within the flow path, wherein the portion of the ceramic body is a pressure window formed in the ceramic body, and the pressure sensor is disposed in the pressure window. forming a ceramic body including a flow path that extends through the ceramic body; forming at least one non-ceramic body that includes a flow path that extends through the at least one non-ceramic body and one or more attachment features formed therein; and attaching the ceramic body to the at least one non-ceramic body, wherein the flow path of the ceramic body is aligned with the flow path of the at least one non-ceramic body, and attaching a pressure sensing device to a portion of the ceramic body that deforms due to pressure within the flow path to sense the pressure within the flow path, wherein the portion of the ceramic body is a pressure window formed in the ceramic body, and the pressure sensor is disposed in the pressure window.
An access point for transmitting non-GNSS signals using a wireless RF communication standard, the access point being further configured to transmit GNSS-like signals comprising a navigation message modulated by a pseudo-random code in at least one communication channel dedicated to the transmission of the non-GNSS signals over a carrier frequency that differs from standard GNSS carrier frequencies, wherein the GNSS-like signals and non-GNSS signals are multiplexed using one of a time or a frequency division multiplexing technique.
Method for producing optical components having the following steps: - providing a first substrate and a second substrate, - providing a plurality of reinforcing elements by detaching them from one or more reinforcing substrates, - generating a stack by arranging the reinforcing elements on the first substrate, whereby each reinforcing element covers a region of the first substrate, a reinforcing element being arranged following the provision of the respective reinforcing element, - bringing the second substrate into contact with the stack, - heating and deforming the first substrate such that at least a part of the region of the first substrate covered by the respective reinforcing element is displaced and/or inclined. - providing a first substrate and a second substrate, - providing a plurality of reinforcing elements by detaching them from one or more reinforcing substrates, - generating a stack by arranging the reinforcing elements on the first substrate, whereby each reinforcing element covers a region of the first substrate, a reinforcing element being arranged following the provision of the respective reinforcing element, - bringing the second substrate into contact with the stack, - heating and deforming the first substrate such that at least a part of the region of the first substrate covered by the respective reinforcing element is displaced and/or inclined.
An apparatus for the treatment of plastics material containers with a conveying device which conveys the containers along a pre-set conveying path and with a guide device which guides the containers at least in sections during the movement thereof along the conveying path, wherein this guide device is arranged in such a way that the containers contact a guide face of this guide device at least for a time and move - in particular in a sliding manner - with respect to this guide face, wherein the guide device has a plastics material at least on the guide face towards the containers, characterized in that the guide face of the guide device towards the containers has a plastics material cross-linked by the action of radiation.
A multifunction holder for attaching, in particular, welding to a body or a wall of a utility vehicle, in particular, an inner wall of a trough of a semitrailer, including: - a floor element, which comprises a floor through hole and, at a rear-sided face, a rear-sided floor recess; - a ceiling element spaced apart from and running essentially parallel to the floor element, which comprises a ceiling through hole and, at a rear-sided face, a rear-sided ceiling element recess; - a first side wall element; - a second side wall element disposed spaced apart from the first side wall element and rigidly connected to the opposite first side wall element by the floor element and the ceiling element; wherein: - at least the ceiling element through hole is configured to receive a hoop (200, 230), and - at least one of the through holes (40, 60) is configured to enable the hooking-in of an engagement element such as a hook or a shackle, and - at least one of the recesses (50, 70) is configured to delimit an insertion opening (71, 146) for an insertion flap (111, 116, 119) of a tarpaulin holder and/or a tarpaulin stopper (115, 118). - a floor element, which comprises a floor through hole and, at a rear-sided face, a rear-sided floor recess; - a ceiling element spaced apart from and running essentially parallel to the floor element, which comprises a ceiling through hole and, at a rear-sided face, a rear-sided ceiling element recess; - a first side wall element; - a second side wall element disposed spaced apart from the first side wall element and rigidly connected to the opposite first side wall element by the floor element and the ceiling element; - at least the ceiling element through hole is configured to receive a hoop (200, 230), and - at least one of the through holes (40, 60) is configured to enable the hooking-in of an engagement element such as a hook or a shackle, and - at least one of the recesses (50, 70) is configured to delimit an insertion opening (71, 146) for an insertion flap (111, 116, 119) of a tarpaulin holder and/or a tarpaulin stopper (115, 118).
