mhurhangee/ep-ind-claims huggingface dataset:
A method of making, manufacturing and/or producing an implant suitable for implantation into a mammal for the treatment, repair or replacement of defects or injury in biological tissue, comprising the steps of: a. placing a porous rigid base into a well in a mold; b. placing a porous hydrogel in the well on top of the porous rigid base; c. placing a first lid on the mold; d. introducing or injecting a first low viscosity polymer into the well of the mold; e. freezing the mold to about -20°C for about 4 to 24 hours and subsequently thawing the mold at about 23°C for about 4 to 12 hours; f. removing the first lid; g. placing a second lid on the mold; h. introducing or injecting a second low viscosity polymer into the well of mold; and i. freezing the mold to about -20°C for about 4 to 24 hours and subsequently thawing the mold at about 23°C for about 4 to 12 hours. a. placing a porous rigid base into a well in a mold; b. placing a porous hydrogel in the well on top of the porous rigid base; c. placing a first lid on the mold; d. introducing or injecting a first low viscosity polymer into the well of the mold; e. freezing the mold to about -20°C for about 4 to 24 hours and subsequently thawing the mold at about 23°C for about 4 to 12 hours; f. removing the first lid; g. placing a second lid on the mold; h. introducing or injecting a second low viscosity polymer into the well of mold; and i. freezing the mold to about -20°C for about 4 to 24 hours and subsequently thawing the mold at about 23°C for about 4 to 12 hours.
An assembly for heat shrinking foil onto packaged goods, consisting of: a) a lifting roller conveyor, b) a heater having an inlet or outlet opening, into which packaged goods can be delivered by means of the lifting roller conveyor, c) an air guide system for air circulation designed between the lifting roller conveyor and the heater, characterised in that d) the air guide system inside the heater has an air guide roof, and e) the heater has an intake socket, f) the air guide system of the lifting roller conveyor has an air extraction duct so that, by lifting the conveyor, sealing is simultaneously accomplished between the air extraction duct of the lifting roller conveyor and the intake socket of the heater and creates a suction effect underneath the pallet during the air circulation, by means of which the foil attaches firmly to the bottom area of the pallet. a) a lifting roller conveyor, b) a heater having an inlet or outlet opening, into which packaged goods can be delivered by means of the lifting roller conveyor, c) an air guide system for air circulation designed between the lifting roller conveyor and the heater, characterised in that d) the air guide system inside the heater has an air guide roof, and e) the heater has an intake socket, f) the air guide system of the lifting roller conveyor has an air extraction duct so that, by lifting the conveyor, sealing is simultaneously accomplished between the air extraction duct of the lifting roller conveyor and the intake socket of the heater and creates a suction effect underneath the pallet during the air circulation, by means of which the foil attaches firmly to the bottom area of the pallet.
A tool (20, 20-1, 20-2, 20-3, 20-4) comprising: a housing; a mechanism coupled to the housing for performing a job; a display (24, 114) coupled to the housing for presenting parameter set information; an input mechanism (26, 114) coupled to the display for selectively inputting a parameter set into the tool; a controller circuit board integrated with a processing unit, a communication unit configured to wirelessly transmit and receive selected parameter sets, a gyro unit, and a sound generator, and wherein each of which are connected to a battery; wherein the processing unit is configured to receive a parameter set from the communication device, and a signal from a strain gauge indicative of the torque acting on the tool and to send a release signal to a release mechanism, the release mechanism including a solenoid element disposed for movement along a longitudinal axis, and a release rod assembly moving longitudinally in response to movement along the longitudinal axis by the solenoid element; and characterized in that the release mechanism further includes a sleeve, a forward cylinder, a rearward cylinder and a plurality of balls disposed between the forward cylinder and the rearward cylinder. a housing; a mechanism coupled to the housing for performing a job; a display (24, 114) coupled to the housing for presenting parameter set information; an input mechanism (26, 114) coupled to the display for selectively inputting a parameter set into the tool; a controller circuit board integrated with a processing unit, a communication unit configured to wirelessly transmit and receive selected parameter sets, a gyro unit, and a sound generator, and wherein each of which are connected to a battery; wherein the processing unit is configured to receive a parameter set from the communication device, and a signal from a strain gauge indicative of the torque acting on the tool and to send a release signal to a release mechanism, the release mechanism including a solenoid element disposed for movement along a longitudinal axis, and a release rod assembly moving longitudinally in response to movement along the longitudinal axis by the solenoid element; and characterized in that the release mechanism further includes a sleeve, a forward cylinder, a rearward cylinder and a plurality of balls disposed between the forward cylinder and the rearward cylinder.
