mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging apparatus comprising: an objective lens , the objective lens having a back aperture; a telescope positioned to image incoming light onto the back aperture of the objective lens; a light redirector , located and configured to redirect light received from a light source into the telescope , the telescope being adapted to image the light redirector onto the back aperture of the objective lens , wherein the incoming light is incident off-center to the back aperture of the objective lens so that a sample is illuminated by an oblique sheet of light that emerges from the objective lens , and so that movement of the light redirector causes the oblique sheet of illumination light to sweep within the sample , wherein the objective lens is located and configured to collect light emitted from the illuminated portion of the sample and route the collected light back into the telescope towards the light redirector , wherein the light redirector is further configured to descan the collected light and direct the collected light towards a lens in a detection arm that forms a stationary oblique image plane that is always coaligned with the moving illuminated region of the sample volume, wherein the light redirector comprises a single planar scan mirror (SM), and wherein the scan mirror (SM) achieves both scanning and de-scanning, such that the stationary oblique image plane is formed; and a light detector positioned to capture images of the stationary oblique image plane . an objective lens , the objective lens having a back aperture; a telescope positioned to image incoming light onto the back aperture of the objective lens; a light redirector , located and configured to redirect light received from a light source into the telescope , the telescope being adapted to image the light redirector onto the back aperture of the objective lens , wherein the incoming light is incident off-center to the back aperture of the objective lens so that a sample is illuminated by an oblique sheet of light that emerges from the objective lens , and so that movement of the light redirector causes the oblique sheet of illumination light to sweep within the sample , wherein the objective lens is located and configured to collect light emitted from the illuminated portion of the sample and route the collected light back into the telescope towards the light redirector , wherein the light redirector is further configured to descan the collected light and direct the collected light towards a lens in a detection arm that forms a stationary oblique image plane that is always coaligned with the moving illuminated region of the sample volume, wherein the light redirector comprises a single planar scan mirror (SM), and wherein the scan mirror (SM) achieves both scanning and de-scanning, such that the stationary oblique image plane is formed; and a light detector positioned to capture images of the stationary oblique image plane .
A sizing agent for carbon fiber, comprising: a compound (A) having at least one epoxy group in the molecule, which is an ester between an epoxy compound having plural epoxy groups in the molecule and an unsaturated monobasic acid; a bifunctional type urethane acrylate oligomer (B) that gives a cured product having a tensile elongation of 40% or higher; and a polyurethane resin (C) that produces a dried coating film having a tensile elongation of from 350% to 900%, wherein the mass ratio of the contents of the compound (A) and the urethane acrylate oligomer (B) is from 1/3 to 2/1 as a ratio of urethane acrylate oligomer (B)/compound (A), the proportion of the total amount of the compound (A) and the urethane acrylate oligomer (B) in all of the sizing components is 20% by mass or more, and the proportion of the polyurethane resin (C) in all of the sizing components is from 5% by mass to 50% by mass, and wherein the tensile elongation of the cured product of the bifunctional type urethane acrylate oligomer (B) is measured according to JIS K7127 (specimen type 5) at a tensile rate of 300 mm/min, and the tensile elongation of the dried coating film of the polyurethane resin (C) is measured according to JIS K7127 at a tensile rate of 300 mm/min. a compound (A) having at least one epoxy group in the molecule, which is an ester between an epoxy compound having plural epoxy groups in the molecule and an unsaturated monobasic acid; a bifunctional type urethane acrylate oligomer (B) that gives a cured product having a tensile elongation of 40% or higher; and a polyurethane resin (C) that produces a dried coating film having a tensile elongation of from 350% to 900%, wherein the mass ratio of the contents of the compound (A) and the urethane acrylate oligomer (B) is from 1/3 to 2/1 as a ratio of urethane acrylate oligomer (B)/compound (A), the proportion of the total amount of the compound (A) and the urethane acrylate oligomer (B) in all of the sizing components is 20% by mass or more, and the proportion of the polyurethane resin (C) in all of the sizing components is from 5% by mass to 50% by mass, and wherein
Process to prepare ethyleneamines of the formula NH 2 -(C 2 H 4 -NH-) p H wherein p is at least 3, or derivatives thereof wherein one or more units -NH-C 2 H 4 -NH- may be present as a cyclic ethylene urea unit or piperazine unit or between two units -NH-C 2 H 4 -NH- a carbonyl moiety is present, by reacting an ethanolamine-functional compound OH-(C 2 H 4 -NH-) q H wherein q is at least 2, an amine-functional compound NH 2 -(C 2 H 4 -NH-) r H wherein r is at least 1 in the presence of a carbon oxide delivering agent, wherein the molar ratio of ethanolamine-functional compound to amine-functional compound is between 0.05:1 and 0.7:1 and the molar ratio of carbon oxide delivering agent to amine-functional compound is higher than the molar ratio of ethanolamine-functional compound to amine-functional compound, provided that the process is not the process of reacting 3 moles ethylenediamine (EDA) and 1 mole AEEA (aminoethylethanolamine) in the presence of 1.65 moles of urea at 280 deg C for 2 hours.
