mhurhangee/ep-ind-claims huggingface dataset:
A system for generating biological products, the system comprising: a first substrate having formed therein a number of inlet channels extending substantially along a longitudinal direction; a second substrate having formed therein a number of outlet channels corresponding to the number of inlet channels and extending substantially along the longitudinal direction, the second substrate configured to releasably engage the first substrate; and arranged between adjacent surfaces of the substrates (302, 306), a permeable membrane forming microfluidic pathways between the respective inlet and outlet channels (308, 314) and configured to selectively capture biological source material capable of generating biological products, wherein in a cross-sectional view of the system that includes the longitudinal direction and a height direction at least one of a given inlet channel or a given outlet channel corresponding to the given inlet channel is tapered relative to the longitudinal direction at a first angle to control a pressure differential profile regulating perfusion of a fluid medium through the permeable membrane, and wherein the tapering of the at least one of the given inlet channel or the given outlet channel relative to the longitudinal direction adjusts a shear stress in the channels. a first substrate having formed therein a number of inlet channels extending substantially along a longitudinal direction; a second substrate having formed therein a number of outlet channels corresponding to the number of inlet channels and extending substantially along the longitudinal direction, the second substrate configured to releasably engage the first substrate; and arranged between adjacent surfaces of the substrates (302, 306), a permeable membrane forming microfluidic pathways between the respective inlet and outlet channels (308, 314) and configured to selectively capture biological source material capable of generating biological products, wherein in a cross-sectional view of the system that includes the longitudinal direction and a height direction at least one of a given inlet channel or a given outlet channel corresponding to the given inlet channel is tapered relative to the longitudinal direction at a first angle to control a pressure differential profile regulating perfusion of a fluid medium through the permeable membrane, and wherein the tapering of the at least one of the given inlet channel or the given outlet channel relative to the longitudinal direction adjusts a shear stress in the channels.
A hydrogel product comprising hyaluronic acid as the swellable polymer, wherein the hyaluronic acid is covalently crosslinked via crosslinks essentially consisting of trehalose.
A titanium-based alloy composition consisting in weight percent, of: 3.0 to 7.0 % aluminium, 3.0 to 10.0% vanadium, 3.0 to 10.0% molybdenum, 2.0 to 7.0% tin, 0.0 to 6.0% zirconium, 0.0 to 5.0% niobium, 0 to 0.5% iron, 0.0 to 4.0% chromium, 0.0 to 2.0 tungsten, 0.0 to 0.5 % nickel, 0.0 to 0.5 % tantalum, or between 0.0 to 2.5 tantalum when the sum of niobium and tantalum is 5.0% or less, 0.0 to 0.5% cobalt, 0.0 to 0.75% silicon, 0.0 to 0.5% boron, 0.0 to 0.5% carbon, 0.0 to 0.5% oxygen, 0.0 to 0.5% hydrogen, 0.0 to 0.5% nitrogen, 0.0 to 0.5% palladium, 0.0 to 0.5% lanthanum, 0.0 to 0.5% manganese or 0.0 to 2.5% manganese when the sum of chromium and manganese is 4.0 wt.% or less, 0.0 to 1.0% hafnium, the balance being titanium and incidental impurities which satisfies the following relationship: 0.027 V + 0.178 Fe + 0.055 Mo + 0.5 W + 0.016 Zr + 0.044 Cr + 0.033 Nb + Ta + 0.053 Sn > 1.0 where Mo, W, V, Zr, Sn, Cr, Fe, Ta and Nb represent amounts of molybdenum, tungsten, vanadium, zirconium, tin, chromium, iron, tantalum and niobium in wt.% respectively.
An apparatus for a wireless communication device (200; 200a), the apparatus comprising: a transceiver module for transmitting and receiving wireless transmissions; and a processing module configured to: control the transceiver module, communicate with a further wireless communication device via the transceiver module, wherein the communication with the further wireless communication device is based on a transmission of data frames between the wireless communication device and the further wireless communication device, wherein each data frame is based on a two-dimensional grid in a time-frequency plane having a time dimension resolution and a frequency dimension resolution, wherein the processing module is configured to select a communication mode from a plurality of communication modes for the communication between the wireless communication device and the further wireless communication device, wherein the communication mode defines a combination of a frequency dimension resolution and a time dimension resolution of the two-dimensional grid in the time-frequency plane. a transceiver module for transmitting and receiving wireless transmissions; and a processing module configured to: control the transceiver module, communicate with a further wireless communication device via the transceiver module, wherein the communication with the further wireless communication device is based on a transmission of data frames between the wireless communication device and the further wireless communication device, wherein each data frame is based on a two-dimensional grid in a time-frequency plane having a time dimension resolution and a frequency dimension resolution, wherein the processing module is configured to select a communication mode from a plurality of communication modes for the communication between the wireless communication device and the further wireless communication device, wherein the communication mode defines a combination of a frequency dimension resolution and a time dimension resolution of the two-dimensional grid in the time-frequency plane. control the transceiver module, communicate with a further wireless communication device via the transceiver module, wherein the communication with the further wireless communication device is based on a transmission of data frames between the wireless communication device and the further wireless communication device, wherein each data frame is based on a two-dimensional grid in a time-frequency plane having a time dimension resolution and a frequency dimension resolution, wherein the processing module is configured to select a communication mode from a plurality of communication modes for the communication between the wireless communication device and the further wireless communication device, wherein the communication mode defines a combination of a frequency dimension resolution and a time dimension resolution of the two-dimensional grid in the time-frequency plane.
