mhurhangee/ep-ind-claims huggingface dataset:
A surgical system for implanting a spinal plate having a shape, size and depth, comprising: a surgical device configured to be manipulated by a user to perform an implantation procedure on a patient, the surgical device including at least a feedback mechanism; a surgical tool coupled to the surgical device; and a computer system, characterized in that the computer system is programmed to associate at least one virtual object with desired cavities (24a,24b) to be sculpted in a first vertebrae and an adjacent second vertebrae of the patient's spine to enable the surgical device to provide a limit on user manipulation of the surgical tool, based on a relationship between a position of the surgical tool and the desired sculpted cavity; wherein the feedback mechanism is configured to supply feedback to the user manipulating the surgical device, and the computer system is further programmed to control the feedback device to provide the limit on user manipulation, based on a relationship between a position of the surgical tool and the desired sculpted cavity; and wherein the virtual object is associated with the desired cavities (24a,24b) that are sized and configured, and have a depth that is greater than or equal to the thickness of the spinal plate, to receive the spinal plate therein, according to a planned placement of the spinal plate to achieve a desired relationship between two adjacent vertebrae. a surgical device configured to be manipulated by a user to perform an implantation procedure on a patient, the surgical device including at least a feedback mechanism; a surgical tool coupled to the surgical device; and a computer system, characterized in that the computer system is programmed to associate at least one virtual object with desired cavities (24a,24b) to be sculpted in a first vertebrae and an adjacent second vertebrae of the patient's spine to enable the surgical device to provide a limit on user manipulation of the surgical tool, based on a relationship between a position of the surgical tool and the desired sculpted cavity; wherein the feedback mechanism is configured to supply feedback to the user manipulating the surgical device, and the computer system is further programmed to control the feedback device to provide the limit on user manipulation, based on a relationship between a position of the surgical tool and the desired sculpted cavity; and wherein the virtual object is associated with the desired cavities (24a,24b) that are sized and configured, and have a depth that is greater than or equal to the thickness of the spinal plate, to receive the spinal plate therein, according to a planned placement of the spinal plate to achieve a desired relationship between two adjacent vertebrae.
A patient transport device comprising: an air mover; a multi-layered body having a first side, a second side, a first end and a second end, wherein the multi-layered body comprises: a first layer that is permeable to fluids; a second layer comprising a spacer material, wherein the air mover is in fluid communication with the second layer; a third layer comprising a fluid-absorbent material; and a fourth layer having a tensile strength sufficient support the weight of a patient being lifted by the patient transport device; and a plurality of coupling members coupled to the multi-layered body. an air mover; a multi-layered body having a first side, a second side, a first end and a second end, wherein the multi-layered body comprises: a first layer that is permeable to fluids; a second layer comprising a spacer material, wherein the air mover is in fluid communication with the second layer; a third layer comprising a fluid-absorbent material; and a fourth layer having a tensile strength sufficient support the weight of a patient being lifted by the patient transport device; and a plurality of coupling members coupled to the multi-layered body. a first layer that is permeable to fluids; a second layer comprising a spacer material, wherein the air mover is in fluid communication with the second layer; a third layer comprising a fluid-absorbent material; and a fourth layer having a tensile strength sufficient support the weight of a patient being lifted by the patient transport device; and a plurality of coupling members coupled to the multi-layered body.
