mhurhangee/patent-ind-claim-en huggingface dataset:
An optical amplifying device (1A-1R) comprising: an optical amplifier (10A-10R) including an optical amplifying medium which optically amplifies light, and a transparent medium which the light passes a plurality of times through; an energy supplier which supplies excitation energy to the optical amplifying medium ; and an optical resonator (13 1 , 13 2 ) configured to resonate the light, wherein the optical amplifying medium and the transparent medium are on a resonant optical path of the optical resonator (13 1 , 13 2 ); characterised in that the transparent medium has a rectangular parallelepiped shape having four inner faces defining a rectangular cross section, the rectangular cross section further comprising one chamfered corner and another chamfered corner for receiving and emitting the light from the transparent medium, and each of the four inner faces of the transparent medium is configured to reflect the light a plurality of times by total internal reflection so that the resonant optical path of the light turns inside the transparent medium . an optical amplifier (10A-10R) including an optical amplifying medium which optically amplifies light, and a transparent medium which the light passes a plurality of times through; an energy supplier which supplies excitation energy to the optical amplifying medium ; and an optical resonator (13 1 , 13 2 ) configured to resonate the light, wherein the optical amplifying medium and the transparent medium are on a resonant optical path of the optical resonator (13 1 , 13 2 ); characterised in that the transparent medium has a rectangular parallelepiped shape having four inner faces defining a rectangular cross section, the rectangular cross section further comprising one chamfered corner and another chamfered corner for receiving and emitting the light from the transparent medium, and each of the four inner faces of the transparent medium is configured to reflect the light a plurality of times by total internal reflection so that the resonant optical path of the light turns inside the transparent medium .
An expanding plunger rod for a syringe , the expanding plunger rod configured to transition from a packaged configuration for packaging to an expanded configuration for operation, the expanding plunger rod comprising: a substantially cylindrical outer sleeve having a closed-off bottom end and an open upper end ; an inner sleeve having a lower end and an upper end , the inner sleeve being slidably disposed coaxially within the outer sleeve; and an inner rod having a lower end and an upper end , the inner rod being slidably disposed coaxially within the inner sleeve; wherein, in the packaged configuration, the inner rod is nested within the inner sleeve, the inner sleeve is nested within the outer sleeve, and the lower end of the inner rod is rested against the closed-off bottom end of the outer sleeve; and wherein, in the expanded configuration, the upper end of the inner sleeve and the lower end of the inner rod are disposed substantially axially above the open upper end of the outer sleeve, and the inner rod is configured to lock axially in place so as to prevent transition from the expanded configuration to the packaged configuration. a substantially cylindrical outer sleeve having a closed-off bottom end and an open upper end ; an inner sleeve having a lower end and an upper end , the inner sleeve being slidably disposed coaxially within the outer sleeve; and an inner rod having a lower end and an upper end , the inner rod being slidably disposed coaxially within the inner sleeve; wherein, in the packaged configuration, the inner rod is nested within the inner sleeve, the inner sleeve is nested within the outer sleeve, and the lower end of the inner rod is rested against the closed-off bottom end of the outer sleeve; and wherein, in the expanded configuration, the upper end of the inner sleeve and the lower end of the inner rod are disposed substantially axially above the open upper end of the outer sleeve, and the inner rod is configured to lock axially in place so as to prevent transition from the expanded configuration to the packaged configuration.
A dry formulation of a vaccine that comprises a live attenuated virus, 30% to 80% (w/w) of a non-reducing oligosaccharide, 5% to 40% (w/w) of an amino acid stabilizer, 2% to 20% (w/w) of a protein stabilizer, 2% to 25% (w/w) of a bulking stabilizer and a buffer having a pH of 6.0 to 8.0; wherein prior to being dried the vaccine had been treated by a process selected from the group consisting of applying it to a membrane, freezing it into beads, freezing it in vials, spray drying, and spray freeze drying.