A method (700, 900) of reducing spring back of a sheet following a machining operation on the sheet, the method (700, 900) comprising: drawing (704, 902) a vacuum across a porous material of a machining support to hold a second surface of the sheet against a support surface of the machining support, the porous material of the machining support sealed on each surface except the support surface; maintaining (708, 904) the vacuum within the porous material while performing (706, 904) the machining operation through a first surface of the sheet opposite the second surface; machining (718, 908) indentations into the support surface of the machining support; and applying (714, 910) a sealing material within each of the indentations in the support surface. drawing (704, 902) a vacuum across a porous material of a machining support to hold a second surface of the sheet against a support surface of the machining support, the porous material of the machining support sealed on each surface except the support surface; maintaining (708, 904) the vacuum within the porous material while performing (706, 904) the machining operation through a first surface of the sheet opposite the second surface; machining (718, 908) indentations into the support surface of the machining support; and applying (714, 910) a sealing material within each of the indentations in the support surface.
A non-therapeutic method for treating bacteria, the method comprising: coupling a contacting portion of a treatment device with the bacteria through direct contact or indirect contact, wherein the indirect contact is through an acoustic coupling liquid, an intermediate solid structure, and/or tissue; generating ultrasound energy with the treatment device; generating electromagnetic energy with the treatment device; transmitting the ultrasound energy and the electromagnetic energy from the treatment device to the bacteria during the coupling with the bacteria, wherein the ultrasound is transmitted with an averaged sound intensity greater than or equal to 10 mW/cm 2 and less than or equal to 1 W/cm 2; and treating the bacteria with both the ultrasound energy and the electromagnetic energy generated by the treatment device to produce a killing effect on the bacteria, wherein at least one of the ultrasound energy or the electromagnetic energy is pulsed. coupling a contacting portion of a treatment device with the bacteria through direct contact or indirect contact, wherein the indirect contact is through an acoustic coupling liquid, an intermediate solid structure, and/or tissue; generating ultrasound energy with the treatment device; generating electromagnetic energy with the treatment device; transmitting the ultrasound energy and the electromagnetic energy from the treatment device to the bacteria during the coupling with the bacteria, wherein the ultrasound is transmitted with an averaged sound intensity greater than or equal to 10 mW/cm 2 and less than or equal to 1 W/cm 2; and treating the bacteria with both the ultrasound energy and the electromagnetic energy generated by the treatment device to produce a killing effect on the bacteria, wherein at least one of the ultrasound energy or the electromagnetic energy is pulsed.
A composition, comprising a polypeptide wherein the polypeptide consists of the amino acid sequence: SMLLLFFLGTISLSLCQDDQERC (SEQ ID NO: 1); SMLLLFFLGTISLSLCQ (SEQ ID NO:56); PMLLLFFLGTISLSLCQ (SEQ ID NO:57); or LLFFLGTISLSLCQDDQERC (SEQ ID NO: 65), and a pharmaceutically acceptable carrier. SMLLLFFLGTISLSLCQDDQERC (SEQ ID NO: 1); SMLLLFFLGTISLSLCQ (SEQ ID NO:56); PMLLLFFLGTISLSLCQ (SEQ ID NO:57); or LLFFLGTISLSLCQDDQERC (SEQ ID NO: 65),
An assembly comprising: - a support extending mainly in a longitudinal direction and defining a base, - at least one electronic component comprising a first side and a second side, the electronic component being fixed in contact with the bottom of the support, characterised in that the support defines: - a first reception housing extending in a first direction parallel to the longitudinal direction and, - a second receiving housing extending in a second direction substantially parallel to the longitudinal direction and receiving the second side of the electronic component, the assembly further comprising at least one flexible cord received in the first reception housing, the electronic component being fixed by snap-fastening to the support, the first side bearing on the flexible cord and compressing the flexible cord in a direction substantially perpendicular to the longitudinal direction and parallel to the bottom of the support. - a support extending mainly in a longitudinal direction and defining a base, - at least one electronic component comprising a first side and a second side, the electronic component being fixed in contact with the bottom of the support, characterised in that - a first reception housing extending in a first direction parallel to the longitudinal direction and, - a second receiving housing extending in a second direction substantially parallel to the longitudinal direction and receiving the second side of the electronic component,
A Cu alloy bonding wire for a semiconductor device, wherein among crystal orientations on a wire surface, an abundance ratio of a crystal orientation <110> having an angular difference of 15 degrees or less from a direction (y) perpendicular to one plane including a wire center axis (x) is 25% or more and 70% or less in average area percentage; wherein the Cu alloy bonding wire contains (i) optionally one or more of Ni, Pd, Pt, and Au for a total of 0.01 mass% or more and 3.00 mass% or less and/or (ii) optionally one or more of P, In, Ga, Ge, and Ag for a total of 0.001 mass% or more and 1.00 mass% or less, and (iii) a balance being Cu and incidental impurities; and wherein the abundance ratio of crystal orientations is measured as defined in the description.