A porous nanofiber filtration medium having a Brevundimonas diminuta LRV greater than 9 as measured in accordance with ASTM F838-83 such that it is capable of fully retaining Brevundimonas diminuta removed from a liquid sample passing through the filtration medium, wherein the filtration medium is an electrospun polymeric fibrous mat comprising: a nanofiber containing substrate wherein the nanofibers are electrospun nylon nanofibers that have an average fiber diameter from 10 nm to 1,000 nm as measured by scanning electron microscopy and the substrate has: i) a porosity ranging from 80% to 95% as calculated by dividing the basis weight of the sample in g/m 2 by the polymer density in g/cm 3, by the sample thickness in micrometers, multiplying by 100, and subtracting the resulting number from 100, and ii) a liquid permeability greater than 6900 LMH/KPa (1000 LMH/psi) as measured by forcing deionized water through filter medium samples having a diameter of 35mm using hydraulic pressure or pneumatic pressure, iii) a mean flow bubble point, as tested with isopropanol, in the range from 6.9 KPa to 690 KPa (1 psi to 100 psi) as measured according to ASTM E1294-89 using the automated bubble point method from ASTM F316, the fibrous mat having a basis weight of between 5 g/m 2 and 15 g/m 2, as measured on a dry basis. i) a porosity ranging from 80% to 95% as calculated by dividing the basis weight of the sample in g/m 2 by the polymer density in g/cm 3, by the sample thickness in micrometers, multiplying by 100, and subtracting the resulting number from 100, and ii) a liquid permeability greater than 6900 LMH/KPa (1000 LMH/psi) as measured by forcing deionized water through filter medium samples having a diameter of 35mm using hydraulic pressure or pneumatic pressure, iii) a mean flow bubble point, as tested with isopropanol, in the range from 6.9 KPa to 690 KPa (1 psi to 100 psi) as measured according to ASTM E1294-89 using the automated bubble point method from ASTM F316,
Switched-mode power supply for converting an input voltage (U e) to an output voltage (U a), which can be operated selectively in boost or buck operation and comprises at least one inductance, which is connected between an input-side power connection and an output-side power connection, and a plurality of switches (a-d), by way of which the inductance can be selectively connected to a power potential (3, 5) or a reference potential (4, 6), wherein the first switch (a) connects the inductance to the power potential at the input-side power connection and the second switch (b) connects the inductance to the reference potential and a third (c) and fourth switch (d) are present on the output side, wherein two charge-reversal capacitors (C 3) and (C 4), respectively, are provided, which are connected on the input side and the output side, respectively, in parallel with the second and third switch (b, c), respectively, and serve to raise the potential applied to the terminals (7, 8) of the inductance (7, 8) to the input voltage U e or the output voltage U a, respectively, or serve to reduce the potential to the reference potential and at least one of the switches (a-d) is switched only when it is substantially free of voltage, wherein the switches (a-d) are actuated accordingly by a voltage regulator.
An exhaust gas purification system comprising: a NOx storage-reduction catalyst that is provided on an exhaust passageway of an internal combustion engine to reduce and purify a nitrogen compound in exhaust gas; deterioration degree estimation means for estimating a degree of deterioration of the NOx storage-reduction catalyst; regeneration control means for executing a regeneration process in which the exhaust gas is enriched so as to restore a NOx storage capacity of the NOx storage-reduction catalyst; target interval setting means for setting a target interval from an end of the regeneration process to a start of the subsequent regeneration process by the regeneration control means; target interval correction means for correcting the target interval based on the estimated degree of deterioration; target regeneration time setting means for setting a target regeneration time from a start of the regeneration process to an end of the regeneration process by the regeneration control means; and target regeneration time correction means for correcting the target regeneration time based on the estimated degree of deterioration, characterized in that the target regeneration time correction means shortens the target regeneration time more as the estimated degree of deterioration becomes greater. a NOx storage-reduction catalyst that is provided on an exhaust passageway of an internal combustion engine to reduce and purify a nitrogen compound in exhaust gas; deterioration degree estimation means for estimating a degree of deterioration of the NOx storage-reduction catalyst; regeneration control means for executing a regeneration process in which the exhaust gas is enriched so as to restore a NOx storage capacity of the NOx storage-reduction catalyst; target interval setting means for setting a target interval from an end of the regeneration process to a start of the subsequent regeneration process by the regeneration control means; target interval correction means for correcting the target interval based on the estimated degree of deterioration; target regeneration time setting means for setting a target regeneration time from a start of the regeneration process to an end of the regeneration process by the regeneration control means; and target regeneration time correction means for correcting the target regeneration time based on the estimated degree of deterioration, characterized in that the target regeneration time correction means shortens the target regeneration time more as the estimated degree of deterioration becomes greater.
Seat device, in particular airplane seat device, with a life jacket container device which comprises a storage unit and a cover unit with a cover fixing unit and which is arranged, at least in an opened and a closed state, exclusively on a side of a delimiting front surface facing the seat device, the delimiting front surface being embodied by a surface extending through a seat front face perpendicularly to a mounting surface, characterised in that the storage unit is embodied in a two-part implementation.
Pressure vessel, comprising an inner vessel produced from an inner vessel material having a cylindrical middle part with a cylinder axis and having two terminal caps (22a, 22b) that seal the cylindrical middle part so as to provide a storage volume in the pressure vessel, an outer layer, which is applied to the inner vessel in order to reinforce said inner vessel, a valve connection piece that is arranged on one of the terminal caps so as to fill and empty the storage volume with a filling gas at a desired degree of purity, and a hollow flushing lance that is open to the outside and is guided through the valve connection piece and held therein in a sealing manner with respect to the valve connection piece, wherein the flushing lance protrudes into the storage volume and is provided with a perforation along its entire length up to a first end of the flushing lance facing the terminal cap that is lying opposite the valve connection piece in the storage volume for a gas exchange with the storage volume, wherein the flushing lance extends so far to the terminal cap, which is lying opposite the valve connection piece, that the gas exchange extends through the perforation of the flushing lance up to the opposite-lying terminal cap characterized in that the flushing lance is produced at least in the region within the storage volume from a dimensionally stable material, wherein the first end of the flushing lance is arranged free-floating in the storage volume of the pressure vessel, wherein an additional weight is arranged on the first end of the flushing lance.
