mhurhangee/patent-ind-claim-en huggingface dataset:
Device with stable opening and snap closure designed to be applied to the mouth, and integrated in the material of bags or similar containers, wherein the device is made up of at least one shaped element (2, 2a, 2b, 2c, 2d,) in the form of an arch or a similar shape, and at least one other element, with a shape that is essentially straight and flexible whereby these elements are fit on pivots at their ends, made up of orthogonal extensions that prolong at least one of the two elements, characterized in that the shaped and the straight and flexible elements are located on different levels on substantially parallel planes, which are superimposed, which avoids them pressing directly on each other, in the closed position.
A cold appliance comprising a cooling module ; a cabinet comprising cabinet panels including two opposite pre-foamed side wall panels , a pre-foamed rear wall panel , a top part , and a bottom part ; and a door , wherein the cooling module comprises an air outlet delivering cooled air to a cold compartment of the cabinet, and an air inlet receiving air from the cold compartment, the cold appliance further comprises a rear wall lining , which is arranged at the inside of the pre-foamed rear wall panel, and which forms a space between the rear wall lining and the rear wall panel, characterized in that the rear wall lining comprises an inlet air duct connected with said air outlet , and an outlet air duct connected with said air inlet , which ducts are arranged in said space, the rear wall lining further comprises first air vent openings connected with said inlet air duct and with the cold compartment , and second vent openings connected with said outlet air duct and with the cold compartment and wherein the rear wall lining comprise a cable duct, which cable duct is arranged in said space, wherein the rear wall lining is removable.
A method of producing a fermented malt beverage, comprising cross-flow filtering a fermented liquid containing malt as a raw material, wherein the cross-flow filtration is performed through a monolithic ceramic membrane filter disposed apart from a flow path of the fermented liquid, including a slit having an opening in its side surface, and having a membrane pore size of 0.5 μm or less, and the fermented liquid contains silica gel having a drying loss of 10% or less, wherein the dry loss is measured according to ISO 787-2 : 1981 (JIS K 5101-15-1 : 2004). wherein the cross-flow filtration is performed through a monolithic ceramic membrane filter disposed apart from a flow path of the fermented liquid, including a slit having an opening in its side surface, and having a membrane pore size of 0.5 μm or less, and the fermented liquid contains silica gel having a drying loss of 10% or less, wherein the dry loss is measured according to ISO 787-2 : 1981 (JIS K 5101-15-1 : 2004).
A bearing assembly adapted for use with an x-ray tube, the assembly comprising: a) a shaft ; b) a sleeve rotatably disposed around the shaft , the sleeve including a seating portion forming an open end of the sleeve , wherein the seating portion comprises a joint flange , wherein the joint flange comprises at least one slot formed therein, wherein said at least one slot is oriented axially with regard to the sleeve and is formed to extend radially inwardly into the joint flange ; and c) a thrust seal seated at least partially within the seating portion , the thrust seal having a central aperture through which the shaft extends. a) a shaft ; b) a sleeve rotatably disposed around the shaft , the sleeve including a seating portion forming an open end of the sleeve , wherein the seating portion comprises a joint flange , wherein the joint flange comprises at least one slot formed therein, wherein said at least one slot is oriented axially with regard to the sleeve and is formed to extend radially inwardly into the joint flange ; and c) a thrust seal seated at least partially within the seating portion , the thrust seal having a central aperture through which the shaft extends.
A torque sensor comprising: a first rotating body capable of making axial rotation about an input axis; a second rotating body capable of making axial rotation about an output axis; a strain generation part provided between the first rotating body and the second rotating body, having a first surface facing one side in a first direction parallel to the input axis and a second surface facing the other side in the first direction, and configured to transfer rotation torque while generating a strain between the first rotating body and the second rotating body; and a plurality of strain detection parts provided on the first surface and the second surface, respectively, to detect a strain of the strain generation part. a first rotating body capable of making axial rotation about an input axis; a second rotating body capable of making axial rotation about an output axis; a strain generation part provided between the first rotating body and the second rotating body, having a first surface facing one side in a first direction parallel to the input axis and a second surface facing the other side in the first direction, and configured to transfer rotation torque while generating a strain between the first rotating body and the second rotating body; and a plurality of strain detection parts provided on the first surface and the second surface, respectively, to detect a strain of the strain generation part.