A printing apparatus , comprising: a medium supporting part configured to support a printing medium (M), a white ink printing part configured to discharge white ink from a nozzle onto the printing medium (M), a color ink printing part (B) configured to discharge color ink having a color different from white from a nozzle (N) onto the printing medium (M); and a control part configured to perform image printing in which an image (I) is printed onto the printing medium (M) by controlling discharge of the color ink from the color ink printing part on the basis of print data (Dp) representing the image (I) to be printed onto the printing medium (M) and performing flushing in which the color ink printing part (B) is caused to discharge the color ink, separately from the discharge of the color ink on the basis of the print data (Dp), in parallel with the image printing, wherein the control part controls a flushing print rate (F1, F2, F3, F4) indicating the area to which the color ink discharged in the flushing is adhered per unit area of the printing medium (M) characterised in that the control part controls the flushing print rate (F 1 , F 2 , F 3 , F 4 ) in accordance with a result of determining a white region (Id) to which only white ink is adhered and a color region (Is, Ib, Ic) to which the color ink is adhered in the printing medium (M) on the basis of the print data (Dp), and the flushing print rate (F1, F2, F3, F4) for the white region (Id) is lower than the flushing print rate (F1, F2, F3, F4) for the color region (Ia, Ib, Ic). a medium supporting part configured to support a printing medium (M), a white ink printing part configured to discharge white ink from a nozzle onto the printing medium (M), a color ink printing part (B) configured to discharge color ink having a color different from white from a nozzle (N) onto the printing medium (M); and a control part configured to perform image printing in which an image (I) is printed onto the printing medium (M) by controlling discharge of the color ink from the color ink printing part on the basis of print data (Dp) representing the image (I) to be printed onto the printing medium (M) and performing flushing in which the color ink printing part (B) is caused to discharge the color ink, separately from the discharge of the color ink on the basis of the print data (Dp), in parallel with the image printing, wherein the control part controls a flushing print rate (F1, F2, F3, F4) indicating the area to which the color ink discharged in the flushing is adhered per unit area of the printing medium (M) characterised in that the control part controls the flushing print rate (F 1 , F 2 , F 3 , F 4 ) in accordance with a result of determining a white region (Id) to which only white ink is adhered and a color region (Is, Ib, Ic) to which the color ink is adhered in the printing medium (M) on the basis of the print data (Dp), and the flushing print rate (F1, F2, F3, F4) for the white region (Id) is lower than the flushing print rate (F1, F2, F3, F4) for the color region (Ia, Ib, Ic).
A bone screw and insert system, comprising: a bone screw having a proximal end and a distal end , wherein the bone screw is cannulated between the proximal end and the distal end and comprises an opening at the distal end ; and an insert configured to be slidably received within the cannulation of the bone screw and comprising a protruding end to extend out of the opening ; wherein the insert is cannulated, the bone screw being characterised in that the insert comprises at least one side wall fenestration on the protruding end . a bone screw having a proximal end and a distal end , wherein the bone screw is cannulated between the proximal end and the distal end and comprises an opening at the distal end ; and an insert configured to be slidably received within the cannulation of the bone screw and comprising a protruding end to extend out of the opening ; wherein the insert is cannulated, the bone screw being characterised in that the insert comprises at least one side wall fenestration on the protruding end .
