mhurhangee/ep-ind-claims huggingface dataset:
A vibrating screen comprising: a base positioned in a lower part; a vibrating structure positioned in an upper part; a plurality of elastic elements interposed between the base and the vibrating structure for connecting them and allowing the vibrating structure to elastically oscillate relative to the base; and at least one vibrating unit mounted on the vibrating structure; wherein: the vibrating structure in turn comprises a supporting frame on which a plurality of screening elements is mounted, the screening elements being arranged on multiple levels one above another and vertically spaced, a screening element positioned at one level comprising screening openings having a size smaller than those of the screening elements positioned at higher levels; the supporting frame comprises two lateral walls and, for each lateral wall, at least one reinforcing structure applied to that lateral wall; and the lateral walls each comprising an inner main surface facing towards the other lateral wall and an outer main surface positioned on the opposite side to the inner main surface, the screening elements being positioned between the inner main surfaces; and characterized in that each reinforcing structure considered per se, is box-shaped, is hollow inside and comprises a wall applied to the outer main surface of the related lateral wall. a base positioned in a lower part; a vibrating structure positioned in an upper part; a plurality of elastic elements interposed between the base and the vibrating structure for connecting them and allowing the vibrating structure to elastically oscillate relative to the base; and at least one vibrating unit mounted on the vibrating structure; the vibrating structure in turn comprises a supporting frame on which a plurality of screening elements is mounted, the screening elements being arranged on multiple levels one above another and vertically spaced, a screening element positioned at one level comprising screening openings having a size smaller than those of the screening elements positioned at higher levels; the supporting frame comprises two lateral walls and, for each lateral wall, at least one reinforcing structure applied to that lateral wall; and the lateral walls each comprising an inner main surface facing towards the other lateral wall and an outer main surface positioned on the opposite side to the inner main surface, the screening elements being positioned between the inner main surfaces; and characterized in that each reinforcing structure considered per se, is box-shaped, is hollow inside and comprises a wall applied to the outer main surface of the related lateral wall.
A process for the realization of counter-mould elements for the containment of welding bead of plastic profiled elements, in which counter-mould elements have at least one main body adapted to receive in abutment at least one pair of profiled elements of plastic material welded together to obtain at least one frame for windows/doors, each profiled element comprising at least one welding surface weldable to the welding surface of another profiled element in a welding configuration in which the lateral faces of said profiled elements are substantially adjacent to one another and define a locator surface, said process comprising: - at least one phase of acquisition of the profile of at least one portion of said lateral faces; - at least one phase of definition of the profile of at least one contact surface of said main body adapted to receive in abutment said locator surface, the profile of said contact surface being substantially complementary to the profile of said locator surface; characterized by the fact that said process comprises at least one phase of three-dimensional molding obtained by means of at least one three-dimensional molding device to obtain said main body starting from the profile of said contact surface obtained in said phase of definition. - at least one phase of acquisition of the profile of at least one portion of said lateral faces; - at least one phase of definition of the profile of at least one contact surface of said main body adapted to receive in abutment said locator surface, the profile of said contact surface being substantially complementary to the profile of said locator surface;
An adsorbent comprising activated alumina and a salt of alkali metals, said adsorbent provided by a process comprising the steps of: activating aluminum hydrate to provide activated alumina powder; pelletizing the activated alumina powder with the salt to provide activated alumina pellets, wherein the salt constitutes from 0.5 to 10 wt % of the adsorbent comprising physically mixing the activated alumina powder and the salt with at least 0.4 liter of water per kg of solids; aging the activated alumina pellets to provide aged pellets comprising heating the activated alumina pellets at a temperature of up to 100°C and a relative humidity of up to 100% for up to 12 hours; and reactivating the aged pellets to provide the adsorbent, comprising heating the aged pellets to a temperature from 100 to 500°C wherein the process is conducted without adding an aqueous mixture of promoter solids to the activated alumina and the adsorbent has a surface area of at least 250 m 2 /g. activating aluminum hydrate to provide activated alumina powder; pelletizing the activated alumina powder with the salt to provide activated alumina pellets, wherein the salt constitutes from 0.5 to 10 wt % of the adsorbent comprising physically mixing the activated alumina powder and the salt with at least 0.4 liter of water per kg of solids; aging the activated alumina pellets to provide aged pellets comprising heating the activated alumina pellets at a temperature of up to 100°C and a relative humidity of up to 100% for up to 12 hours; and reactivating the aged pellets to provide the adsorbent, comprising heating the aged pellets to a temperature from 100 to 500°C wherein the process is conducted without adding an aqueous mixture of promoter solids to the activated alumina and the adsorbent has a surface area of at least 250 m 2 /g.