A method for manufacture of a platform and elevation support arrangement ; wherein an elevation support is to be hingedly mounted to a platform around a first axis (X1) extending along a first direction (B1) via a hinge member arranged between the platform and the elevation support ; and wherein the elevation support is configured to be locked to the platform in a fixed position by means of an adjustable locking mechanism , wherein the elevation support is in a lowered and locked state to the platform, the adjustable locking mechanism comprising a first and a second opening (11', 11") arranged at a first distance (D1) from each other and comprising a first and second sliding shaft element (13', 13") arranged at a second distance (D2) from each other each configured to slide along a second direction (B2) perpendicular to the first axis (X1); the method comprises the steps of: - providing the platform , the elevation support and the adjustable locking mechanism ; - mounting the elevation support to the platform ; - adjusting the adjustable locking mechanism so that the first distance (D1) corresponds with the second distance (D2); and - locking the adjustable locking mechanism by sliding the first shaft element into the first opening and by sliding the second shaft element (13") into the second opening (11"); wherein - the step of adjusting the adjustable locking mechanism comprises moving the first opening or the first sliding shaft element in a third direction parallel or essentially parallel with the first direction (B1), wherein said moving of the first opening or the first sliding shaft element is performed by rotating a first eccentric housing comprising said first opening or the first sliding shaft element around an eccentric housing axis extending perpendicular to the first axis (X1), wherein the first eccentric housing is rotatably arranged in the elevation support or in the platform . - providing the platform , the elevation support and the adjustable locking mechanism ; - mounting the elevation support to the platform ; - adjusting the adjustable locking mechanism so that the first distance (D1) corresponds with the second distance (D2); and - locking the adjustable locking mechanism by sliding the first shaft element into the first opening and by sliding the second shaft element (13") into the second opening (11"); wherein - the step of adjusting the adjustable locking mechanism comprises moving the first opening or the first sliding shaft element in a third direction parallel or essentially parallel with the first direction (B1), wherein said moving of the first opening or the first sliding shaft element is performed by rotating a first eccentric housing comprising said first opening or the first sliding shaft element around an eccentric housing axis extending perpendicular to the first axis (X1), wherein the first eccentric housing is rotatably arranged in the elevation support or in the platform .
An apparatus for performing hip arthroplasty involving a femur having a femoral shaft , neck and head and an adjacent pelvis having an acetabulum formed thereon, the apparatus comprising: an elongate femoral broach for intramedullary insertion into the shaft , the broach comprising a superior lateromedial transverse bore ; and a reaming rod for locating through the transverse bore and femoral neck ; characterised in that the apparatus further comprises a cutting head for coupling to a distal end of the reaming rod via an incision; the cutting head being configured to be rotated using the reaming rod whilst the reaming rod is located through the transverse bore and femoral neck to ream the acetabulum . an elongate femoral broach for intramedullary insertion into the shaft , the broach comprising a superior lateromedial transverse bore ; and a reaming rod for locating through the transverse bore and femoral neck ; characterised in that the apparatus further comprises a cutting head for coupling to a distal end of the reaming rod via an incision; the cutting head being configured to be rotated using the reaming rod whilst the reaming rod is located through the transverse bore and femoral neck to ream the acetabulum .
A vehicular duct apparatus comprising: a first duct extending in a longitudinal direction and comprising a first airflow passage (Fp1); a second duct at least partly extending in the longitudinal direction along the first duct and comprising a second airflow passage (Fp2); and an airflow rate regulating door configured to turn to adjust passage areas of the first airflow passage (Fp1) and the second airflow passage (Fp2) to regulate airflow rates, the airflow rate regulating door comprising: a turning shaft extending in a direction perpendicular to the longitudinal direction of the first airflow passage (Fp1) and the second airflow passage (Fp2) and supported by the first duct and the second duct so as to be turnable; a first plate extending from the turning shaft and configured to adjust the passage area of the first airflow passage (Fp1); and a second plate extending from the turning shaft and configured to adjust the passage area of the second airflow passage (Fp2), the airflow rate regulating door being turnable between a first position (P1) to cause the first plate (52 52A) to minimize the passage area of the first airflow passage (Fp1) and a second position (P2) to cause the second plate to minimize the passage area of the second airflow passage (Fp2), wherein when the airflow rate regulating door is in the first position (P1), the first plate has at least one end in contact with an inner wall surface of the first duct , and the second plate has both ends apart from an inner wall surface of the second duct , and when the airflow rate regulating door is in the second position (P2), the first plate has both ends apart from the inner wall surface of the first duct , and the second plate has at least one end in contact with the inner wall surface of the second duct , characterized in that the second plate extends from the turning shaft at a same extending angle as the first plate so that the first plate and the second plate are oriented in the same direction relative to the turning shaft .