A method for controlling a motion of a counter balance forklift truck, the method comprises: detecting that a steering command generated with an endless rotating steering device corresponds to a reference steering point, in response to the detection providing, by a control unit, at least two states for selecting a travel direction of the counter balance forklift truck, detecting a selected state among the at least two states in accordance with a detection of a change in a steering command generated with the endless rotating steering device of the counter balance forklift truck, and generating control signals, by the control unit, individually to a plurality of electric drive motors (220A, 220B) of the counter balance forklift truck, each of the plurality of the electric drive motors configured to generate a driving force to at least one driving wheel (110A, 110B), for controlling the motion of the counter balance forklift truck to meet the travel direction selected with the steering device. detecting that a steering command generated with an endless rotating steering device corresponds to a reference steering point, in response to the detection providing, by a control unit, at least two states for selecting a travel direction of the counter balance forklift truck, detecting a selected state among the at least two states in accordance with a detection of a change in a steering command generated with the endless rotating steering device of the counter balance forklift truck, and generating control signals, by the control unit, individually to a plurality of electric drive motors (220A, 220B) of the counter balance forklift truck, each of the plurality of the electric drive motors configured to generate a driving force to at least one driving wheel (110A, 110B), for controlling the motion of the counter balance forklift truck to meet the travel direction selected with the steering device.
A method of accessing a mobile device (28, 30) having an assigned address and acting as web server, the method comprising: storing the assigned address in a memory location; receiving at a portal web page, upon authorization based on authorization data received from a user at the portal web page, a request to access the device (28, 30); said request comprising a device identifier, received via the portal web page, that uniquely identifies the device (28, 30); and in response to said request to access the device (28, 30), identifying the device's (28, 30) stored address based on said device identifier, and re-routing a sender of said request from said portal to said stored address, the method further comprising: said assigned address comprises a dynamically assigned address; and receiving and storing in said memory location an updated dynamically assigned address; wherein said device identifier comprises a telephone number, a Mobile ID Number, an International Mobile Subscriber Identity or an International Mobile Equipment Identity. storing the assigned address in a memory location; receiving at a portal web page, upon authorization based on authorization data received from a user at the portal web page, a request to access the device (28, 30); said request comprising a device identifier, received via the portal web page, that uniquely identifies the device (28, 30); and in response to said request to access the device (28, 30), identifying the device's (28, 30) stored address based on said device identifier, and re-routing a sender of said request from said portal to said stored address, the method further comprising: said assigned address comprises a dynamically assigned address; and receiving and storing in said memory location an updated dynamically assigned address; said assigned address comprises a dynamically assigned address; and receiving and storing in said memory location an updated dynamically assigned address; wherein said device identifier comprises a telephone number, a Mobile ID Number, an International Mobile Subscriber Identity or an International Mobile Equipment Identity.
A fusion protein, wherein the fusion protein comprises an antiangiogenesis polypeptide HM-3 sequence, an interleukin 4 (IL-4) sequence and an Fc fragment of an antibody IgG1 in the molecule.
A system for presenting a mixed reality experience to one or more users, the system comprising: a head-mounted display device including a display unit for displaying a virtual object; and a computing system (4, 12) operatively coupled to the display device, the computing system generating the virtual object for display on the display device, the computing system positioning the virtual object as being body locked with respect to the display device for translation movements when it is determined the virtual object is not in a field of view provided by the display device, whereby the virtual object is insensitive to user head movements about at least one of an x-axis and a z-axis, wherein a y-axis is an axis down through the user's head, the z- axis is straight out from the user's face, perpendicular to the y-axis, and the x-axis is perpendicular to both the y and z axes, and the computing system positioning the virtual object as being world locked when it is determined the virtual object is in the field of view provided by the display device. a head-mounted display device including a display unit for displaying a virtual object; and a computing system (4, 12) operatively coupled to the display device, the computing system generating the virtual object for display on the display device, the computing system positioning the virtual object as being body locked with respect to the display device for translation movements when it is determined the virtual object is not in a field of view provided by the display device, whereby the virtual object is insensitive to user head movements about at least one of an x-axis and a z-axis, wherein a y-axis is an axis down through the user's head, the z- axis is straight out from the user's face, perpendicular to the y-axis, and the x-axis is perpendicular to both the y and z axes, and the computing system positioning the virtual object as being world locked when it is determined the virtual object is in the field of view provided by the display device.