A dual inductor structure implemented within a semiconductor integrated circuit, the dual inductor structure comprising: a first inductor comprising a first plurality of coils; wherein each coil of the first plurality of coils is disposed within a different one of a plurality of conductive layers (105, 255-265), wherein the first plurality of coils is vertically stacked one directly beneath another and concentric to a vertical axis; a second inductor comprising a second plurality of coils, wherein each coil of the second plurality of coils is disposed within a different one of the plurality of conductive layers; wherein the second plurality of coils are vertically stacked one directly beneath another and concentric to the vertical axis; wherein the first plurality of coils of the first inductor are coupled in series with at least one via and the second plurality of coils of the second inductor are coupled in series with at least one via; wherein, within each conductive layer, a coil of the second plurality of coils is disposed within an inner perimeter of a coil of the first plurality of coils; and characterized in that a line-width of the first plurality of coils is greater than a line-width of the second plurality of coils. a first inductor comprising a first plurality of coils; wherein each coil of the first plurality of coils is disposed within a different one of a plurality of conductive layers (105, 255-265), wherein the first plurality of coils is vertically stacked one directly beneath another and concentric to a vertical axis; a second inductor comprising a second plurality of coils, wherein each coil of the second plurality of coils is disposed within a different one of the plurality of conductive layers; wherein the second plurality of coils are vertically stacked one directly beneath another and concentric to the vertical axis; wherein the first plurality of coils of the first inductor are coupled in series with at least one via and the second plurality of coils of the second inductor are coupled in series with at least one via; wherein, within each conductive layer, a coil of the second plurality of coils is disposed within an inner perimeter of a coil of the first plurality of coils; and characterized in that a line-width of the first plurality of coils is greater than a line-width of the second plurality of coils.
Mount assembly comprising a housing and a hydromount press-fitted therein, having a support spring supporting a support mount, having a fluid-filled working chamber and a compensation chamber which are separated by a partition wall and connected to one another via a damping channel, and having an outer ring to which the suspension spring is vulcanised, the outer ring having a first fastening section which is connected to the housing in a force-locking manner, characterised by an axial clearance area disposed in the axial direction between the hydromount and the housing for adjusting the screw-on position of the support mount, wherein the outer ring has a second fastening section connected to the housing in a force-locking manner and a waist section disposed between the first fastening section and the second fastening section.
A light emitting element comprising: a substrate; a reflection layer formed of a material containing Ag or Al, formed on the upper layer of the substrate; an enhanced reflection layer; and a fluorescent body layer formed on the upper layer of the enhanced reflection layer, characterized in that the light emitting element comprises a diffusion prevention layer formed of a layer at least part of which being crystallized, the diffusion prevention layer being formed in contact with a surface of the reflection layer on a side opposite to the substrate and that the enhanced reflection layer is formed in contact with a surface of the diffusion prevention layer on a side opposite to the substrate. a substrate; a reflection layer formed of a material containing Ag or Al, formed on the upper layer of the substrate; an enhanced reflection layer; and a fluorescent body layer formed on the upper layer of the enhanced reflection layer, the light emitting element comprises a diffusion prevention layer formed of a layer at least part of which being crystallized, the diffusion prevention layer being formed in contact with a surface of the reflection layer on a side opposite to the substrate and that the enhanced reflection layer is formed in contact with a surface of the diffusion prevention layer on a side opposite to the substrate.