A method of operating a SAW sensor to detect an analyte in a liquid sample comprising: providing a SAW sensor with at least one functionalized detection lane in a handheld, portable assay and sensor system; maintaining the at least one functionalized detection lane of the SAW sensor dry until the sample is fluidicly disposed in the at least one detection lane ; fluidicly disposing the sample in the at least one functionalized detection lane ; removing fluid from the at least one functionalized detection lane to concentrate the sample in the at least one functionalized detection lane to increase the probability of a specific antibody-antigen interaction binding the analyte in the sample on the at least one functionalized detection lane ; washing the at least one functionalized detection lane so that substantially only the specific antigen-antibody interaction remains in the at least one functionalized detection lane ; removing fluid from the at least one functionalized detection lane again; and then measuring an amount of the analyte bound to the at least one functionalized detection lane . providing a SAW sensor with at least one functionalized detection lane in a handheld, portable assay and sensor system; maintaining the at least one functionalized detection lane of the SAW sensor dry until the sample is fluidicly disposed in the at least one detection lane ; fluidicly disposing the sample in the at least one functionalized detection lane ; removing fluid from the at least one functionalized detection lane to concentrate the sample in the at least one functionalized detection lane to increase the probability of a specific antibody-antigen interaction binding the analyte in the sample on the at least one functionalized detection lane ; washing the at least one functionalized detection lane so that substantially only the specific antigen-antibody interaction remains in the at least one functionalized detection lane ; removing fluid from the at least one functionalized detection lane again; and then measuring an amount of the analyte bound to the at least one functionalized detection lane .
A method of making a tile for a tiled article , the method comprising: forming prism elements on a surface of a substrate ; forming, by diamond cutting, a wall on the substrate , wherein the wall has a wall angle (Wθ) of 90°, and wherein the wall shares a first common edge with the surface ; and forming, by laser cutting, water jet cutting, waterjet-guided laser cutting, or wire electrical discharge cutting, a face on the substrate , wherein the wall shares a second common edge with the face ; wherein the first common edge is on an opposite side of the wall from the second common edge , wherein an angle (Fθ) between the face and the wall is less than 180° as measured through the substrate . forming prism elements on a surface of a substrate ; forming, by diamond cutting, a wall on the substrate , wherein the wall has a wall angle (Wθ) of 90°, and wherein the wall shares a first common edge with the surface ; and forming, by laser cutting, water jet cutting, waterjet-guided laser cutting, or wire electrical discharge cutting, a face on the substrate , wherein the wall shares a second common edge with the face ; wherein the first common edge is on an opposite side of the wall from the second common edge , wherein an angle (Fθ) between the face and the wall is less than 180° as measured through the substrate .
Device for acquiring at least one physiological measurement of a living body , the living body being a human body, including at least two directional antennas for a wireless connection with a user terminal , the device being intended to be in contact with the living body along a contact surface in a position of use, wherein each of the antennas of the device has a directivity that is defined by a respective radiation vector ( v R ) including an orientation of radiation and a sense of radiation, wherein each of the antennas is configured to radiate according to the orientation of radiation of its radiation vector, the sense of radiation being opposite a portion of the living body on which it is placed when the device is in the position of use, wherein the contact surface is capable of being located substantially underneath an axilla of the human body and of extending over a portion of skin of the trunk of the human body when the device is in the position of use, wherein a first directional antenna is located at a first end of the device and a second directional antenna is located at a second end of the device, opposite the first end of the device, wherein the at least two antennas have separate respective directivities, each antenna defining a radiation field, and wherein the device is capable of determining that the user terminal is located within the radiation field of one of the first and second antennas, and wherein only said antenna is activated.
A construction machine, comprising: a travel base ; and a revolving upperstructure that is turnably attached to the travel base and includes a working device in the front, a counterweight in the rear, and an engine room between the working device and the counterweight , wherein the engine room is totally covered by an exterior cover that includes an opening at the upper surface, and includes an engine , a radiator , a cooling fan , and a reserve tank in the inside of the engine room , the cooling fan sucking external air and cooling the radiator , the reserve tank storing cooling water of the engine , the construction machine is characterized in that : a flow of air inside the engine room is formed so that external air sucked into the engine room by the cooling fan is discharged from the opening , and the reserve tank is disposed at a position above the engine and facing the opening and a position on the upstream side of the flow of the air with respect to the opening . a travel base ; and a revolving upperstructure that is turnably attached to the travel base and includes a working device in the front, a counterweight in the rear, and an engine room between the working device and the counterweight , wherein the engine room is totally covered by an exterior cover that includes an opening at the upper surface, and includes an engine , a radiator , a cooling fan , and a reserve tank in the inside of the engine room , the cooling fan sucking external air and cooling the radiator , the reserve tank storing cooling water of the engine , the construction machine is characterized in that : a flow of air inside the engine room is formed so that external air sucked into the engine room by the cooling fan is discharged from the opening , and the reserve tank is disposed at a position above the engine and facing the opening and a position on the upstream side of the flow of the air with respect to the opening . a flow of air inside the engine room is formed so that external air sucked into the engine room by the cooling fan is discharged from the opening , and the reserve tank is disposed at a position above the engine and facing the opening and a position on the upstream side of the flow of the air with respect to the opening .