A photoelectron spectroscopy system comprising: a chamber wall enclosing a chamber; a substrate support positioned within the chamber and configured to support a semiconductor substrate; an electromagnetic radiation source configured to emit an electromagnetic radiation beam onto the substrate on the substrate support, the electromagnetic radiation beam causing photoelectrons to be emitted from the substrate; a viewing subsystem comprising an illuminator, a reflective subsystem and a camera, the viewing subsystem configured to generate and reflect optical light incident to a portion of the substrate and to reflect and collect visible light that is incident from the portion of the substrate and capture an image of the portion of the substrate; a computer control console connected to the viewing subsystem, wherein the control unit and the viewing subsystem are configured to move the semiconductor substrate, and then the radiation beam is shaped to position an X-ray beam over a predetermined location on the semiconductor substrate; an analyzer configured to capture the photoelectrons emitted from the material on the substrate; and a magnetic field generator configured to generate a magnetic field within the chamber and guide the photoelectrons from the substrate to the analyzer wherein the analyzer and the magnetic field generator are positioned on opposing sides of the substrate support. a chamber wall enclosing a chamber; a substrate support positioned within the chamber and configured to support a semiconductor substrate; an electromagnetic radiation source configured to emit an electromagnetic radiation beam onto the substrate on the substrate support, the electromagnetic radiation beam causing photoelectrons to be emitted from the substrate; a viewing subsystem comprising an illuminator, a reflective subsystem and a camera, the viewing subsystem configured to generate and reflect optical light incident to a portion of the substrate and to reflect and collect visible light that is incident from the portion of the substrate and capture an image of the portion of the substrate; a computer control console connected to the viewing subsystem, wherein the control unit and the viewing subsystem are configured to move the semiconductor substrate, and then the radiation beam is shaped to position an X-ray beam over a predetermined location on the semiconductor substrate; an analyzer configured to capture the photoelectrons emitted from the material on the substrate; and a magnetic field generator configured to generate a magnetic field within the chamber and guide the photoelectrons from the substrate to the analyzer wherein the analyzer and the magnetic field generator are positioned on opposing sides of the substrate support.
A valve, in particular a pneumatic suspension valve for a vehicle, wherein the valve comprises a valve body having a driver, wherein the driver comprises a receiving section for receiving an actuating lever (350, 500) that can be mounted on the driver, wherein the receiving section is configured to receive, without retrofitting the receiving section, an actuating lever having a first cross-sectional profile or an actuating lever having a second cross-sectional profile that is different from the first cross-sectional profile, characterized in that the receiving section comprises a circular profile section for receiving an actuating lever having a circular cross-sectional profile, and a rectangular profile section for receiving an actuating lever having a rectangular cross-sectional profile.
Method for producing a medical device with structure elements, comprising the following method steps: - providing a substrate; - depositing a layer of a sacrificial material on the substrate; - applying a photoresist layer on the sacrificial material layer, - structuring the photoresist layer according to the shape of the structure elements to be produced, so that first free spaces are formed which are open on the side facing away from the substrate and are delimited by side surfaces of the photoresist layer, wherein an angle of 45° to less than 90° is set between the side surfaces and the substrate; - depositing sacrificial material such that first mask elements of sacrificial material are formed in the first free spaces and are adapted to the inner contour of said first free spaces; - removing the photoresist layer so that second free spaces are formed between the first mask elements; - depositing, particularly by physical vapour deposition, a first material of the device to be produced in the second free spaces and on the upper side of the first mask elements; and - removing the sacrificial material (4, 9) and/or performing further process steps. - providing a substrate; - depositing a layer of a sacrificial material on the substrate; - applying a photoresist layer on the sacrificial material layer, - structuring the photoresist layer according to the shape of the structure elements to be produced, so that first free spaces are formed which are open on the side facing away from the substrate and are delimited by side surfaces of the photoresist layer, wherein an angle of 45° to less than 90° is set between the side surfaces and the substrate; - depositing sacrificial material such that first mask elements of sacrificial material are formed in the first free spaces and are adapted to the inner contour of said first free spaces; - removing the photoresist layer so that second free spaces are formed between the first mask elements; - depositing, particularly by physical vapour deposition, a first material of the device to be produced in the second free spaces and on the upper side of the first mask elements; and - removing the sacrificial material (4, 9) and/or performing further process steps.
