mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for ablative material processing by means of laser radiation, comprising - at least one laser radiation source for generating laser beams (13, 144) for processing at least one processing surface, - a control system for controlling the laser radiation source, - at least one modulation device (34, 168) for the modulation of the laser beams, - at least one material carrier (22, 236, 247) for the processing surface, and - means for producing at least a relative movement between laser beams (13, 144) and processing surface, characterized in that - the laser radiation source has a plurality of diode-pumped fibre lasers without phase coupling for ablative material processing, - each fibre laser has at least one radiation output, - wherein at least two radiation outputs of the plurality of diode-pumped fibre lasers without phase coupling are provided, - wherein the outputs are arranged in a first organization pattern, and the laser rays emanating from the outputs are shaped and/or oriented in such a way that they strike the processing surface in a second organization pattern and, on the processing surface, produce processing points located beside one another in at least one track and/or one above another in at least one plane, and - wherein the laser radiation source has means with which undesired laser beams that emanate from the outputs and are not intended to bring about any processing effect on the processing surface are rendered ineffective. - at least one laser radiation source for generating laser beams (13, 144) for processing at least one processing surface, - a control system for controlling the laser radiation source, - at least one modulation device (34, 168) for the modulation of the laser beams, - at least one material carrier (22, 236, 247) for the processing surface, and - means for producing at least a relative movement between laser beams (13, 144) and processing surface, characterized in that - the laser radiation source has a plurality of diode-pumped fibre lasers without phase coupling for ablative material processing, - each fibre laser has at least one radiation output, - wherein at least two radiation outputs of the plurality of diode-pumped fibre lasers without phase coupling are provided, - wherein the outputs are arranged in a first organization pattern, and the laser rays emanating from the outputs are shaped and/or oriented in such a way that they strike the processing surface in a second organization pattern and, on the processing surface, produce processing points located beside one another in at least one track and/or one above another in at least one plane, and - wherein the laser radiation source has means with which undesired laser beams that emanate from the outputs and are not intended to bring about any processing effect on the processing surface are rendered ineffective.
A slide bearing formed as a cylindrical member and adopted to a slide bearing structure of a crankshaft of an engine, wherein halved members made by dividing a cylinder in two in a direction parallel to the axial direction of the cylinder and having a semicircular shape with mating surfaces on left and right ends in cross-section are disposed such that, by arranging the halved members on each other about the mating surfaces, the cylindrical member is formed, wherein in a slide surface of an inner circumference of the lower halved member narrow grooves (3; 33) are provided at an end in the circumferential direction from a mating surface on a downstream side of a rotation direction of the crankshaft to a predetermined bearing angle, wherein peripheral edge parts (2a; 32a) which configure outside surfaces of the narrow grooves (3; 33) in an axial direction are provided outside the narrow grooves (3;33) in the axial direction, characterized in that oil grooves (35 A, 36A; 35B, 36B; 35C, 36C) which are narrower than the narrow grooves (3; 33) are only disposed at the bottom surface of the narrow grooves (3; 33) and the surface of the peripheral edge parts (2a; 32a) of the slide bearing at the inner circumference of the slide bearing.
A printing plate for transferring a flowable printing substance onto a printing material to be printed on, comprising - a body having a surface, which surface has a plurality of openings, - a plurality of cavities in the body, which cavities end in the openings of the surface of the body and contain gas, wherein each cavity is bounded by a wall which adjoins the opening and surrounds the respective cavity, and - devices associated with each cavity for producing an overpressure in the cavity in question, characterized in that at least parts of the surface of the body and/or the wall surfaces of the walls of at least some cavities consist in a first wall region near the opening and composed of a surface that can be wetted with the printing substance. - a body having a surface, which surface has a plurality of openings, - a plurality of cavities in the body, which cavities end in the openings of the surface of the body and contain gas, wherein each cavity is bounded by a wall which adjoins the opening and surrounds the respective cavity, and - devices associated with each cavity for producing an overpressure in the cavity in question,
An antimicrobial composition comprising one or more synthetic peptides selected from the group consisting of amino acid sequences having Seq Id No. 1, Seq Id No. 2 and Seq Id No. 3 with one or more pharmaceutically acceptable excipients.
