mhurhangee/ep-ind-claims huggingface dataset:
Apparatus comprising: an automated banking machine bulk note transport device adapted to be mounted in an automated banking machine, wherein the transport device includes an axis, wherein the transport device includes a stack holder, wherein the stack holder includes an interior storage area, wherein the interior storage area is adapted to hold a stack of currency notes therein, wherein the stack holder in a first holder position relative to the transport device is adapted to receive a plurality of currency notes from an automated banking machine user, wherein the stack holder is adapted to hold received currency notes in a stack at the first holder position, wherein the stack holder while holding the stack is operative to move relative to the transport device in a radial direction relative to the axis, and towards the axis from the first holder position to a second holder position, wherein the stack holder while holding the stack is operative to rotate about the axis relative to the transport device from the second position to a third holder position, wherein the third holder position is located a greater distance from the first holder position than the second holder position is located from the first holder position. an automated banking machine bulk note transport device adapted to be mounted in an automated banking machine, wherein the transport device includes an axis, wherein the transport device includes a stack holder, wherein the stack holder includes an interior storage area, wherein the interior storage area is adapted to hold a stack of currency notes therein, wherein the stack holder in a first holder position relative to the transport device is adapted to receive a plurality of currency notes from an automated banking machine user, wherein the stack holder is adapted to hold received currency notes in a stack at the first holder position, wherein the stack holder while holding the stack is operative to move relative to the transport device in a radial direction relative to the axis, and towards the axis from the first holder position to a second holder position, wherein the stack holder while holding the stack is operative to rotate about the axis relative to the transport device from the second position to a third holder position, wherein the third holder position is located a greater distance from the first holder position than the second holder position is located from the first holder position.
A method for trimming a thermoformed panel comprising the steps of opening a thermoforming mold to reveal the thermoformed panel, attaching a robotic arm holding means to the thermoformed panel, removing the thermoformed panel from the thermoforming mold by the robotic arm holding means, repositioning the robotic arm holding means over a trimming table, the table comprising a cutting router affixed to the table bed, moving the robotic arm holding means relative to the cutting router in directions to trim all edges of the panel to required panel dimensions, moving the robotic arm and trimmed panel to a panel collection station, and depositing the trimmed panel at the collection station, wherein the directional movement of the robotic arm is controlled by input from 3-dimensional drawing software of the final shape of the thermoformed panel, and wherein the thermoformed panel is of a polymeric material. repositioning the robotic arm holding means over a trimming table, the table comprising a cutting router affixed to the table bed, moving the robotic arm holding means relative to the cutting router in directions to trim all edges of the panel to required panel dimensions, moving the robotic arm and trimmed panel to a panel collection station, and depositing the trimmed panel at the collection station, wherein the directional movement of the robotic arm is controlled by input from 3-dimensional drawing software of the final shape of the thermoformed panel, and wherein the thermoformed panel is of a polymeric material.
An in vitro method for prediction of the progression of primary chronic kidney disease or for monitoring chronic kidney disease therapy in a patient suffering from primary chronic kidney disease and wherein said patient is not in the end-stage renal disease" comprising the following steps: a. providing a sample from a patient suffering from primary chronic kidney disease, b. determining the level of MR-proANP, c. comparing the level of MR-proANP for the patient with a pre-determined value-correlating the level of MR-proANP with the prediction of the progression of primary chronic kidney disease, wherein an increased MR-proANP level at baseline is a predictor of progression. a. providing a sample from a patient suffering from primary chronic kidney disease, b. determining the level of MR-proANP, c. comparing the level of MR-proANP for the patient with a pre-determined value-correlating the level of MR-proANP with the prediction of the progression of primary chronic kidney disease, wherein an increased MR-proANP level at baseline is a predictor of progression.