Apparatus for driving a fastening element into a base material, comprising a power unit and a driving element which is designed in particular as a piston and is driven by the power unit in a driving direction from a starting position into a setting position in order to drive a fastening element into the base material, furthermore comprising a braking element with a contact surface which defines the setting position of the driving element and against which the driving element lies in particular in the setting position, furthermore comprising a pressing element which has an end surface which can be pressed in the driving direction onto the base material, wherein, in the driving direction, the end surface and the contact surface are at a distance from each other which defines a driving depth of the fastening element into the base material, furthermore comprising an adjustment device with which the distance between the end surface and the contact surface can be adjusted, wherein the adjustment device comprises an adjusting element which is connected by means of a first threaded connection to the braking element and by means of a second threaded connection to the pressing element , and therefore rotation of the adjusting element firstly offsets the adjusting element relative to the braking element and secondly offsets the pressing element relative to the braking element , characterized in that rotation of the adjusting element offsets the adjusting element relative to the pressing element .
An aerosol generating system comprising a frusto-conically shaped heating element configured to generate the aerosol by evaporating a vaporizable material on a slanted surface of said conically shaped heating element , and a vaporizable material capsule configured to contain a vaporizable material , whereby the vaporizable material capsule comprises a frusto-conically shaped contacting element having a slanted surface configured to mate with the frusto-conically shaped heating element in use, wherein a diameter D1 of a smallest base surface of the frusto-conically shaped heating element is configured to be smaller than a diameter D2 of a smallest base surface of the frusto-conically shaped contacting element of the capsule such that a gap of a determined thickness TH is arranged between the respective slanted surfaces of the heater element and the capsule when the base surfaces of the frusto-conically shaped heating element and contacting element of the capsule are contacted to each other, and wherein an interfacing layer is arranged in said gap contacting the slanted surfaces of both the heating element and contacting element, the interfacing layer comprising a porous material configured to wick vaporizable material from the slanted surface of the contacting element to the slanted surface of the heating element . a frusto-conically shaped heating element configured to generate the aerosol by evaporating a vaporizable material on a slanted surface of said conically shaped heating element , and a vaporizable material capsule configured to contain a vaporizable material , whereby the vaporizable material capsule comprises a frusto-conically shaped contacting element having a slanted surface configured to mate with the frusto-conically shaped heating element in use, wherein a diameter D1 of a smallest base surface of the frusto-conically shaped heating element is configured to be smaller than a diameter D2 of a smallest base surface of the frusto-conically shaped contacting element of the capsule such that a gap of a determined thickness TH is arranged between the respective slanted surfaces of the heater element and the capsule when the base surfaces of the frusto-conically shaped heating element and contacting element of the capsule are contacted to each other, and wherein an interfacing layer is arranged in said gap contacting the slanted surfaces of both the heating element and contacting element, the interfacing layer comprising a porous material configured to wick vaporizable material from the slanted surface of the contacting element to the slanted surface of the heating element .
Acquisition device intended to be positioned on the head of a user in order to perform an encephalogram, the head of the user being defined in a transverse plane (Pt), a sagittal plane (Ps) and a frontal plane (Pf), the device comprising: - at least one acquisition electrode configured in order to be positioned in contact with the head of the user at at least any one of the positions of the international 10-20 system, so as to acquire at least one brain activity signal representative of the brain waves of the user ; - at least one first and one second means of adjusting the position of the acquisition electrode in a first and a second plane, respectively; in which the first and second planes are different and chosen from at least the transverse (Pt) and sagittal (Ps) planes of the head of the user , in which said first and second means of adjusting the position of the acquisition electrode are capable of being actuated independently of one another in which the acquisition device is in the form of a headset, the headset comprising an annular portion to tightly fit around the head of the user in the transverse plane (Pt) and an arched portion connected at ends to the annular portion in order to be able to rest the acquisition device on the head of the user , the acquisition electrode being mounted on the arched portion, in which the first and second means of adjusting the position of the acquisition electrode also enable to adapt the acquisition device to the head of the user along the sagittal (Ps) and transverse (Pt) planes, in which the headset is rigid so that the position of the acquisition electrode can only by modified by actuating one or several of the first and second means of adjusting. - at least one acquisition electrode configured in order to be positioned in contact with the head of the user at at least any one of the positions of the international 10-20 system, so as to acquire at least one brain activity signal representative of the brain waves of the user ; - at least one first and one second means of adjusting the position of the acquisition electrode in a first and a second plane, respectively;