A magnetic resonance imaging apparatus comprising: a housing that includes a bore; a magnet assembly disposed in the housing and being configured to generate a main magnetic field for capturing an MR image of an object; a moving table configured to support the object and configured to be moved into the bore; a beam projector that is configured to be disposed in the bore while the MR image is being captured, and to project an image onto an inner wall included in the bore; and a controller configured to control the beam projector, and to transfer a video signal to the beam projector, wherein the beam projector includes a coil, and the beam projector is disposed so that a direction of a second magnetic field, which is generated when a current is applied to the coil, is parallel to a direction of the main magnetic field in the bore. a housing that includes a bore; a magnet assembly disposed in the housing and being configured to generate a main magnetic field for capturing an MR image of an object; a moving table configured to support the object and configured to be moved into the bore; a beam projector that is configured to be disposed in the bore while the MR image is being captured, and to project an image onto an inner wall included in the bore; and a controller configured to control the beam projector, and to transfer a video signal to the beam projector, wherein the beam projector includes a coil, and the beam projector is disposed so that a direction of a second magnetic field, which is generated when a current is applied to the coil, is parallel to a direction of the main magnetic field in the bore.
A coupling device (1, 1', 1", 1"', 1"") for detachably connecting a medical, in particular dental, instrument to a drive unit or a supply hose for transfer of data and/or energy and optionally a driving movement and/or a working medium, in particular a fluid, between the drive unit or the supply hose and the instrument, comprising a first and a second coupling element (4, 5), wherein one of the two coupling elements (4, 5) is designed as a coupling recess into which a coupling protrusion of the other coupling element (4, 5) can be inserted, and wherein a positioning element (8, 8', 8", 8"', 8"") is disposed on one of the two coupling elements (4, 5) which can be inserted into an indentation on the other coupling element (4, 5) to position the two coupling elements (4, 5) in a defined angular position about their shared axis relative to one another, characterized in that the positioning element (8, 8', 8", 8"', 8"") comprises a memory unit (11, 11', 11", 11"', 11"") for storage of data, preferably instrument-related data, and the indentation comprises a transfer unit (12, 12', 12", 12"', 12""), wherein the memory unit (11, 11', 11", 11"', 11"") is arranged in the positioning element (8, 8', 8", 8"', 8"") such, that it can be inserted into the indentation of the other coupling element (4, 5), so that data can be transferred from the memory unit (11, 11', 11", 11"', 11"") of the one coupling element (4, 5) to the other coupling element (4, 5) of the coupling device (1, 1', 1", 1"', 1"") by means of the transfer unit (12, 12', 12", 12"', 12"").