A power supply apparatus comprising: a coupling capacitor arranged to be connected on its first end to ground; a transformer comprising a primary winding and a secondary winding; a first rectifier bridge connected in parallel with said secondary winding; and an energy storage, to which a load is arranged to be connected; wherein said primary winding is arranged to be connected between a second end of said coupling capacitor, and a high voltage transmission line; said energy storage is arranged to be charged by means of a current passing through said first rectifier bridge; and said power supply apparatus further comprises a bypass means comprising controlled semiconductor components arranged as a bidirectional bypass circuit which prevents said load from being over-powered; characterised in that the bypass means comprises a second rectifier bridge connected in parallel with said primary winding, a first transistor connected with its collector and emitter in parallel with said second rectifier bridge and a controller so that current between said second end of said coupling capacitor and said high voltage transmission line passes through said primary winding or through said bypass means. a coupling capacitor arranged to be connected on its first end to ground; a transformer comprising a primary winding and a secondary winding; a first rectifier bridge connected in parallel with said secondary winding; and an energy storage, to which a load is arranged to be connected; wherein said primary winding is arranged to be connected between a second end of said coupling capacitor, and a high voltage transmission line; said energy storage is arranged to be charged by means of a current passing through said first rectifier bridge; and said power supply apparatus further comprises a bypass means comprising controlled semiconductor components arranged as a bidirectional bypass circuit which prevents said load from being over-powered; characterised in that the bypass means comprises a second rectifier bridge connected in parallel with said primary winding, a first transistor connected with its collector and emitter in parallel with said second rectifier bridge and a controller so that current between said second end of said coupling capacitor and said high voltage transmission line passes through said primary winding or through said bypass means.
A waterproof, vapor-permeable and gas-permeable sheet material including: a waterproof, microporous sheet layer; a porous, thermoplastic sheet layer attached to the microporous sheet layer, the thermoplastic sheet layer being vapor-permeable and air-permeable; characterized in that the microporous sheet layer is thermally laminated to the thermoplastic sheet layer such that the microporous sheet layer is at least partially integrated with the thermoplastic layer, a portion of the thermoplastic layer being within the pores of the microporous sheet layer, to form a zone that prevents passage of water droplets, while permitting passage of water vapor and air, when a chemical is present on the sheet material that would otherwise cause the microporous sheet layer to permit passage of water droplets. a waterproof, microporous sheet layer; a porous, thermoplastic sheet layer attached to the microporous sheet layer, the thermoplastic sheet layer being vapor-permeable and air-permeable; characterized in that the microporous sheet layer is thermally laminated to the thermoplastic sheet layer such that the microporous sheet layer is at least partially integrated with the thermoplastic layer, a portion of the thermoplastic layer being within the pores of the microporous sheet layer, to form a zone that prevents passage of water droplets, while permitting passage of water vapor and air, when a chemical is present on the sheet material that would otherwise cause the microporous sheet layer to permit passage of water droplets.
An applicator assembly comprising: a body having a proximal end portion and a distal end portion; an actuator operatively coupled to the body; a container disposed within the body; an application member attached to the distal end portion; and a valve disposed between the container and the application member, wherein actuation of the actuator opens the valve and places the interior of the container in fluid communication with the application member by way of a compressive force applied to the body, wherein the actuator comprises a first contact point and a second contact point, and is configured such that each contact point contacts the body upon actuation of the actuator, such that the first contact point imparts compressive force on the valve upon actuation of the actuator and such that the second contact point imparts compressive force on the container upon actuation of actuator, and wherein the container is fracturable upon application of the compressive force. a body having a proximal end portion and a distal end portion; an actuator operatively coupled to the body; a container disposed within the body; an application member attached to the distal end portion; and a valve disposed between the container and the application member, wherein actuation of the actuator opens the valve and places the interior of the container in fluid communication with the application member by way of a compressive force applied to the body, wherein the actuator comprises a first contact point and a second contact point, and is configured such that each contact point contacts the body upon actuation of the actuator, such that the first contact point imparts compressive force on the valve upon actuation of the actuator and such that the second contact point imparts compressive force on the container upon actuation of actuator, and wherein the container is fracturable upon application of the compressive force.
A projection apparatus comprising: multiple scanning optical systems each including: a light source to emit a light beam; a scanner to deflect the light beam from the light source to form a scanning light beam; a magnifier including: at least one positive lens; and at least one negative lens, to magnify a scanning angle of the scanning light beam from the scanner; and a board having: a mounting surface; and a perpendicular line perpendicular (AX 0) to the mounting surface, the board mounting multiple scanners including the scanner of the multiple scanning optical systems on the mounting surface, wherein multiple scanning light beams having the scanning light beam from the scanner are arranged in rotational symmetry with respect to the perpendicular line (AX 0) with different angles in a plane of the mounting surface of the board, and the multiple scanning optical systems project the multiple scanning light beams to different regions from each other. multiple scanning optical systems each including: a light source to emit a light beam; a scanner to deflect the light beam from the light source to form a scanning light beam; a magnifier including: at least one positive lens; and at least one negative lens, to magnify a scanning angle of the scanning light beam from the scanner; and a light source to emit a light beam; a scanner to deflect the light beam from the light source to form a scanning light beam; a magnifier including: at least one positive lens; and at least one negative lens, at least one positive lens; and at least one negative lens, to magnify a scanning angle of the scanning light beam from the scanner; and a board having: a mounting surface; and a perpendicular line perpendicular (AX 0) to the mounting surface, the board mounting multiple scanners including the scanner of the multiple scanning optical systems on the mounting surface, a mounting surface; and a perpendicular line perpendicular (AX 0) to the mounting surface, the board mounting multiple scanners including the scanner of the multiple scanning optical systems on the mounting surface, wherein multiple scanning light beams having the scanning light beam from the scanner are arranged in rotational symmetry with respect to the perpendicular line (AX 0) with different angles in a plane of the mounting surface of the board, and the multiple scanning optical systems project the multiple scanning light beams to different regions from each other.