Conveyor apparatus for a press installation, the press installation comprising at least a first station and a second station arranged downstream of the first station in a forward movement direction (A) and the conveyor apparatus being configured for conveying at least one workpiece from the first station to the second station , said conveyor apparatus comprising a support , a crossbar that comprises a longitudinal axis and that is attached to the support , and at least a first tool and a second tool attached to the crossbar and comprising a respective longitudinal axis, each tool comprising a plurality of suction cups for holding the workpiece to be conveyed and the crossbar being suitable for moving at least in the forward movement direction (A) between the first station and the second station for conveying the workpiece between said stations , the crossbar being supported only by the support and being attached to the support such that said crossbar comprises a first segment on one side of the support and a second segment on the other side of said support , the first tool being attached to the first segment of the crossbar and the second tool being attached to the second segment of the crossbar , characterized in that the conveyor apparatus further comprises at least one compensation block attached to at least one element of the conveyor apparatus selected from the crossbar , the first tool , and the second tool , said compensation block comprising a configuration which passively and at least partially compensates for the vibrations generated at least in the element to which it is attached during the movement of the crossbar , the compensation block being fixed to the corresponding element of the conveyor apparatus by means of a structure , said compensation block comprising, in addition to the structure , a floating mass , at least one damper associated with the structure and with the floating mass , and at least one elastic element fixed to the floating mass and to the structure .
A sandwich white adipose tissue (SWAT) cell culture system for culturing white adipose tissue, comprising: a first surface configured to culture a first layer of supporting cells; and a second surface configured to culture a second layer of supporting cells, wherein the first layer of supporting cells is formed on a portion of the first surface and the second layer of supporting cells is formed on a portion of the second surface, wherein the white adipose tissue is added to the first layer of supporting cells, and the second layer of supporting cells is placed on the first layer of supporting cells such that the white adipose tissue is sandwiched between the first layer of supporting cells and the second layer of supporting cells, and wherein at least one of the first and second layers of supporting cells include adipose tissue-derived stem cells, muscle cells, pluripotent cells including embryonic stem cells, multipotent cells including adipose derived stem cells, neuronal stem cells, muscle stem cells, stromal cells including fibroblasts, pericytes, or 3T3-L1. a first surface configured to culture a first layer of supporting cells; and a second surface configured to culture a second layer of supporting cells, wherein the first layer of supporting cells is formed on a portion of the first surface and the second layer of supporting cells is formed on a portion of the second surface, wherein the white adipose tissue is added to the first layer of supporting cells, and the second layer of supporting cells is placed on the first layer of supporting cells such that the white adipose tissue is sandwiched between the first layer of supporting cells and the second layer of supporting cells, and wherein at least one of the first and second layers of supporting cells include adipose tissue-derived stem cells, muscle cells, pluripotent cells including embryonic stem cells, multipotent cells including adipose derived stem cells, neuronal stem cells, muscle stem cells, stromal cells including fibroblasts, pericytes, or 3T3-L1.
Vehicle tyre having a tread with profile blocks , a carcass ply, a tyre belt , a tyre inner side and sidewalls, wherein a tyre sensor for measuring a profile depth is arranged in the vehicle tyre, a tyre sensor in the form of an ultrasonic device is arranged on the tyre inner side opposite the tread , wherein a multiplicity of ultrasonic waves are sent in the direction of the profile blocks of the tread by the ultrasonic device , wherein the profile depth of the vehicle tyre is determined by way of a transit time measurement of the reflected ultrasonic waves at the boundary surface between the ambient air and the surface of the profile blocks , characterized in that the ultrasonic device comprises an ultrasonic transmitter, wherein the ultrasonic transmitter sends short wave packets with 5 to 10 oscillations. wherein a tyre sensor for measuring a profile depth is arranged in the vehicle tyre, a tyre sensor in the form of an ultrasonic device is arranged on the tyre inner side opposite the tread , wherein a multiplicity of ultrasonic waves are sent in the direction of the profile blocks of the tread by the ultrasonic device , wherein the profile depth of the vehicle tyre is determined by way of a transit time measurement of the reflected ultrasonic waves at the boundary surface between the ambient air and the surface of the profile blocks , characterized in that the ultrasonic device comprises an ultrasonic transmitter, wherein the ultrasonic transmitter sends short wave packets with 5 to 10 oscillations.
A drawer, in particular a warming drawer with the household furniture and/or household apparatus such as an oven and similar, comprising a container for goods to be stored in the drawer, and a front panel which closes the container, said container consisting of a 1 bottom , side walls and a back wall , wherein at the side facing the interior of the drawer a carrier plate rests with a surface thereof against and 1 is attached to the front panel , wherein a casing is arranged on the carrier plate at the side averted from the front panel , characterized in that the front panel is made of glass or wood, in that said carrier plate : is formed at the side averted from the bottom with a fold which is spaced from the front panel , thus, creating a gap between the front panel and the carrier plate , said gap cooperating with the casing , wherein said casing is formed at the side averted from a bottom with a top wall which at the side facing the carrier plate comprises a holding fold extending approximately in parallel with the carrier plate , said holding fold being configured to cooperate with said gap and wherein the top wall of the casing is formed with a cut-out being configured to receive a display, a control unit and a regulation electronic unit.