Machine tool comprising: - a substantially straight guide element extending along a first axis (A1) and comprising a first rack extending in a direction parallel to the first axis (A1); - two carriages arranged at a fixed distance (D) with respect to each other along the guide element and slidable together along the guide element , at least one of the two carriages comprising at least one motor (11; 12) fitted with a toothed wheel which engages with the first rack ; and - a slide interposed between the two carriages , carried by the two carriages and slidable in relation to the two carriages along a second axis (A2) perpendicular to the first axis (A1); wherein said carriages are independent and mechanically linked together solely by said slide ; wherein one of the two carriages comprises a first motor and the other of the two carriages comprises a second motor , the first and second motors being fitted with respective toothed wheels which mesh with the first rack and are configured to exert respective torques in opposite directions upon the respective toothed wheels ; and wherein the first and the second motor are configured to control, in a coordinated manner, the torques exerted upon the respective toothed wheels so as to modulate the stiffness of the connection between the carriages and the slide in a direction substantially parallel to the first axis (A1). - a substantially straight guide element extending along a first axis (A1) and comprising a first rack extending in a direction parallel to the first axis (A1); - two carriages arranged at a fixed distance (D) with respect to each other along the guide element and slidable together along the guide element , at least one of the two carriages comprising at least one motor (11; 12) fitted with a toothed wheel which engages with the first rack ; and - a slide interposed between the two carriages , carried by the two carriages and slidable in relation to the two carriages along a second axis (A2) perpendicular to the first axis (A1); wherein said carriages are independent and mechanically linked together solely by said slide ; wherein one of the two carriages comprises a first motor and the other of the two carriages comprises a second motor , the first and second motors being fitted with respective toothed wheels which mesh with the first rack and are configured to exert respective torques in opposite directions upon the respective toothed wheels ; and wherein the first and the second motor are configured to control, in a coordinated manner, the torques exerted upon the respective toothed wheels so as to modulate the stiffness of the connection between the carriages and the slide in a direction substantially parallel to the first axis (A1).
A light emitting diode, comprising: an n-type Group III nitride layer consisting of a silicon doped gallium nitride (GaN) layer; a superlattice structure comprising alternating layers of silicon doped GaN and/or InGaN; a Group III nitride light emitting diode active region on the superlattice structure , the light emitting diode active region including a multi-quantum well structure that includes multiple InGaN quantum well layers separated by barrier layers ; a Group III nitride capping layer on the light emitting diode active region opposite from the n-type Group III nitride layer , wherein the Group III nitride capping layer is an indium aluminium gallium nitride (InAlGaN) layer including a first capping layer having a composition of In x Al y Ga 1-x-y N, where 0<x≤0.2 and 0≤y≤0.4 and having a thickness of from 1 to 20 nm and a second capping layer having a composition of In w Al z Ga 1-w-z N, where 0<w≤0.2 and y≤z≤1 and having a thickness of from 1 to 12 nm; and a p-type Group III nitride layer consisting of a p-doped aluminum gallium nitride (AlGaN) layer on the Group III nitride capping layer and remote from the light emitting diode active region . an n-type Group III nitride layer consisting of a silicon doped gallium nitride (GaN) layer; a superlattice structure comprising alternating layers of silicon doped GaN and/or InGaN; a Group III nitride light emitting diode active region on the superlattice structure , the light emitting diode active region including a multi-quantum well structure that includes multiple InGaN quantum well layers separated by barrier layers ; a Group III nitride capping layer on the light emitting diode active region opposite from the n-type Group III nitride layer , wherein the Group III nitride capping layer is an indium aluminium gallium nitride (InAlGaN) layer including a first capping layer having a composition of In x Al y Ga 1-x-y N, where 0<x≤0.2 and 0≤y≤0.4 and having a thickness of from 1 to 20 nm and a second capping layer having a composition of In w Al z Ga 1-w-z N, where 0<w≤0.2 and y≤z≤1 and having a thickness of from 1 to 12 nm; and a p-type Group III nitride layer consisting of a p-doped aluminum gallium nitride (AlGaN) layer on the Group III nitride capping layer and remote from the light emitting diode active region .
An endoluminal biopsy tool , said tool comprising an outer tube , and an instrument provided in the outer tube , wherein the outer tube and the instrument are movable with respect to each other for taking the biopsy, wherein the instrument is an inner tube movably fitting inside the outer tube , wherein the inner tube has a wall that is provided with a cut out , characterized in that the outer tube is provided with a tongue extending from a distal portion of the outer tube , and further characterised in that the cut out in the wall of the inner tube is closable with the tongue . wherein the instrument is an inner tube movably fitting inside the outer tube , wherein the inner tube has a wall that is provided with a cut out , characterized in that the outer tube is provided with a tongue extending from a distal portion of the outer tube , and further characterised in that the cut out in the wall of the inner tube is closable with the tongue .