An implantable medical device (102, 104), comprising: a first differential amplifier including first differential inputs and a first output at which a first amplified difference signal is output; and a second differential amplifier including second differential inputs and a second output at which a second amplified difference signal is output, characterized in that the first and second differential amplifiers (124a, 124b) are configured to be enabled and auto-zeroed such that at all times at least one of the first and second differential amplifiers (124a, 124b) is enabled and not being auto-zeroed; and at any given time one of the first and second amplified difference signals is used to selectively enable a component of the IMD (102, 104) in response to one of the first and second differential amplifiers (124a, 124b), which is enabled and not being auto-zeroed, detecting a predetermined signal within a frequency range. a first differential amplifier including first differential inputs and a first output at which a first amplified difference signal is output; and a second differential amplifier including second differential inputs and a second output at which a second amplified difference signal is output, characterized in that the first and second differential amplifiers (124a, 124b) are configured to be enabled and auto-zeroed such that at all times at least one of the first and second differential amplifiers (124a, 124b) is enabled and not being auto-zeroed; and at any given time one of the first and second amplified difference signals is used to selectively enable a component of the IMD (102, 104) in response to one of the first and second differential amplifiers (124a, 124b), which is enabled and not being auto-zeroed, detecting a predetermined signal within a frequency range.
A diagonal fan comprising an electric motor, a housing, and a diagonal impeller which is received within the housing, can be driven via the electric motor, and generates a diagonal flow during operation that is deflected in an axial flow direction by an inner wall of the housing, wherein an outlet guide vane device with a plurality of guide vanes, which are distributed in the circumferential direction, is arranged adjacently to the diagonal impeller as seen in the axial flow direction, and wherein the outlet guide vane device homogenizes an airflow generated by the diagonal impeller and has an air outlet with a specified outlet diameter B, wherein the diagonal impeller has a slinger ring, which surrounds impeller vanes distributed in the circumferential direction and determines the outflow angle of the diagonal impeller, characterized in that the diagonal fan extends over a total axial length E, and the ratio of the total axial length E to the outlet diameter B is configured such that 0.3<E/B<0.6, and in that the diagonal fan has an air inlet with a specified intake diameter A, wherein a ratio of the intake diameter A to the outlet diameter B is configured such that 0.70≤A/B≤0.95.
An integrated process that operates within the battery limits of a refinery producing asphalt, coker oil and gas products, and petroleum green coke, the process comprising: charging a feedstock to an oxidizing unit along with an effective quantity of oxidant to produce an intermediate charge containing oxidized organosulfur compounds; passing the intermediate charge to a solvent deasphalting unit along with an effective quantity of solvent to produce a deasphalted/desulfurized oil phase and an asphalt phase containing oxidized organosulfur compounds; and passing the deasphalted/desulfurized oil phase to a coker unit including a coker furnace and at least one coker drum to produce liquid and gas coker products as an effluent stream and recover petroleum green coke from the coker drum. charging a feedstock to an oxidizing unit along with an effective quantity of oxidant to produce an intermediate charge containing oxidized organosulfur compounds; passing the intermediate charge to a solvent deasphalting unit along with an effective quantity of solvent to produce a deasphalted/desulfurized oil phase and an asphalt phase containing oxidized organosulfur compounds; and passing the deasphalted/desulfurized oil phase to a coker unit including a coker furnace and at least one coker drum to produce liquid and gas coker products as an effluent stream and recover petroleum green coke from the coker drum.