A microscope apparatus comprising: an illumination apparatus which includes a surface light emitter having a light emitting surface as a planar light-emitting region and irradiates a sample with light emitted from the surface light emitter; and an imaging optical system which includes an objective lens configured to condense light from the sample, and a variable power lens group configured to form an image of the sample and to change the magnification of the image, wherein the illumination apparatus includes a light diffusing element which diffuses the light emitted from the light emitting surface, a light shielding element (22, 26) which is arranged at a position between the surface light emitter and the light diffusing element, and shields a part of a luminous flux emitted from the light emitting surface, wherein the light diffusing element is arranged between the sample and a conjugate image of an entrance pupil of the imaging optical system, and the surface light emitter and the light shielding element are arranged in the range of the diffused conjugate images of the entrance pupil for all magnifications of the imaging optical system so that the entrance pupil can be filled with the illumination light regardless of the magnification of the imaging optical system. an illumination apparatus which includes a surface light emitter having a light emitting surface as a planar light-emitting region and irradiates a sample with light emitted from the surface light emitter; and an imaging optical system which includes an objective lens configured to condense light from the sample, and a variable power lens group configured to form an image of the sample and to change the magnification of the image, wherein the illumination apparatus includes a light diffusing element which diffuses the light emitted from the light emitting surface, a light shielding element (22, 26) which is arranged at a position between the surface light emitter and the light diffusing element, and shields a part of a luminous flux emitted from the light emitting surface, wherein the light diffusing element is arranged between the sample and a conjugate image of an entrance pupil of the imaging optical system, and the surface light emitter and the light shielding element are arranged in the range of the diffused conjugate images of the entrance pupil for all magnifications of the imaging optical system so that the entrance pupil can be filled with the illumination light regardless of the magnification of the imaging optical system.
A ring shear apparatus comprising: an upper ring defining a first accommodation portion having a ring shape in which soil samples are accommodated; a lower ring defining a second accommodation portion that corresponds to the first accommodation portion of the upper ring and that has a ring shape in which soil samples are accommodated, closely attached to a lower portion of the upper ring and rotatably installed relative to the upper ring; a rotating unit that rotates the lower ring relative to the upper ring; and a shear strength measuring sensor combined with the upper ring and that measures a shear strength of the soil samples, wherein a plurality of protrusions that protrudes from the lower ring is formed on an inner circumferential surface of the lower ring along a circumferential direction of the lower ring and a plurality of protrusions that protrudes from the upper ring is formed on an inner circumferential surface of the upper ring along a circumferential direction of the upper ring in order to prevent the soil samples from being slid relative to the upper and lower rings (20, 30) when the lower ring is rotated, whereby the soil samples are in shear-transferring relative to the upper ring or the lower ring. an upper ring defining a first accommodation portion having a ring shape in which soil samples are accommodated; a lower ring defining a second accommodation portion that corresponds to the first accommodation portion of the upper ring and that has a ring shape in which soil samples are accommodated, closely attached to a lower portion of the upper ring and rotatably installed relative to the upper ring; a rotating unit that rotates the lower ring relative to the upper ring; and a shear strength measuring sensor combined with the upper ring and that measures a shear strength of the soil samples, wherein a plurality of protrusions that protrudes from the lower ring is formed on an inner circumferential surface of the lower ring along a circumferential direction of the lower ring and a plurality of protrusions that protrudes from the upper ring is formed on an inner circumferential surface of the upper ring along a circumferential direction of the upper ring in order to prevent the soil samples from being slid relative to the upper and lower rings (20, 30) when the lower ring is rotated, whereby the soil samples are in shear-transferring relative to the upper ring or the lower ring.