A method for generating a cipher-based message authentication code for a message to be transmitted, the message being comprised of a plurality of bytes, the method comprising the steps of: - generating a state array comprised of rows of bytes (s' 0 -s' 15) and columns of bytes (s' 0 -s' 15) based on the message to be transmitted and - computing a cipher-based message authentication code for the message using the Rijndael algorithm, and - retaining the final state bytes (29, 30) of at least one row (32, 34) of the state array and discarding the bytes of the remaining rows, or - subjecting at least one byte of at least two final state bytes (s' 0 -s' 15) of the state array with at least a second byte of the at least two final state bytes to an "exclusive-OR" operation. - generating a state array comprised of rows of bytes (s' 0 -s' 15) and columns of bytes (s' 0 -s' 15) based on the message to be transmitted and - computing a cipher-based message authentication code for the message using the Rijndael algorithm, and - retaining the final state bytes (29, 30) of at least one row (32, 34) of the state array and discarding the bytes of the remaining rows, or - subjecting at least one byte of at least two final state bytes (s' 0 -s' 15) of the state array with at least a second byte of the at least two final state bytes to an "exclusive-OR" operation.
A display apparatus comprising: a substrate having a display area in which an image is displayed and a peripheral area outside the display area; a thin film encapsulation layer at the display area, the thin film encapsulation layer comprising a first inorganic encapsulation layer, an organic encapsulation layer, and a second inorganic encapsulation layer that are stacked; a dam at the peripheral area; and an organic material detection part outside the dam in the peripheral area, the organic material detection part comprising at least one detector (221, 223, 225, 227) which is protruding from an upper surface of the substrate, wherein the first inorganic encapsulation layer and the second inorganic encapsulation layer extend from the display area to the peripheral area, and wherein the first inorganic encapsulation layer has an opening that corresponds to at least a portion of the organic material detection part, wherein the second inorganic encapsulation layer is disposed in the opening. a substrate having a display area in which an image is displayed and a peripheral area outside the display area; a thin film encapsulation layer at the display area, the thin film encapsulation layer comprising a first inorganic encapsulation layer, an organic encapsulation layer, and a second inorganic encapsulation layer that are stacked; a dam at the peripheral area; and an organic material detection part outside the dam in the peripheral area, the organic material detection part comprising at least one detector (221, 223, 225, 227) which is protruding from an upper surface of the substrate, wherein the first inorganic encapsulation layer and the second inorganic encapsulation layer extend from the display area to the peripheral area, and wherein the first inorganic encapsulation layer has an opening that corresponds to at least a portion of the organic material detection part, wherein the second inorganic encapsulation layer is disposed in the opening.
Measurement apparatus for measuring the voltage of an insulated electrical cable including at least one central conductor, a first dielectric layer surrounding the at least one central conductor, a semiconducting layer surrounding the first dielectric layer and a cable shield (120, 220, 340, 510) surrounding the semiconducting layer, the apparatus comprising: the insulated electrical cable; a sensing electrode assembly arranged around the semiconducting layer of the cable, comprising a sensing electrode element (150, 152, 310) positioned on and connected to the semiconductor layer, such that a sensing capacitor is formed by the semiconductor layer together with the at least one central conductor and at least the first dielectric layer of the insulated electrical cable; and an electrical circuit connected to the sensing electrode element; whereby the apparatus further comprises an arrangement for defining the effective sensing area of the sensing electrode assembly; and in that the electrical circuit comprises a current-mode signal conditioning circuit, an input of the current-mode signal conditioning circuit being connected to the sensing electrode element and being referenced to a ground potential of the current-mode signal conditioning circuit, to which the cable shield is connected, the current-mode signal conditioning circuit being arranged for compensating parasitic impedances of the semiconductor layer by actively driving its input impedance towards zero. the insulated electrical cable; a sensing electrode assembly arranged around the semiconducting layer of the cable, comprising a sensing electrode element (150, 152, 310) positioned on and connected to the semiconductor layer, such that a sensing capacitor is formed by the semiconductor layer together with the at least one central conductor and at least the first dielectric layer of the insulated electrical cable; and an electrical circuit connected to the sensing electrode element; whereby the apparatus further comprises an arrangement for defining the effective sensing area of the sensing electrode assembly; and in that the electrical circuit comprises a current-mode signal conditioning circuit, an input of the current-mode signal conditioning circuit being connected to the sensing electrode element and being referenced to a ground potential of the current-mode signal conditioning circuit, to which the cable shield is connected, the current-mode signal conditioning circuit being arranged for compensating parasitic impedances of the semiconductor layer by actively driving its input impedance towards zero.