A circulation pump assembly with a wet-running, electrical drive motor and which comprises a pump casing as well as a motor housing which is connected to the pump casing , wherein the motor housing as a combined stator and electronics housing accommodates a stator of the drive motor as well as motor electronics , wherein the motor housing at a first axial end which faces the pump casing is closed by an air gap sleeve of the drive motor, at its second axial end which is away from the pump casing comprises an opening closed by a cover and in its interior in a region adjacent the first axial end is filled with a potting mass which surrounds the stator and the motor electronics ., characterised in that at least one electrical connection cable which extends outwards out of the motor housing and with one end is embedded in the potting mass such that the potting mass is engaged with the sheathing of the connection cable as a strain relief, wherein preferably the connection cable is led out of the potting mass in a direction towards the second axial end and extends outwards out of the motor housing transversely to this direction.
A pressure detection device comprising a mount whereon a pressure sensor is attached which comprises a membrane which has a surface intended to be subjected to a pressurized fluid and which is so arranged as to elastically deform according to pressure, and means for determining the deformation of the membrane along an axis normal to a mid-plane of the membrane at rest, characterized in that the membrane is supported by a frame connected to the mount by a mechanical decoupling structure in order to isolate the membrane from stress resulting from a differential thermal expansion between the frame and the mount , and in that the decoupling structure comprises a plate integral with the frame and elastically deformable arms extending between the plate and the mount so as to transform any differential thermal expansion between the mount and the plate into a resulting movement parallel to the mid-plane, with the plate , the membrane and the frame being made of the same material, with the arms having a curved portion, and with the curved portions being curved in the same direction so that the resulting movement is a rotation around the normal axis.
A recombinant chimeric antigen receptor (CAR) having impaired binding to an Fc receptor (FcR) comprising: an antigen recognition domain; a spacer domain comprising the amino acid sequence a transmembrane domain; an intracellular signaling domain, wherein the intracellular signaling domain is a T cell receptor (TCR) zeta chain signaling domain; and one or more costimulatory intracellular signaling domain derived from CD28, inducible costimulatory (ICOS), OX40, CD27, DAP10, 4-1BB, p561ck, or 2B4. an antigen recognition domain; a spacer domain comprising the amino acid sequence a transmembrane domain; an intracellular signaling domain, wherein the intracellular signaling domain is a T cell receptor (TCR) zeta chain signaling domain; and one or more costimulatory intracellular signaling domain derived from CD28, inducible costimulatory (ICOS), OX40, CD27, DAP10, 4-1BB, p561ck, or 2B4.
A process of conducting high throughput HPLC comprising: a) dropping containers of pre-weighed samples into plastic bottles; b) adding solution to each set of container and bottle via a bottle top dispenser; c) shaking each set of plastic bottle, container, and solution until sample is dissolved; d) centrifuging each set of plastic bottle, container, and solution; e) loading an aliquot of supernatant from the centrifuge step onto an HPLC column; and f) running the column with a mobile phase. a) dropping containers of pre-weighed samples into plastic bottles; b) adding solution to each set of container and bottle via a bottle top dispenser; c) shaking each set of plastic bottle, container, and solution until sample is dissolved; d) centrifuging each set of plastic bottle, container, and solution; e) loading an aliquot of supernatant from the centrifuge step onto an HPLC column; and f) running the column with a mobile phase.
A method for matching appearance of a target coating on a substrate, the method comprising: providing a coating chip comprising a chip coating layer having a neutral color and a chip coarseness: illuminating the chip coating layer with a light having an illumination color similar to the target color of the target coating, wherein the chip coating layer exhibits the chip coarseness and the illumination color in the presence of the light having the illumination color; and utilizing the chip coating layer exhibiting the chip coarseness and the illumination color for matching the appearance of the target coating. illuminating the chip coating layer with a light having an illumination color similar to the target color of the target coating, wherein the chip coating layer exhibits the chip coarseness and the illumination color in the presence of the light having the illumination color; and utilizing the chip coating layer exhibiting the chip coarseness and the illumination color for matching the appearance of the target coating.