An inorganic oxide powder having electrically insulating properties, wherein: 1) an average three-dimensional particle unevenness is 3.6 or more, wherein the three-dimensional particle unevenness is a shape parameter of one inorganic oxide particle constituting the inorganic oxide powder, which is the value defined by the following formula, based on a particle volume V (μm 3) and a volume of rectangular parallelepiped La x Lb x Lc (μm 3) circumscribing the particles La x Lb x Lc / V and where La denotes a major diameter of particle, Lb denotes a middle diameter of particle, and Lc denotes a minor diameter of particle, and La, Lb and Lc are orthogonal to one another, and the average three-dimensional unevenness as used herein is the value of the three-dimensional particle unevenness corresponding to a cumulative volume of 50% calculated when cumulative volume distribution to the three-dimensional particle unevenness is determined for arbitrary particles of 100 or more, and 2) an abundance ratio in number of particles having a particle diameter of less than 0.3 μm is 50% or more, wherein the particle diameter is a diameter d of a sphere having the volume which is equal to the particle volume V (μm 3) of the inorganic oxide powder, and is the value satisfying the following formula V = 4 ⁢ π / 3 x d / 2 3 and wherein the abundance ratio in number of particles having a particle diameter of less than 0.3 μm can be obtained by calculating the particle diameter from 100 or more particles using the above formula. 1) an average three-dimensional particle unevenness is 3.6 or more, wherein the three-dimensional particle unevenness is a shape parameter of one inorganic oxide particle constituting the inorganic oxide powder, which is the value defined by the following formula, based on a particle volume V (μm 3) and a volume of rectangular parallelepiped La x Lb x Lc (μm 3) circumscribing the particles La x Lb x Lc / V and where La denotes a major diameter of particle, Lb denotes a middle diameter of particle, and Lc denotes a minor diameter of particle, and La, Lb and Lc are orthogonal to one another, and the average three-dimensional unevenness as used herein is the value of the three-dimensional particle unevenness corresponding to a cumulative volume of 50% calculated when cumulative volume distribution to the three-dimensional particle unevenness is determined for arbitrary particles of 100 or more, and 2) an abundance ratio in number of particles having a particle diameter of less than 0.3 μm is 50% or more, wherein the particle diameter is a diameter d of a sphere having the volume which is equal to the particle volume V (μm 3) of the inorganic oxide powder, and is the value satisfying the following formula V = 4 ⁢ π / 3 x d / 2 3 and wherein the abundance ratio in number of particles having a particle diameter of less than 0.3 μm can be obtained by calculating the particle diameter from 100 or more particles using the above formula.
Sulfur-crosslinkable rubberization mixture intended for reinforcement systems in pneumatic tyres and comprising a methylene-acceptor-methylene-donor pair, where a phenolic resin that is reactive in respect of a reaction with a methylene donor is used as methylene acceptor, where a phenolic resin modified by tall oil and/or by cashew nut oil is used as reactive phenolic resin, and where the ratio by weight of phenolic resin modified by tall oil and/or by cashew nut oil to methylene donor is from 2.2:1 to 1:2.2.
A frozen high dissolved solids equivalent sauce component composition comprising: (a) 4 to 25% oil; (b) water; (c) dissolved solids; (d) encapsulated solids; wherein said composition has a freezing point of -12°C (10 deg. F) to -6.7°C (20 deg. F), wherein said dissolved solids result in a Brix measurement of 17 to 25, and wherein said composition is a pellet; and wherein said encapsulated solids are encapsulated sugar and/or salt. (a) 4 to 25% oil; (b) water; (c) dissolved solids; (d) encapsulated solids; wherein said composition has a freezing point of -12°C (10 deg. F) to -6.7°C (20 deg. F), wherein said dissolved solids result in a Brix measurement of 17 to 25, and wherein said composition is a pellet; and wherein said encapsulated solids are encapsulated sugar and/or salt.
A packet sending method, comprising: receiving, by a network device, a data packet and characterized in that, a MAC address table of the network device includes a media access control, MAC, default entry, a MAC address in the MAC default entry is a default MAC address, and a value of each bit of the default MAC address is 0, the MAC default entry is used to indicate a forwarding path when a destination MAC address of the data packet received by the network device is not in the MAC address table; and if a MAC entry matching the destination MAC address of the data packet is not found in the MAC address table of the network device, sending, by the network device, the data packet according to a forwarding behavior in the MAC default entry of the MAC address table. receiving, by a network device, a data packet and characterized in that, a MAC address table of the network device includes a media access control, MAC, default entry, a MAC address in the MAC default entry is a default MAC address, and a value of each bit of the default MAC address is 0, the MAC default entry is used to indicate a forwarding path when a destination MAC address of the data packet received by the network device is not in the MAC address table; and if a MAC entry matching the destination MAC address of the data packet is not found in the MAC address table of the network device, sending, by the network device, the data packet according to a forwarding behavior in the MAC default entry of the MAC address table.