A catheter assembly for insertion into the vasculature comprising: an expandable structure having an outer surface; a non-durable coating of a polymer matrix comprising one or more amphiphilic polymers or co-polymers disposed on the outer surface of the expandable structure; and a therapeutic agent dispersed throughout the polymer matrix, wherein the coating has a thickness from 0.01 μm to 10 μm; and wherein the dried coating has a therapeutic agent density of from 0.1 μg/mm 2 to 1.5 μg/mm 2 at nominal inflation pressure of the expandable structure. an expandable structure having an outer surface; a non-durable coating of a polymer matrix comprising one or more amphiphilic polymers or co-polymers disposed on the outer surface of the expandable structure; and a therapeutic agent dispersed throughout the polymer matrix, wherein the coating has a thickness from 0.01 μm to 10 μm; and wherein the dried coating has a therapeutic agent density of from 0.1 μg/mm 2 to 1.5 μg/mm 2 at nominal inflation pressure of the expandable structure.
An intraoral scanning system comprising: a hand-held wand having at least one camera image sensor and a plurality of light sources , wherein the light sources are configured to emit light at a first spectral range and a second spectral range, wherein the second spectral range is within near-infrared (near-IR) range of wavelengths; and one or more processors operably connected to the hand-held wand, the one or more processors configured to: capture and store three-dimensional surface model data from the at least one camera image sensor while the hand-held wand is emitting light in the first spectral range corresponding to visible light; capture and store penetrative scan data from the at least one camera image sensor while the hand-held wand is emitting light in the second spectral range comprising near-IR; capture and display color visible light viewfinder image data from the at least one camera image sensor while the hand-held wand is emitting color visible light; display in real time the three-dimensional surface model data; display in real time the color visible light viewfinder image data; display one or more penetrative images from the near-IR data. a hand-held wand having at least one camera image sensor and a plurality of light sources , wherein the light sources are configured to emit light at a first spectral range and a second spectral range, wherein the second spectral range is within near-infrared (near-IR) range of wavelengths; and one or more processors operably connected to the hand-held wand, the one or more processors configured to: capture and store three-dimensional surface model data from the at least one camera image sensor while the hand-held wand is emitting light in the first spectral range corresponding to visible light; capture and store penetrative scan data from the at least one camera image sensor while the hand-held wand is emitting light in the second spectral range comprising near-IR; capture and display color visible light viewfinder image data from the at least one camera image sensor while the hand-held wand is emitting color visible light; display in real time the three-dimensional surface model data; display in real time the color visible light viewfinder image data; display one or more penetrative images from the near-IR data.
Canopy system having a motor-drivable canopy (UD) and a base (U) on which the motor-drivable canopy (UD) is arranged, - in which the motor-drivable canopy (UD) has a first element (E1) and a final element (EL), wherein the first element (E1) can be arranged in a fixed position on the base (U) and the final element (EL) is configured to be movable with respect to the first element (E1) along a predetermined line (L) between a starting position (P1) and an end position (P2), - in which the final element (EL) has at least one first motor unit (M1) and at least one second motor unit (M2) having a respective wheel unit (R1, R2), - in which the canopy (UD) has a control unit (CTRL) for controlling the two motor units (M1, M2), wherein the final element (EL) on its side (US) facing the base (U) has two sensor strips (SL) which are arranged transversely with respect to the predetermined line (L) and having in each case a plurality of sensors (S), characterized in that the base (U) has a plurality of sensor counterparts (SG), which are arranged at equal distances (d) from one another, along the predetermined line (L), and in that the two sensor strips (SL) are arranged at the same distance (d) from each other as the sensor counterparts (SG). - in which the motor-drivable canopy (UD) has a first element (E1) and a final element (EL), wherein the first element (E1) can be arranged in a fixed position on the base (U) and the final element (EL) is configured to be movable with respect to the first element (E1) along a predetermined line (L) between a starting position (P1) and an end position (P2), - in which the final element (EL) has at least one first motor unit (M1) and at least one second motor unit (M2) having a respective wheel unit (R1, R2), - in which the canopy (UD) has a control unit (CTRL) for controlling the two motor units (M1, M2),
A method, comprising: advancing a first radiopaque marker and a second radiopaque marker along a simulated vasculature to a simulated heart , the heart having a simulated valve disposed between a simulated atrium and a simulated ventricle ; placing the first radiopaque marker against a first simulated tissue site in the ventricle ; placing the second radiopaque marker at a second simulated tissue site at or proximate the valve ; measuring a distance (d1) between the first radiopaque marker at the first tissue site, and the second radiopaque marker at the second tissue site; and responsively to the measured distance (d1), determining a tether-length or a chord-length. advancing a first radiopaque marker and a second radiopaque marker along a simulated vasculature to a simulated heart , the heart having a simulated valve disposed between a simulated atrium and a simulated ventricle ; placing the first radiopaque marker against a first simulated tissue site in the ventricle ; placing the second radiopaque marker at a second simulated tissue site at or proximate the valve ; measuring a distance (d1) between the first radiopaque marker at the first tissue site, and the second radiopaque marker at the second tissue site; and responsively to the measured distance (d1), determining a tether-length or a chord-length.