A method performed by a wireless device configured with at least a first search-space set group, SSSG, and a second SSSG, the method comprising: receiving a first indication to transition from the first SSSG to the second SSSG; based on the first indication, starting a SSSG-switching timer; while monitoring a PDCCH according to the second SSSG, receiving a second indication to transition to PDCCH skipping for a duration; when the SSSG-switching timer expires before the duration ends, continuing PDCCH skipping until the duration ends. receiving a first indication to transition from the first SSSG to the second SSSG; based on the first indication, starting a SSSG-switching timer; while monitoring a PDCCH according to the second SSSG, receiving a second indication to transition to PDCCH skipping for a duration; when the SSSG-switching timer expires before the duration ends, continuing PDCCH skipping until the duration ends.
Vacuum pump comprising a pump housing (40; 140; 240; 340) having a first inlet (80; 180) and a second inlet (82; 182; 282; 382), and also a first (60; 160) and second (70; 170; 270; 370) pumping stage, wherein the vacuum pump is arranged in such a manner that gas passing through the first inlet enters the first pumping stage and such that gas passing through the second inlet and entering the second pumping stage is compressed firstly by the second and subsequently by the first pumping stage, characterized in that the second pumping stage (70; 170; 270; 370) comprises a Holweck pump stage and following it in the direction of gas flow is a turbo-molecular pumping stage (60; 165, 175).
Device for the optical inspection for defects of an object which is moved in the direction of transport, comprising an illumination device for illuminating the moving object, wherein the illumination device comprising several individually switchable illumination elements which are arranged in an illumination row aligned transverse to the direction of transport, with an optical imaging device to record images of the illuminated areas of the object and with a processing unit to control the illumination device and the optical imaging device and to analyze the recorded images for existence of defects, wherein the processing unit is configured to switch the individually switchable elements to bright field illumination or dark field illumination and to trigger the row of illumination elements according to a predefined illumination cycle in order to create different lighting patterns, wherein the processing unit is further configured to select the image rate of the imaging device in such a way that the imaging device records several images at a resolution range of the object which corresponds to the desired resolution in the direction of transport, and to combine at least two of the several images of the object recorded at the resolution range of the object and analyze them for existence of defects individually or in combination.
Valve assembly for an injection valve, comprising - a valve body including a central longitudinal axis, the valve body comprising a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially movable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, and - a guiding device being arranged in the cavity and being designed to guide the valve needle relative to the valve body, wherein the guiding device has a first guide element being fixedly coupled to the valve body and a second guide element being fixedly coupled to the valve needle, the first guide element comprising a magnetic material with a first magnetic field and the second guide element comprising a magnetic material with a second magnetic field, the second magnetic field being orientated in opposite direction to the first magnetic field and the first guide element and the second guide element are magnetized in radial direction. - a valve body including a central longitudinal axis, the valve body comprising a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially movable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, and - a guiding device being arranged in the cavity and being designed to guide the valve needle relative to the valve body,
An air or oxygen flow supply system between a supply source and nasal prongs (110, 111) applicable to a patient, comprising: a) a succession of flow ducts (D1,D2,D3) having different flow areas; b) there being junctions (100,120) between successive of said ducts; c) said flow areas defined by A1, A2 - - - An where n>2; d) flow areas decreasing at junctions (100,120), in the direction of said flow; e) an inlet tubular fitting defining one of said ducts sized and configured to directly endwise connect to a source of oxygen, or oxygen and air, said fitting defining an inlet flow passage area A1; f) a pair of tubular prongs (110, 111) defining another of said ducts operatively connected with said inlet fitting, and receivable in an infant's nostrils to deliver oxygen, or oxygen and air flow to the infant, said prongs (110, 111) each having flow passing area A3; g) wherein A1>>A3; h) two flexible elongated plastic tubes (108,109) operatively connected between said fitting and said prongs (110, 111), wherein said tubes (108,109) have elongated ribbing (125,126, 127) at their interiors to resist bending; i) the inlet tubular fitting having two tubular stems (106,107), the two stems (106,107) having