A polyamide resin composition comprising 100 parts by mass of a semi-aromatic polyamide, 3.0 to 10.0 parts by mass of a polyalcohol, and more than 0.0 parts by mass and 4.0 parts by mass or less of an aromatic polycarboxylic acid, wherein a total amount of a carboxyl group of and is 80 to 600 mmol per 1 kg in total of,, and and the aromatic polycarboxylic acid is an aromatic tricarboxylic acid represented by general formula: wherein R 1, R 2, and R 3 each independently represent a single bond or a divalent group selected from a methylene group, an ethylene group, a propylene group, a butylene group, a cyclohexylene group, and a phenylene group. a total amount of a carboxyl group of and is 80 to 600 mmol per 1 kg in total of,, and and the aromatic polycarboxylic acid is an aromatic tricarboxylic acid represented by general formula: wherein R 1, R 2, and R 3 each independently represent a single bond or a divalent group selected from a methylene group, an ethylene group, a propylene group, a butylene group, a cyclohexylene group, and a phenylene group.
A coil for an electrical device, in particular electric machine, for arranging around at least a first core which conducts a magnetic field with a longitudinal coil axis running in the direction of the magnetic field, wherein - the coil has a plurality of turns cast from an electrically conductive coil material, and - the turns and/or the turn portions thereof, dependent on their position in the longitudinal coil direction, have cross-sectional areas (A 1 -A 5) of different sizes and/or different shapes, wherein - the coil is prepared for use in the electrical device, in particular in the electric machine, - the coil has at least a first end face, - the coil has at least a second end face, - wherein the longitudinal coil direction runs substantially between the first and the second end face (620, 622), and - the coil has two sides (132, 134), to be arranged in each case between the first core and a further core, with an inner face pointing towards the first core and an outer face pointing to the in each case further core, characterised in that isolated contact faces in the longitudinal coil direction of adjacent turns - are more greatly inclined or oriented in the direction from the core towards the first end face, the further they are arranged from the second towards the first end face (1322, 1320), and/or - are more greatly bent, the further they are arranged from the second towards the first end face (1322, 1320). - the coil has a plurality of turns cast from an electrically conductive coil material, and - the turns and/or the turn portions thereof, dependent on their position in the longitudinal coil direction, have cross-sectional areas (A 1 -A 5) of different sizes and/or different shapes, wherein - the coil is prepared for use in the electrical device, in particular in the electric machine, - the coil has at least a first end face, - the coil has at least a second end face, - wherein the longitudinal coil direction runs substantially between the first and the second end face (620, 622), and - the coil has two sides (132, 134), to be arranged in each case between the first core and a further core, with an inner face pointing towards the first core and an outer face pointing to the in each case further core, - are more greatly inclined or oriented in the direction from the core towards the first end face, the further they are arranged from the second towards the first end face (1322, 1320), and/or - are more greatly bent, the further they are arranged from the second towards the first end face (1322, 1320).
A nozzle assembly for a fire suppression system, comprising: a body having an inlet end; a nozzle portion extending from the body, the nozzle portion having: an interior cavity having an outlet end; a center body arranged within the interior cavity adjacent the outlet end; and a plurality of exit orifices are formed in an outer wall of the nozzle portion, in communication with the interior cavity; and at least one perforated filter member positioned upstream from the plurality of exit orifices formed in the nozzle portion; wherein the center body is positioned within the interior cavity of the nozzle portion characterized in that an internal cross-sectional area of the interior cavity taken at any location along a central axis X-X of the nozzle portion is equal to a total open area of the plurality of exit orifices arranged downstream from that location. a body having an inlet end; a nozzle portion extending from the body, the nozzle portion having: an interior cavity having an outlet end; a center body arranged within the interior cavity adjacent the outlet end; and a plurality of exit orifices are formed in an outer wall of the nozzle portion, in communication with the interior cavity; and an interior cavity having an outlet end; a center body arranged within the interior cavity adjacent the outlet end; and a plurality of exit orifices are formed in an outer wall of the nozzle portion, in communication with the interior cavity; and at least one perforated filter member positioned upstream from the plurality of exit orifices formed in the nozzle portion; wherein the center body is positioned within the interior cavity of the nozzle portion characterized in that an internal cross-sectional area of the interior cavity taken at any location along a central axis X-X of the nozzle portion is equal to a total open area of the plurality of exit orifices arranged downstream from that location.