A method for mounting functional elements in a lens comprising the steps of: - mounting the functional elements on a foil and affix it there, - applying a closed contour alignment surface of an alignment tool having a central opening surrounded by the closed contour on a foil portion opposite to the mounted function elements , - applying underpressure on the central opening to maintain the foil portion with the mounted functional elements on the alignment tool , - cutting a hole in the foil portion with the functional elements or cutting a flap comprising the foil portion and the functional elements out of the foil, respectively, - positioning and aligning the functional elements on the cut-out foil portion or the flap with the functional elements through actuators , respectively, - fixing the position of the cut-out foil portion with the functional elements or the position of the flap against the adjacent foil surface, - embedding the foil with the mounted functional elements in a predetermined distance to the front surface of a casting mould, and - casting and curing the lens with the embedded foil. - mounting the functional elements on a foil and affix it there, - applying a closed contour alignment surface of an alignment tool having a central opening surrounded by the closed contour on a foil portion opposite to the mounted function elements , - applying underpressure on the central opening to maintain the foil portion with the mounted functional elements on the alignment tool , - cutting a hole in the foil portion with the functional elements or cutting a flap comprising the foil portion and the functional elements out of the foil, respectively, - positioning and aligning the functional elements on the cut-out foil portion or the flap with the functional elements through actuators , respectively, - fixing the position of the cut-out foil portion with the functional elements or the position of the flap against the adjacent foil surface, - embedding the foil with the mounted functional elements in a predetermined distance to the front surface of a casting mould, and - casting and curing the lens with the embedded foil.
A deep ultraviolet LED with chirped superlattice final barrier structure, comprising a sapphire substrate , an AIN intrinsic layer , an N-type AlGaN layer , a current spreading layer , a quantum well active layer , a chirped superlattice final barrier layer , an electron blocking layer , a P-type AlGaN injection layer and a P-type GaN contact layer ; wherein the AIN intrinsic layer , the N-type AlGaN layer , the current spreading layer , the quantum well active layer , the chirped superlattice final barrier layer , the electron blocking layer , the P-type AlGaN injection layer and the P-type GaN contact layer have been sequentially deposited on the sapphire substrate ; the chirped superlattice final barrier layer is a superlattice structure that is chirped in thickness and is composed of several Al a Ga 1-a N layers and several Al b Ga 1-b N layers alternately disposed; wherein the chirped superlattice final barrier layer is composed of n periods of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer, and n ≥2; in the period of n i = 1, the thickness of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer are x and y respectively; in the direction from the quantum well active layer to the electron blocking layer , and in the n periods of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer, the thickness of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer are x ± (n i -1)*t and y ± (n i -1)*t respectively, and 0.1 nm≤t≤10 nm, n i runs from 1 to n; wherein the Al a Ga 1-a N layer is a single layer structure of a single Al a Ga 1-a N composition, and the Al b Ga 1-b N layer is a single layer structure of a single Al b Ga 1-b N composition, and 0.4<a<b<1. the chirped superlattice final barrier layer is a superlattice structure that is chirped in thickness and is composed of several Al a Ga 1-a N layers and several Al b Ga 1-b N layers alternately disposed; wherein the chirped superlattice final barrier layer is composed of n periods of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer, and n ≥2; in the period of n i = 1, the thickness of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer are x and y respectively; in the direction from the quantum well active layer to the electron blocking layer , and in the n periods of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer, the thickness of the Al a Ga 1-a N layer and the Al b Ga 1-b N layer are x ± (n i -1)*t and y ± (n i -1)*t respectively, and 0.1 nm≤t≤10 nm, n i runs from 1 to n;