An intraocular lens comprising: a lens body; and a mask (1008, 2034a, 2034b, 2100) with an aperture (2038a, 2038b, 2128), for improving depth of focus, characterized in that the mask (1008, 2034a, 2034b, 2100) is configured to fracture along a plurality of fracture pathways when the intraocular lens is manipulated. a lens body; and a mask (1008, 2034a, 2034b, 2100) with an aperture (2038a, 2038b, 2128), for improving depth of focus, characterized in that the mask (1008, 2034a, 2034b, 2100) is configured to fracture along a plurality of fracture pathways when the intraocular lens is manipulated.
A system for thermally and temporarily slowing, inhibiting or blocking the activity of a neuronal structure, comprising: - a matrix injectable in said neuronal structure to be treated, loaded with plasmonic nanoparticles; and - a NIR laser source whose emissions target said matrix loaded with plasmonic nanoparticles, wherein said matrix comprises a suspension of microbeads loaded with said nanoparticles and suspended in an injectable solution. - a matrix injectable in said neuronal structure to be treated, loaded with plasmonic nanoparticles; and - a NIR laser source whose emissions target said matrix loaded with plasmonic nanoparticles, wherein said matrix comprises a suspension of microbeads loaded with said nanoparticles and suspended in an injectable solution.
Lighting device for vehicles, having: a primary hologram for generating a lighting function in response to illumination with illumination light, and a secondary hologram system, wherein the secondary hologram system has: a waveguide substrate, an input coupling hologram for coupling light from a light source into the waveguide substrate, and an output coupling hologram for coupling light out of the waveguide substrate in the form of the illumination light. a primary hologram for generating a lighting function in response to illumination with illumination light, and a secondary hologram system, wherein the secondary hologram system has: a waveguide substrate, an input coupling hologram for coupling light from a light source into the waveguide substrate, and an output coupling hologram for coupling light out of the waveguide substrate in the form of the illumination light. a waveguide substrate, an input coupling hologram for coupling light from a light source into the waveguide substrate, and an output coupling hologram for coupling light out of the waveguide substrate in the form of the illumination light.
An adjustable drill comprising: a drill body having a rotational axis, wherein the drill body has two face surfaces (208, 210) comprising a drive feature; and having at least one cartridge (204, 206) mounted on each face surface with one of the cartridges (204, 206) being movable relative to the face surface, and each of the cartridges cooperating with the drive feature to be driven therewith; the cartridges (204, 206) being releasably affixed to the drill body; characterised by further comprising a plurality of cutting inserts releasably affixed to each cartridge (204, 206) wherein the adjustable cartridge allows adjustment of the position of the cutting inserts associated with the adjustable cartridge, such that the cutting inserts on each cartridge are disposed relative to one another in inboard and outboard positions, and each cutting insert has a cutting edge, with the inner insert cutting edge extending from the front of the drill to the greatest extent and the cutting edges of successive inserts being positioned away from the front of the drill such that each insert begins forming a cut in a workpiece before the next outboard insert begins to cut, and a centrally disposed drilling system having first and second cutting edges disposed adjacent the rotational axis. a drill body having a rotational axis, wherein the drill body has two face surfaces (208, 210) comprising a drive feature; and having at least one cartridge (204, 206) mounted on each face surface with one of the cartridges (204, 206) being movable relative to the face surface, and each of the cartridges cooperating with the drive feature to be driven therewith; the cartridges (204, 206) being releasably affixed to the drill body; characterised by further comprising a plurality of cutting inserts releasably affixed to each cartridge (204, 206) wherein the adjustable cartridge allows adjustment of the position of the cutting inserts associated with the adjustable cartridge, such that the cutting inserts on each cartridge are disposed relative to one another in inboard and outboard positions, and each cutting insert has a cutting edge, with the inner insert cutting edge extending from the front of the drill to the greatest extent and the cutting edges of successive inserts being positioned away from the front of the drill such that each insert begins forming a cut in a workpiece before the next outboard insert begins to cut, and a centrally disposed drilling system having first and second cutting edges disposed adjacent the rotational axis.