mhurhangee/patent-ind-claim-en huggingface dataset:
A deflecting system for deflecting a primary charged particle beam and for separating the primary charged particle beam from a secondary charged particle beam whose secondary charged particles are generated through interactions of the primary charged particle beam with a specimen , the deflecting system having an optical axis and comprising: - a first magnetic deflector (D1) for deflecting said primary charged particle beam by a first deflection angle (β 1 ) off a first direction that coincides with the optical axis of the deflecting system ; - a second magnetic deflector (D2) for deflecting the primary charged particle beam by a second deflection angle (β 2 ) into a second direction that is essentially equal to the first direction; - a third magnetic deflector (D3) for deflecting the primary charged particle beam by a third deflection angle (β 3 ); and - a fourth magnetic deflector (D4) for deflecting the primary charged particle beam by a fourth deflection angle (β 4 ), wherein the third magnetic deflector and the fourth magnetic deflector are positioned between the first magnetic deflector and the second magnetic deflector, wherein each of the first, second, third and fourth magnetic deflectors is formed of a pair of saddle-like deflecting coils (51a; 51b) having an opening angle between 121 degrees and 124 degrees and adapted to generate a magnetic dipole field and a magnetic hexapole field, wherein the pair of saddle-like deflecting coils of each of the first, second, third and fourth magnetic deflectors is arranged symmetric with respect to a first deflection plane so that the first, second, third and fourth magnetic deflectors deflect the primary charged particle beam within the first deflection plane. - a first magnetic deflector (D1) for deflecting said primary charged particle beam by a first deflection angle (β 1 ) off a first direction that coincides with the optical axis of the deflecting system ; - a second magnetic deflector (D2) for deflecting the primary charged particle beam by a second deflection angle (β 2 ) into a second direction that is essentially equal to the first direction; - a third magnetic deflector (D3) for deflecting the primary charged particle beam by a third deflection angle (β 3 ); and - a fourth magnetic deflector (D4) for deflecting the primary charged particle beam by a fourth deflection angle (β 4 ),
Alarm system element comprising a casing and an electronic board arranged inside the casing , said electronic board comprising a breaker switch provided with a control member , said casing comprising a base and a cover that can be detached from said base , the alarm system element further comprising an actuating element comprising a baseplate as well as an actuating rod acting on the control member , said base comprising a first fixing face , the alarm system element further comprising a first double-sided self-adhesive sticker with a first self-adhesive face and a second self-adhesive face, said first self-adhesive face being stuck to the first fixing face , characterized by a second double-sided self-adhesive sticker with a third self-adhesive face and a fourth self-adhesive face, the baseplate comprising a second fixing face to which the third self-adhesive face is stuck.
A method of controlling a touch screen device, the method comprising: displaying a user interface for obtaining an input of direction through a touch screen; obtaining a user's touch input of dragging from a reference point where a touch is started to a current touch point through the user interface ; and displaying an input direction indicator at a position farther away from the reference point than the current touch point on the user interface , in response to the user's touch input; characterized in that the input direction indicator indicates by its position with respect to the reference point an input direction from the reference point towards the current touch point ; and the input direction indicator is positioned outside an area indicating a maximum range of an input of direction that the user may perform. displaying a user interface for obtaining an input of direction through a touch screen; obtaining a user's touch input of dragging from a reference point where a touch is started to a current touch point through the user interface ; and displaying an input direction indicator at a position farther away from the reference point than the current touch point on the user interface , in response to the user's touch input;
Furniture composition, comprising a first workstation having a first work surface which can be adjusted in a vertical direction , a second workstation having a second work surface which can be adjusted in the vertical direction independently of the first work surface, and a height-adjustable partition which is arranged so as to extend in the vertical direction between the first workstation and the second workstation, characterized in that a first support element , by means of which the partition can be supported, is provided at the first work surface, and a second support element , by means of which the partition can be supported, is provided at the second work surface. a first workstation having a first work surface which can be adjusted in a vertical direction , a second workstation having a second work surface which can be adjusted in the vertical direction independently of the first work surface, and a height-adjustable partition which is arranged so as to extend in the vertical direction between the first workstation and the second workstation, characterized in that a first support element , by means of which the partition can be supported, is provided at the first work surface, and a second support element , by means of which the partition can be supported, is provided at the second work surface.