bores (106a,107a) forming two flow outlets (106a, 107a) extending in parallel relation and aligned with the two tubular stems (106,107); the two elongated plastic tubes (108,109) being inserted into the two bores (106a,107a) of the stems (106,107); the inlet tubular fitting further having a flange merging with the stems (106,107) on one face of the flange, the said one duct being disposed on the other face of the flange, said duct being connected to the bores of the stems (106,107). a) a succession of flow ducts (D1,D2,D3) having different flow areas; b) there being junctions (100,120) between successive of said ducts; c) said flow areas defined by A1, A2 - - - An where n>2; d) flow areas decreasing at junctions (100,120), in the direction of said flow; e) an inlet tubular fitting defining one of said ducts sized and configured to directly endwise connect to a source of oxygen, or oxygen and air, said fitting defining an inlet flow passage area A1; f) a pair of tubular prongs (110, 111) defining another of said ducts operatively connected with said inlet fitting, and receivable in an infant's nostrils to deliver oxygen, or oxygen and air flow to the infant, said prongs (110, 111) each having flow passing area A3; g) wherein A1>>A3; h) two flexible elongated plastic tubes (108,109) operatively connected between said fitting and said prongs (110, 111), wherein said tubes (108,109) have elongated ribbing (125,126, 127) at their interiors to resist bending; i) the inlet tubular fitting having two tubular stems (106,107), the two stems (106,107) having bores (106a,107a) forming two flow outlets (106a, 107a) extending in parallel relation and aligned with the two tubular stems (106,107);
A sheet manufacturing apparatus comprising: a defibrating unit that defibrates a raw material containing a fiber in air; a mixing unit that mixes a defibrated material defibrated by the defibrating unit and a resin in air; a web forming unit that forms a web by accumulating the mixture mixed by the mixing unit on a moving body; a transporting unit that transports the web; a sheet forming unit that forms a sheet from the web; a setting unit that sets a thickness of the sheet; and a controller that controls a moving speed of the moving body and a transporting speed of the web transported by the transporting unit, in accordance with the thickness of the sheet set by the setting unit. a defibrating unit that defibrates a raw material containing a fiber in air; a mixing unit that mixes a defibrated material defibrated by the defibrating unit and a resin in air; a web forming unit that forms a web by accumulating the mixture mixed by the mixing unit on a moving body; a transporting unit that transports the web; a sheet forming unit that forms a sheet from the web; a setting unit that sets a thickness of the sheet; and a controller that controls a moving speed of the moving body and a transporting speed of the web transported by the transporting unit, in accordance with the thickness of the sheet set by the setting unit.
A method for three-dimensional imaging of a sample, said method comprising: receiving a plurality of interference patterns acquired using light-detecting elements for detecting incident light, wherein each interference pattern is formed by scattered light from the sample and non-scattered light from a light source (206; 306), wherein the interference patterns are acquired, when the sample is illuminated from different angles; performing digital holographic reconstruction based on the received interference patterns, wherein the digital holographic reconstruction applies an iterative algorithm to change a three-dimensional scattering potential of the sample, the algorithm comprising iteratively calculating a data fidelity term being a difference between the received interference patterns and predicted interference patterns based on the three-dimensional scattering potential; wherein the iterative algorithm reduces a sum of the data fidelity term and a non-differentiable regularization term and wherein the iterative algorithm includes a forward-backward splitting method alternating between forward gradient descent on the data fidelity term and backward gradient descent on the regularization term. receiving a plurality of interference patterns acquired using light-detecting elements for detecting incident light, wherein each interference pattern is formed by scattered light from the sample and non-scattered light from a light source (206; 306), wherein the interference patterns are acquired, when the sample is illuminated from different angles; performing digital holographic reconstruction based on the received interference patterns, wherein the digital holographic reconstruction applies an iterative algorithm to change a three-dimensional scattering potential of the sample, the algorithm comprising iteratively calculating a data fidelity term being a difference between the received interference patterns and predicted interference patterns based on the three-dimensional scattering potential; wherein the iterative algorithm reduces a sum of the data fidelity term and a non-differentiable regularization term and wherein the iterative algorithm includes a forward-backward splitting method alternating between forward gradient descent on the data fidelity term and backward gradient descent on the regularization term.