A surgical instrument, comprising: a shaft; an end effector extending distally from said shaft; and a housing extending proximally from said shaft, said housing comprising: a motor configured to generate at least one motion to effectuate said end effector; and a power source configured to supply power to said motor, characterised in that said power source comprises: a casing; a battery pack; and a deactivation mechanism configured to deactivate said battery pack if said casing is breached, wherein said deactivation mechanism comprises a circuit portion breakable by breaching said casing, wherein the circuit portion comprises a rupturable, conductive material. a shaft; an end effector extending distally from said shaft; and a housing extending proximally from said shaft, said housing comprising: a motor configured to generate at least one motion to effectuate said end effector; and a power source configured to supply power to said motor, characterised in that said power source comprises: a casing; a battery pack; and a deactivation mechanism configured to deactivate said battery pack if said casing is breached, wherein said deactivation mechanism comprises a circuit portion breakable by breaching said casing, wherein the circuit portion comprises a rupturable, conductive material. a motor configured to generate at least one motion to effectuate said end effector; and a power source configured to supply power to said motor, characterised in that said power source comprises: a casing; a battery pack; and a deactivation mechanism configured to deactivate said battery pack if said casing is breached, wherein said deactivation mechanism comprises a circuit portion breakable by breaching said casing, wherein the circuit portion comprises a rupturable, conductive material. a casing; a battery pack; and a deactivation mechanism configured to deactivate said battery pack if said casing is breached, wherein said deactivation mechanism comprises a circuit portion breakable by breaching said casing, wherein the circuit portion comprises a rupturable, conductive material.
Specifically to an amyloid-beta-species binding peptide, consisting essentially of D-amino acids, containing at least one amino acid sequence selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, 'SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO. 10 und/oder SEQ ID NO. 11 and their homologues with an identity of the amino acid sequence of at least 80%, the homologues having a Kd-value of from twice up to tenfold lower than the peptide with the amino acid sequence rprtrlhthrnr, and polymers of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO. 10, und/oder SEQ ID NO. 11 and their homologues, with an identity of the amino acid sequence of at least 80%, the homologues having a Kd-value of from twice up to tenfold lower than the peptide with the amino acid sequence rprtrlhthrnr.
Hand press for producing a preferably non-detachable hose connection with a device, unit or pressure-bearing equipment part, the hand press having an elongate housing, preferably embraceable by the hand of an operator, with a handle section, accommodating an electrohydraulic drive, and two press jaws mounted on rotary joints, wherein at least one of the press jaws is operable by the electrohydraulic drive from a mounting position into a pressing position for pressing together a deformable press sleeve pushed over a hose, the pressing jaws respectively having an opposite hose sleeve pressing region for receiving at least a part of a press sleeve, characterised in that in the pressing jaws, the hose sleeve pressing regions are each formed as semicircular inserts, and in that the inserts respectively form a flat side surface disposed parallel to each other in the pressing position of the hand press, and the press sleeve receptacles are disposed in an eccentric region of the inserts closer to the front end front end of the outer side edge of the press jaw section.
A method for detecting electrical isolation between a bus terminal and ground, or chassis reference, on a vehicle, the method comprising: providing a bus terminal isolated from the ground and chassis reference during normal operation of the vehicle; applying a first current to the bus terminal; detecting a first level of the first current, or a corresponding observed voltage level based on the first current, that flows or exists from the bus terminal to ground; and estimating a first isolation level between the bus terminal and the ground, or the chassis reference, based on the detected first level, characterized in that the step of detecting a first level of the first current, or a corresponding observed voltage level based on the first current, that flows or exists from the bus terminal to ground, is performed by compensating for a range in the detected first level by applying a corresponding compensating voltage level to a resistive network coupled to a level detector for detecting the first level based upon certain observed reference voltage levels, and that the compensating voltage level places the first level within a limited voltage range suitable for conversion by an analog-to-digital converter of the level detector. providing a bus terminal isolated from the ground and chassis reference during normal operation of the vehicle; applying a first current to the bus terminal; detecting a first level of the first current, or a corresponding observed voltage level based on the first current, that flows or exists from the bus terminal to ground; and estimating a first isolation level between the bus terminal and the ground, or the chassis reference, based on the detected first level, characterized in that the step of detecting a first level of the first current, or a corresponding observed voltage level based on the first current, that flows or exists from the bus terminal to ground, is performed by compensating for a range in the detected first level by applying a corresponding compensating voltage level to a resistive network coupled to a level detector for detecting the first level based upon certain observed reference voltage levels, and that the compensating voltage level places the first level within a limited voltage range suitable for conversion by an analog-to-digital converter of the level detector.