An absorbent article for absorbing blood comprising a liquid-permeable top sheet, formed from a nonwoven fabric or woven fabric, a liquid-impermeable back sheet, and an absorbent body between the top sheet and the back sheet, wherein the absorbent article has an excretory opening contact region that contacts with the excretory opening of the wearer, and an embossed section which is continuously or discontinuously disposed and which surrounds the excretory opening contact region, the embossed section is formed by embossing the layer comprising the top sheet and the absorbent body, the top sheet within the excretory opening contact region and the embossed section each comprise a blood slipping agent that has a kinematic viscosity of 0.01 to 80 mm 2 /s at 40°C measured according to JIS K 2283:2000, "5. Kinematic Viscosity Test Method", using a Cannon-Fenske reverse-flow viscometer, at a testing temperature of 40°C, a water holding percentage of 0.01 to 4.0 mass% as described in the description and a weight-average molecular weight of less than 1000 as described in the description, the basis weight of the blood slipping agent in the embossed section is greater than the basis weight of blood slipping agent in the top sheet within the excretory opening contact region, and the blood slipping agent alone is applied to the top sheet. wherein the absorbent article has an excretory opening contact region that contacts with the excretory opening of the wearer, and an embossed section which is continuously or discontinuously disposed and which surrounds the excretory opening contact region, the embossed section is formed by embossing the layer comprising the top sheet and the absorbent body, the top sheet within the excretory opening contact region and the embossed section each comprise a blood slipping agent that has a kinematic viscosity of 0.01 to 80 mm 2 /s at 40°C measured according to JIS K 2283:2000, "5. Kinematic Viscosity Test Method", using a Cannon-Fenske reverse-flow viscometer, at a testing temperature of 40°C, a water holding percentage of 0.01 to 4.0 mass% as described in the description and a weight-average molecular weight of less than 1000 as described in the description, the basis weight of the blood slipping agent in the embossed section is greater than the basis weight of blood slipping agent in the top sheet within the excretory opening contact region, and
A domestic baking device for baking a food product, in particular a flat bread, from a dough portion initially held in a portion capsule, the domestic baking device comprising a baking apparatus for baking the dough portion and a capsule-emptying apparatus for removing the dough portion from a portion capsule, the capsule-emptying apparatus having at least one force application element, which can be moved along a movement path, for applying force to, in particular deforming and/or moving, the portion capsule, which force application element can be driven by means of an electric motor, characterized in that the capsule-emptying apparatus is assigned monitoring means for monitoring the portion capsule emptying operation, the monitoring means comprising comparing means, which are designed to monitor the curve of an electrical motor signal, in particular a current or voltage signal, over the movement path of the force application element for the reaching or exceeding of a reference signal, which changes over the movement path of the force application element, and to perform an action if the reference signal is reached or exceeded and that the monitoring means are configured in such a manner that the action is or comprises putting out a warning signal, in particular a visual and/or acoustic and/or haptic warning signal, and/or that the action is or comprises stopping or slowing down the movement of the force application element towards the support and/or returning the force application element to an initial position.
A method for manufacturing a mounting body comprising: a mounting step of mounting an electronic component onto a wiring board via an anisotropic conductive film containing a binder having an epoxy resin as a primary constituent and conductive particles having a compressive hardness K of 4.9 GPa (500 kgf / mm 2) or more when compressively deformed by 10%, wherein a relation between a thickness A of the binder and an average particle diameter B is 0.6 ≦ B / A ≦ 1.5 and an elastic modulus of the binder after curing is 50 MPa or more at 100°C; wherein in the case of a problem occurring in mounting of the mounting step, a remounting step of mechanically peeling to detach the electronic component and the wiring board and reusing the wiring board to perform the mounting step is performed, and wherein in the remounting step, the mounting step is performed in a state in which a residue of the anisotropic conductive film remains on the wiring board. a mounting step of mounting an electronic component onto a wiring board via an anisotropic conductive film containing a binder having an epoxy resin as a primary constituent and conductive particles having a compressive hardness K of 4.9 GPa (500 kgf / mm 2) or more when compressively deformed by 10%, wherein a relation between a thickness A of the binder and an average particle diameter B is 0.6 ≦ B / A ≦ 1.5 and an elastic modulus of the binder after curing is 50 MPa or more at 100°C; wherein in the case of a problem occurring in mounting of the mounting step, a remounting step of mechanically peeling to detach the electronic component and the wiring board and reusing the wiring board to perform the mounting step is performed, and wherein in the remounting step, the mounting step is performed in a state in which a residue of the anisotropic conductive film remains on the wiring board.