An apparatus for purifying fluid, the apparatus comprising: an ion removal section configured for removing at least part of raw fluid ions of the fluid to be purified, wherein the ion removal section is configured for bringing the fluid to be purified in interaction with a carrier fluid to thereby obtain a first fluid portion comprising the carrier fluid with raw fluid ions therein and a separate second fluid portion comprising the fluid to be purified and further impurities; a purifying section configured for purifying the fluid to be purified after removal of the raw fluid ions, wherein the purifying section comprises an osmosis unit configured for purifying the fluid to be purified, after removal of raw fluid ions, by osmosis; and a draw solution supply path configured for supplying at least part of the first fluid portion to the osmosis unit so that the raw fluid ion enriched first fluid portion serves as draw solution during osmosis. an ion removal section configured for removing at least part of raw fluid ions of the fluid to be purified, wherein the ion removal section is configured for bringing the fluid to be purified in interaction with a carrier fluid to thereby obtain a first fluid portion comprising the carrier fluid with raw fluid ions therein and a separate second fluid portion comprising the fluid to be purified and further impurities; a purifying section configured for purifying the fluid to be purified after removal of the raw fluid ions, wherein the purifying section comprises an osmosis unit configured for purifying the fluid to be purified, after removal of raw fluid ions, by osmosis; and a draw solution supply path configured for supplying at least part of the first fluid portion to the osmosis unit so that the raw fluid ion enriched first fluid portion serves as draw solution during osmosis.
A device for volumetrically measuring syringe fluid, the device comprising: a reference plate ; a flange adapter base attached at a first end of the reference plate for receiving a flange of a syringe (200A-200C; 200); a plunger adapter disposed adjacent to an electronics housing for receiving a plunger of the syringe (200A-200C; 200), the plunger adapter and the electronics housing both being configured to slidingly move along a length of the reference plate ; a displacement sensor disposed in the electronics housing and configured to measure a displacement of the plunger adapter in relation to the flange adapter base as the plunger adapter along with the housing are slid along the length of the reference plate ; and a displacement conversion mechanism disposed in the electronics housing and configured to convert the displacement measurement of the plunger adapter to a volumetric measurement in order to determine a volume of fluid the syringe (200A-200C; 200) has drawn in. a reference plate ; a flange adapter base attached at a first end of the reference plate for receiving a flange of a syringe (200A-200C; 200); a plunger adapter disposed adjacent to an electronics housing for receiving a plunger of the syringe (200A-200C; 200), the plunger adapter and the electronics housing both being configured to slidingly move along a length of the reference plate ; a displacement sensor disposed in the electronics housing and configured to measure a displacement of the plunger adapter in relation to the flange adapter base as the plunger adapter along with the housing are slid along the length of the reference plate ; and a displacement conversion mechanism disposed in the electronics housing and configured to convert the displacement measurement of the plunger adapter to a volumetric measurement in order to determine a volume of fluid the syringe (200A-200C; 200) has drawn in.
A mixing silo , comprising: a mixing chamber having a top and a bottom, and a mixing chamber outlet located at the bottom of the mixing chamber; an inlet hose connected to an inlet opening , located towards the top of the mixing chamber ; an outlet hose connected to an outlet opening , located towards the top of the mixing chamber at a point above the inlet hose and inlet opening; a sieve located towards the top of the mixing chamber , disposed above the inlet opening and below the outlet opening , to prevent contact between a particulate mixing material and the top of the mixing chamber and to allow dust there through; a pump system operably connected to the mixing chamber, to create a negative pressure region at the top of the mixing chamber and pull dust through the sieve and remove the sieved dust from the top of the mixing chamber via the outlet opening ; and an air manifold assembly , located in the mixing chamber towards the bottom, including an air pressure manifold comprising an air nozzle to introduce an air stream into the mixing chamber, and an air manifold cover configured to allow an air stream into the mixing chamber , to prevent contact between the particulate mixing material and the air pressure manifold , and to allow a particulate mixed product material to pass to the mixing chamber outlet. a mixing chamber having a top and a bottom, and a mixing chamber outlet located at the bottom of the mixing chamber; an inlet hose connected to an inlet opening , located towards the top of the mixing chamber ; an outlet hose connected to an outlet opening , located towards the top of the mixing chamber at a point above the inlet hose and inlet opening; a sieve located towards the top of the mixing chamber , disposed above the inlet opening and below the outlet opening , to prevent contact between a particulate mixing material and the top of the mixing chamber and to allow dust there through; a pump system operably connected to the mixing chamber, to create a negative pressure region at the top of the mixing chamber and pull dust through the sieve and remove the sieved dust from the top of the mixing chamber via the outlet opening ; and an air manifold assembly , located in the mixing chamber towards the bottom, including an air pressure manifold comprising an air nozzle to introduce an air stream into the mixing chamber, and an air manifold cover configured to allow an air stream into the mixing chamber , to prevent contact between the particulate mixing material and the air pressure manifold , and to allow a particulate mixed product material to pass to the mixing chamber outlet.