A system for occlusion detection, comprising: a syringe pump (100, 200, 300) for a syringe containing a medication, wherein the syringe includes a plunger and said syringe pump (100 200, 300) includes a plunger driver (110, 210, 310); an element (120, 220, 320) within said plunger driver (110, 210, 310), said element (120, 220, 320) being selected from a group consisting of a bendable element and a pivotable sliding element; and a force sensor (130, 230, 330) integrally formed with said plunger driver (110, 210, 310), wherein upon occurrence of an occlusion, the plunger exerts a force backwardly against said element (120, 220, 320), thereby deflecting said element (120, 220, 320) into contact with said force sensor (130, 230, 330) to thereby generate a signal indicating the occurrence of the occlusion. a syringe pump (100, 200, 300) for a syringe containing a medication, wherein the syringe includes a plunger and said syringe pump (100 200, 300) includes a plunger driver (110, 210, 310); an element (120, 220, 320) within said plunger driver (110, 210, 310), said element (120, 220, 320) being selected from a group consisting of a bendable element and a pivotable sliding element; and a force sensor (130, 230, 330) integrally formed with said plunger driver (110, 210, 310), wherein upon occurrence of an occlusion, the plunger exerts a force backwardly against said element (120, 220, 320), thereby deflecting said element (120, 220, 320) into contact with said force sensor (130, 230, 330) to thereby generate a signal indicating the occurrence of the occlusion.
A signal processing method comprising steps of: S1, obtaining an image signal of an original image; and S2, enhancing the image signal of the original image so as to obtain an image signal of a final image having a pixel resolution no less than that of the original image, wherein, a pixel resolution of the original image is selected from a plurality of different pixel resolutions, wherein the step S2 comprises steps of: S21, by providing a plurality of image receiving ports (211, 212), dividing the original image into a plurality of parts, and receiving the plurality of parts of the original image respectively by the plurality of image receiving ports (211, 212), converting the image signal of each sub-image of the original image from an RGB signal into an intermediate YUV signal; S22, performing an edge enhancement on a Y signal of the intermediate YUV signal, adjusting any one of color levels, black and white levels, and hues of a U signal and a V signal of the intermediate YUV signal respectively, so as to obtain an enhanced intermediate YUV signal; and S23, converting the enhanced intermediate YUV signal into an intermediate RGB signal, combining those sub-images when the plurality of sub-images is output, so that the final image is displayed based on the intermediate RGB signal, wherein the step S21 comprises the step of: S21a, converting the image signal of each sub-image of the original image from the RGB signal into a YUV signal of each sub-image of the original image; characterized in that, the step S21 comprises the step of: S21b, scaling-up the YUV signal of each sub-image of the original image, so as to obtain the intermediate YUV signal. S1, obtaining an image signal of an original image; and S2, enhancing the image signal of the original image so as to obtain an image signal of a final image having a pixel resolution no less than that of the original image, S21, by providing a plurality of image receiving ports (211, 212), dividing the original image into a plurality of parts, and receiving the plurality of parts of the original image respectively by the plurality of image receiving ports (211, 212), converting the image signal of each sub-image of the original image from an RGB signal into an intermediate YUV signal; S22, performing an edge enhancement on a Y signal of the intermediate YUV signal, adjusting any one of color levels, black and white levels, and hues of a U signal and a V signal of the intermediate YUV signal respectively, so as to obtain an enhanced intermediate YUV signal; and S23, converting the enhanced intermediate YUV signal into an intermediate RGB signal, combining those sub-images when the plurality of sub-images is output, so that the final image is displayed based on the intermediate RGB signal,