A surgical system comprising: a patient-side apparatus including: a first manipulator that supports a first surgical instrument; a second manipulator that supports a second surgical instrument; a third manipulator that supports a third surgical instrument; and a fourth manipulator that supports an endoscope; a remote-control apparatus for operation of the first to fourth manipulators, and including a display device configured to display an image captured by the endoscope; and a control apparatus configured and arranged to display, on the display device, a graphical user interface overlapped with the image captured by the endoscope, characterized in that the graphical user interface including a first area that indicates information on the first surgical instrument, a second area that indicates information on the third surgical instrument, a third area that indicates information on the second surgical instrument, which are arranged in one of an upper end portion and a lower end portion in a display area of the display device and further including, at a position different from that of the one of the upper end portion and the lower end portion in the display area, a surgical instrument position display area that indicates positional relationships of the first, second, third surgical instruments (201a, 201b, 201c) with respect to a field of view of the endoscope. a patient-side apparatus including: a first manipulator that supports a first surgical instrument; a second manipulator that supports a second surgical instrument; a third manipulator that supports a third surgical instrument; and a fourth manipulator that supports an endoscope; a first manipulator that supports a first surgical instrument; a second manipulator that supports a second surgical instrument; a third manipulator that supports a third surgical instrument; and a fourth manipulator that supports an endoscope; a remote-control apparatus for operation of the first to fourth manipulators, and including a display device configured to display an image captured by the endoscope; and a control apparatus configured and arranged to display, on the display device, a graphical user interface overlapped with the image captured by the endoscope, characterized in that the graphical user interface including a first area that indicates information on the first surgical instrument, a second area that indicates information on the third surgical instrument, a third area that indicates information on the second surgical instrument, which are arranged in one of an upper end portion and a lower end portion in a display area of the display device and further including, at a position different from that of the one of the upper end portion and the lower end portion in the display area, a surgical instrument position display area that indicates positional relationships of the first, second, third surgical instruments (201a, 201b, 201c) with respect to a field of view of the endoscope.
A patch comprising: an activatable adhesive material comprising: (a) an epoxy; (b) a core shell polymer-containing component, and (c) an epoxidized cashew nut shell oil; and a fiberglass mesh located in direct planar contact with the adhesive material and along at least a portion of the adhesive material, wherein the adhesive material is tacky prior to activation allowing the adhesive material to adhere to the fiberglass mesh and to a surface for reinforcing the surface. an activatable adhesive material comprising: (a) an epoxy; (b) a core shell polymer-containing component, and (c) an epoxidized cashew nut shell oil; and (a) an epoxy; (b) a core shell polymer-containing component, and (c) an epoxidized cashew nut shell oil; and a fiberglass mesh located in direct planar contact with the adhesive material and along at least a portion of the adhesive material, wherein the adhesive material is tacky prior to activation allowing the adhesive material to adhere to the fiberglass mesh and to a surface for reinforcing the surface.
A method of assembling a battery, comprising the step of stacking one or multiple combinations each comprising a frame (30a, 30b, 30c, 30d, 30e, 30f) and a positive electrode plate (12a, 12b, 12c) to be disposed in a region defined by the frame and one or multiple combinations each comprising a frame (30a, 30b, 30c, 30d, 30e, 30f) and a negative electrode plate (22a, 22b, 22c) to be disposed in a region defined by the frame, once or alternately, such that the positive and adjacent negative electrode plates are separated from each other by a separator structure (20a, 20b, 20c, 20d, 20e) and the periphery of the separator structure is held between the adjacent frames (30a, 30b, 30c, 30d, 30e, 30f), wherein the separator structure (20a, 20b, 20c, 20d, 20e) comprises a separator, the separator exhibiting hydroxide ion conductivity and water impermeability; and wherein each of two end frames (30a, 30f) of the frames (30a, 30b, 30c, 30d, 30e, 30f) has an end face plate (30g, 30h) to cover the region defined by the frame; or is disposed on an end face plate such that the region defined by the frame is covered by the end face plate; or is configured such that the region defined by the frame is covered by an end face plate after stacking, the stacked frames (30a, 30b, 30c, 30d, 30e, 30f) and the end face plates (30g, 30h) together thereby making up a single battery container.