A breathable and electrically conductive cloth comprising a first plastic film that is electrically insulative, and that has an inner surface and an outer surface opposite to said inner surface ; an electrical circuit pattern layer that is formed on said inner surface of said first plastic film , and that is adapted to be electrically connected to an external electrical unit; and a yarn-based fabric that has a first surface and a second surface opposite to said first surface , and that defines a plurality of micropores extending through said first surface and said second surface , said first surface of said yarn-based fabric being bonded to said inner surface of said first plastic film and said electrical circuit pattern layer , characterized in that said first plastic film further has a plurality of first hollow protrusions , said electrical circuit pattern layer having a plurality of second hollow protrusions , each of said first hollow protrusions extending into a corresponding one of said micropores and forming a ventilating passage that extends through said outer surface of said first plastic film and said second surface of said yarn-based fabric , at least one of said first hollow protrusions extending into a corresponding one of said second hollow protrusions , each of said second hollow protrusions extending into a corresponding one of said micropores .
Vibration absorber assembly for a motor vehicle powertrain, having a vibration absorber and a powertrain element , wherein the vibration absorber has at least two vibration absorber supports , and wherein the vibration absorber is fastened to the powertrain element , and wherein exactly one vibration absorber support of the vibration absorber is fixedly established on the powertrain element , wherein exactly one vibration absorber support is screwed to the powertrain element , characterized in that the screw head of the screw of the threaded connection is welded to the powertrain element by way of the upper side.
An upright vacuum cleaner , comprising: a brushroll assembly comprising a brushroll casing and a brushroll disposed in the brushroll casing , the brushroll casing having a dust suction port and defining a brushroll air-suction channel communicated with the dust suction port; a motor assembly comprising a motor housing and a motor disposed in the motor housing , the motor housing having an air exhaust hole , a dirty air outlet and a clean air inlet , and defining a motor air-suction channel and a motor air-exhaust channel, the motor air-suction channel being communicated between the brushroll air-suction channel and the dirty air outlet ; and a body assembly comprising a body and a dirt cup mounted to the body , the dirt cup having a separating chamber communicated with the dirty air outlet and the clean air inlet respectively; characterized in that , the motor air-exhaust channel being communicated between the clean air inlet and the air exhaust hole . a brushroll assembly comprising a brushroll casing and a brushroll disposed in the brushroll casing , the brushroll casing having a dust suction port and defining a brushroll air-suction channel communicated with the dust suction port; a motor assembly comprising a motor housing and a motor disposed in the motor housing , the motor housing having an air exhaust hole , a dirty air outlet and a clean air inlet , and defining a motor air-suction channel and a motor air-exhaust channel, the motor air-suction channel being communicated between the brushroll air-suction channel and the dirty air outlet ; and a body assembly comprising a body and a dirt cup mounted to the body , the dirt cup having a separating chamber communicated with the dirty air outlet and the clean air inlet respectively; characterized in that , the motor air-exhaust channel being communicated between the clean air inlet and the air exhaust hole .
A high strength, high toughness, heat-cracking resistant bainite steel wheel for rail transportation, wherein the high strength, high toughness, heat-cracking resistant bainite steel wheel for rail transportation contains elements with the following weight percents: carbon C: 0.15-0.25%, silicon Si: 1.40-1.80%, manganese Mn: 1.40-2.00%, copper Cu: 0.20-0.80%, boron B: 0.0003-0.005%, nickel Ni: 0.10-0.60%, phosphorus P≤0.020%, and sulphur S≤0.020%, wherein the remaining is iron and residual elements, 1.50%≤Si+Ni≤3.00%, and 1.50%≤Mn+Ni+Cu≤3.00%. carbon C: 0.15-0.25%, silicon Si: 1.40-1.80%, manganese Mn: 1.40-2.00%, copper Cu: 0.20-0.80%, boron B: 0.0003-0.005%, nickel Ni: 0.10-0.60%, phosphorus P≤0.020%, and sulphur S≤0.020%, wherein the remaining is iron and residual elements, 1.50%≤Si+Ni≤3.00%, and 1.50%≤Mn+Ni+Cu≤3.00%.
A method of modifying a tinted interlayer in a laminated glazing and thereby reducing the opacity of same to a signal received or transmitted through the laminated glazing, the signal comprising one of visible light, ultra-violet light or infra-red light, the method comprising: i) laminating the interlayer between two glass plies to provide the laminated glazing; and ii) operably associating the laminated glazing with a signal-receiving and or -signal-transmitting device; characterised by the steps of: iii) illuminating a region of the interlayer with a laser, thereby to reduce the opacity of the interlayer to the signal in the region, compared to a surrounding non-illuminated region of the interlayer; and iv) mounting the signal-receiving device and/or signal-transmitting device in a position relative to the laminated glazing such that the signal passes through the illuminated region of the interlayer to, or from the signal receiving device, and/or signal-transmitting device, as the case may be. i) laminating the interlayer between two glass plies to provide the laminated glazing; and ii) operably associating the laminated glazing with a signal-receiving and or -signal-transmitting device; iii) illuminating a region of the interlayer with a laser, thereby to reduce the opacity of the interlayer to the signal in the region, compared to a surrounding non-illuminated region of the interlayer; and iv) mounting the signal-receiving device and/or signal-transmitting device in a position relative to the laminated glazing such that the signal passes through the illuminated region of the interlayer to, or from the signal receiving device, and/or signal-transmitting device, as the case may be.