An isolated extended recombinant polypeptide (XTEN) comprising a non-repetitive sequence having greater than 100 to 3000 amino acid residues wherein at least 95%, or at least 96%, or at least 97%, or at least 98%, or at least 99% to about 100% of the sequence consists of multiple units of two or more non-overlapping sequence motifs selected from the amino acid sequences of Table 1 wherein the sequence of any two contiguous amino acid residues in any one motif is not repeated more than twice in the sequence motif.
A composite structure comprising: a multi-layer laminate comprising: a plurality of layers of material; and at least one crack barrier layer extending within the plurality of layers of material, wherein the multi-layer laminate is folded to define a first web region and a second web region in a face-to-face relationship, and a folded tip region defined between the first web region and the second web region, wherein the at least one crack barrier layer is configured to restrict crack propagation from spreading between the plurality of layers of material in the folded tip region, and wherein the at least one crack barrier layer is fabricated from a bidirectional carbon fiber material, and the plurality of layers of material have a structural configuration different from that of the at least one crack barrier layer. a multi-layer laminate comprising: a plurality of layers of material; and at least one crack barrier layer extending within the plurality of layers of material, a plurality of layers of material; and at least one crack barrier layer extending within the plurality of layers of material, wherein the multi-layer laminate is folded to define a first web region and a second web region in a face-to-face relationship, and a folded tip region defined between the first web region and the second web region, wherein the at least one crack barrier layer is configured to restrict crack propagation from spreading between the plurality of layers of material in the folded tip region, and wherein the at least one crack barrier layer is fabricated from a bidirectional carbon fiber material, and the plurality of layers of material have a structural configuration different from that of the at least one crack barrier layer.
Sensor device for a vehicle, wherein the sensor device comprises at least two magnetic field sensors (122, 124; 224; 422, 424) for detecting a sensing magnetic field from a sensing magnet, wherein the magnetic field sensors (122, 124; 224; 422, 424) are designed in such a way that the resultant magnetic field from the sensing magnetic field and an external magnetic interference field from an interference source has on the magnetic field sensors (122, 124; 224; 422, 424) a different strength of effect with respect to signal values of the relevant magnetic field sensors (122, 124; 224; 422, 424), characterized in that at least one of the magnetic field sensors (122, 124; 224; 422, 424) comprises a device for shielding at least one component of the sensing magnetic field and/or the magnetic interference field and at least one of the magnetic field sensors (122, 124; 224; 422, 424) comprises a device for concentrating at least one component of the sensing magnetic field and/or the magnetic interference field, wherein the device or the devices is or are arranged inside a housing of the sensor device.
A drive arrangement for driving a first sickle bar section and a second sickle bar section of a harvesting platform, the drive arrangement comprising: a first gearbox having an output drivingly connected to a first end of a first sickle bar section for reciprocating the first sickle bar section; a second gearbox having an output drivingly connected to a first end of a second sickle bar section for reciprocating the second sickle bar section; a first drive train drivingly connecting an input of the first gearbox to an input drive shaft; and a second drive train drivingly connecting an input of the second gearbox to the input drive shaft, wherein one of the first drive train and the second drive train comprises a belt drive; characterized by a synchronization transmission having a first input drivingly connected to a second end of the first sickle bar section and a second input drivingly connected to a second end of the second sickle bar section, the synchronization transmission coupling the first input in an opposite movement direction to the second input. a first gearbox having an output drivingly connected to a first end of a first sickle bar section for reciprocating the first sickle bar section; a second gearbox having an output drivingly connected to a first end of a second sickle bar section for reciprocating the second sickle bar section; a first drive train drivingly connecting an input of the first gearbox to an input drive shaft; and a second drive train drivingly connecting an input of the second gearbox to the input drive shaft, wherein one of the first drive train and the second drive train comprises a belt drive; characterized by a synchronization transmission having a first input drivingly connected to a second end of the first sickle bar section and a second input drivingly connected to a second end of the second sickle bar section, the synchronization transmission coupling the first input in an opposite movement direction to the second input.
A process for the preparation of the compound of a cyclohexanecarbonitrile derivative of formula: wherein R 1 is (C 1 -C 8)alkyl, comprising adding a Grignard reagent to cyclohexanecarbonitrile of formula in the presence of an alkylating agent, wherein the alkylating agent is 1-halo-CH 2 R 1 or a sulfonate ester of R 1 CH 2 -OH, wherein the coupling reaction is carried out in the presence of a secondary amine wherein 0.01 to 0.5 equivalents of the secondary amine with respect to cyclohexanecarbonitrile is used.