A cryopump comprising: a pump inlet; a two stage refrigerator; a first stage array thermally coupled to a first stage of said two stage refrigerator; and a cryopanel structure coupled to a second stage of said two stage refrigerator and comprising a plurality of cryopanels; wherein said plurality of cryopanels each comprise two sides (24, 22), said two sides comprising a coated side that is coated with an adsorbent material and a further side that is not coated with said adsorbent material; said first stage array comprises a plurality of elements corresponding to said plurality of cryopanels; said plurality of elements being configured to be mounted between said pump inlet and said plurality of cryopanels; wherein each of said plurality of elements extends from a location between a corresponding cryopanel and said pump inlet towards a neighbouring cryopanel and slopes towards said inlet, such that each of said plurality of elements at least partially shields a coated side of said neighbouring cryopanel from direct impact of a gas molecule passing through said pump inlet. a pump inlet; a two stage refrigerator; a first stage array thermally coupled to a first stage of said two stage refrigerator; and a cryopanel structure coupled to a second stage of said two stage refrigerator and comprising a plurality of cryopanels; wherein said plurality of cryopanels each comprise two sides (24, 22), said two sides comprising a coated side that is coated with an adsorbent material and a further side that is not coated with said adsorbent material; said first stage array comprises a plurality of elements corresponding to said plurality of cryopanels; said plurality of elements being configured to be mounted between said pump inlet and said plurality of cryopanels; wherein each of said plurality of elements extends from a location between a corresponding cryopanel and said pump inlet towards a neighbouring cryopanel and slopes towards said inlet, such that each of said plurality of elements at least partially shields a coated side of said neighbouring cryopanel from direct impact of a gas molecule passing through said pump inlet.
A silencer comprising: a hollow tubular portion in which a discharge flow passage is formed that communicates, on one end side of the tubular portion, with a discharge port of a fluid pressure device through which a pressure fluid is discharged; a cap member attached to another end part of the hollow tubular portion; a sound absorbing member attached to an inner wall surface of the hollow tubular portion; and a plurality of discharge ports (64a to 64d) adapted to discharge the pressure fluid, which has passed through the discharge flow passage in an axial direction of the hollow tubular portion, in radial directions perpendicular to the axial direction, wherein the cap member includes the plurality of the discharge ports (64a to 64d), characterized in that the cap member further includes a disk-shaped distal end part, prism-shaped parts that support the distal end part and are spaced equidistantly from each other in a circumferential direction, an annular connecting part that supports the prism-shaped parts and is fitted into the hollow tubular portion, and that the discharge ports (64a to 64d) are formed between the prism-shaped parts. a hollow tubular portion in which a discharge flow passage is formed that communicates, on one end side of the tubular portion, with a discharge port of a fluid pressure device through which a pressure fluid is discharged; a cap member attached to another end part of the hollow tubular portion; a sound absorbing member attached to an inner wall surface of the hollow tubular portion; and a plurality of discharge ports (64a to 64d) adapted to discharge the pressure fluid, which has passed through the discharge flow passage in an axial direction of the hollow tubular portion, in radial directions perpendicular to the axial direction, wherein the cap member includes the plurality of the discharge ports (64a to 64d), characterized in that the cap member further includes a disk-shaped distal end part, prism-shaped parts that support the distal end part and are spaced equidistantly from each other in a circumferential direction, an annular connecting part that supports the prism-shaped parts and is fitted into the hollow tubular portion, and that the discharge ports (64a to 64d) are formed between the prism-shaped parts. a disk-shaped distal end part, prism-shaped parts that support the distal end part and are spaced equidistantly from each other in a circumferential direction, an annular connecting part that supports the prism-shaped parts and is fitted into the hollow tubular portion, and that the discharge ports (64a to 64d) are formed between the prism-shaped parts.