A porous self-healing polymer matrix encapsulating an active macromolecule, wherein the active macromolecule comprises a peptide or a protein, the matrix comprising a biodegradable polymer and having pores and wherein: an ionic affinity trap is disposed within the pores; the ionic affinity trap comprises a metal ion, and the active macromolecule is covalently bound to a histidine tag. an ionic affinity trap is disposed within the pores; the ionic affinity trap comprises a metal ion, and the active macromolecule is covalently bound to a histidine tag.
An information transceiving method, wherein the method comprises: determining, by user equipment, a subframe length of a serving cell; determining, by the user equipment, a synchronization signal period of the serving cell based on the subframe length of the serving cell, wherein the determining, by the user equipment, a synchronization signal period of the serving cell based on the subframe length of the serving cell comprises: determining, by the user equipment based on the subframe length of the serving cell, a subframe length set corresponding to the subframe length of the serving cell; and determining, by the user equipment, the synchronization signal period of the serving cell based on a maximum subframe length in the subframe length set; and sending or receiving, by the user equipment, information in the serving cell based on the synchronization signal period and the subframe length. determining, by user equipment, a subframe length of a serving cell; determining, by the user equipment, a synchronization signal period of the serving cell based on the subframe length of the serving cell, wherein the determining, by the user equipment, a synchronization signal period of the serving cell based on the subframe length of the serving cell comprises: determining, by the user equipment based on the subframe length of the serving cell, a subframe length set corresponding to the subframe length of the serving cell; and determining, by the user equipment, the synchronization signal period of the serving cell based on a maximum subframe length in the subframe length set; and sending or receiving, by the user equipment, information in the serving cell based on the synchronization signal period and the subframe length. determining, by the user equipment based on the subframe length of the serving cell, a subframe length set corresponding to the subframe length of the serving cell; and determining, by the user equipment, the synchronization signal period of the serving cell based on a maximum subframe length in the subframe length set; and sending or receiving, by the user equipment, information in the serving cell based on the synchronization signal period and the subframe length.
Burner for an oven or grill, comprising: - a body having box-shaped configuration and defining inside a containment chamber of a combustible fluid; - said body having a first plate-shaped portion provided with a first perforated surface for the passage of said fluid towards the outside, and a second plate-shaped portion provided with a second surface opposite to the first surface , said plate-shaped portions being mutually coupled at the respective peripheral edges ; and - at least a support element of at least one accessory , said support element being associated with the box-shaped body to place the accessory at the first surface ; said support element being formed integrally with the respective plate-shaped portions ; each plate-shaped portion comprising a protrusion extending from the respective peripheral edge and defined by an area of the peripheral edge extending from the development of the edge itself and along a lying plane substantially parallel to said surfaces , the protrusion of the first portion being coupled to the protrusion of the second portion to define the support element ; characterized in that each protrusion has two tabs bent transversely to the planar development of the protrusion itself and presenting respective through holes for housing at least one respective accessory ; said protrusions of each portion are associated and in mutual contact; said tabs and said through holes of said protrusions being coincident with each other. - a body having box-shaped configuration and defining inside a containment chamber of a combustible fluid; - said body having a first plate-shaped portion provided with a first perforated surface for the passage of said fluid towards the outside, and a second plate-shaped portion provided with a second surface opposite to the first surface , said plate-shaped portions being mutually coupled at the respective peripheral edges ; and - at least a support element of at least one accessory , said support element being associated with the box-shaped body to place the accessory at the first surface ; said support element being formed integrally with the respective plate-shaped portions ; each plate-shaped portion comprising a protrusion extending from the respective peripheral edge and defined by an area of the peripheral edge extending from the development of the edge itself and along a lying plane substantially parallel to said surfaces , the protrusion of the first portion being coupled to the protrusion of the second portion to define the support element ; characterized in that each protrusion has two tabs bent transversely to the planar development of the protrusion itself and presenting respective through holes for housing at least one respective accessory ; said protrusions of each portion are associated and in mutual contact; said tabs and said through holes of said protrusions being coincident with each other.