mhurhangee/ep-ind-claims huggingface dataset:
Object detection system for a motor vehicle, comprising: - one or more arrays of electroluminescent light sources (403, 407); - one or more arrays of light sensors (402, 408); - a calculating unit; wherein at least one of the electroluminescent light sources (403, 407) is able to emit a signal, at least one of the sensors (404, 408) is able to receive the emitted signal that has been reflected by an object, the calculating unit is able to calculate, by triangulation, the position of the object on the basis of the position, in one of the arrays of electroluminescent light sources (403, 407), of said at least one of the electroluminescent light sources (403, 407) able to emit a signal and of the position, in one of the arrays of light sensors, of said at least one of the sensors (404, 408) able to receive the signal reflected by the object. characterized in that one or more arrays of electroluminescent light sources (403, 407) are monolithic arrays of monolithic light-emitting diode arrays and in that said one or more one or more light sensor (404, 408) arrays are monolithic light-emitting diode arrays light-emitting diode arrays used as light sensors (404, 408). - one or more arrays of electroluminescent light sources (403, 407); - one or more arrays of light sensors (402, 408); - a calculating unit; wherein at least one of the electroluminescent light sources (403, 407) is able to emit a signal, at least one of the sensors (404, 408) is able to receive the emitted signal that has been reflected by an object, the calculating unit is able to calculate, by triangulation, the position of the object on the basis of the position, in one of the arrays of electroluminescent light sources (403, 407), of said at least one of the electroluminescent light sources (403, 407) able to emit a signal and of the position, in one of the arrays of light sensors, of said at least one of the sensors (404, 408) able to receive the signal reflected by the object. characterized in that one or more arrays of electroluminescent light sources (403, 407) are monolithic arrays of monolithic light-emitting diode arrays and in that said one or more one or more light sensor (404, 408) arrays are monolithic light-emitting diode arrays light-emitting diode arrays used as light sensors (404, 408).
A support device for a control system which comprises a control device adapted to control a control target and a display device connected to the control device, the support device comprising: a means adapted to generate, according to a user operation, a first user program comprising a sequence program, which is executable in the control device; a means adapted to generate a second user program for realizing a screen display on the display device according to the user operation; a means adapted to generate a native code to be executed by a calculation processing unit of the control device, and sequence circuit information, which is information for visualizing a sequence circuit defined by the sequence program, whereby the sequence circuit is a combination of one or a plurality of circuit components, from the first user program; a means adapted to generate an object code to be executed by a calculation processing unit of the display device from the second user program; a means adapted to transfer the native code to the control device; and a means adapted to transfer the object code and the sequence circuit information to the display device. a means adapted to generate, according to a user operation, a first user program comprising a sequence program, which is executable in the control device; a means adapted to generate a second user program for realizing a screen display on the display device according to the user operation; a means adapted to generate a native code to be executed by a calculation processing unit of the control device, and sequence circuit information, which is information for visualizing a sequence circuit defined by the sequence program, whereby the sequence circuit is a combination of one or a plurality of circuit components, from the first user program; a means adapted to generate an object code to be executed by a calculation processing unit of the display device from the second user program; a means adapted to transfer the native code to the control device; and a means adapted to transfer the object code and the sequence circuit information to the display device.
Process for the production of 7α-(methoxycarbonyl)-3-oxo-17α-pregn-4-9 -dien-21,17-carbolactone comprising the elimination of a molecule of water from 11α-hydroxy-7α-(methoxycarbonyl)-3-oxo-17α-pregn-4-en-21,17-carbolactone by reaction with the mixture (Et) 2 NCF 2 CHFCF 3 /(Et) 2 NFC=CFCF 3, wherein: - the amounts of the two components of said mixture are variable in ratios such that, in a gas chromatographic analysis, the area of the minority component is not less than 75% of the area of the majority component; - the intermediate is reacted with the mixture in a pure chlorinated solvent or in a mixture of solvents in which at least one of the components is a chlorinated solvent. - the amounts of the two components of said mixture are variable in ratios such that, in a gas chromatographic analysis, the area of the minority component is not less than 75% of the area of the majority component; - the intermediate is reacted with the mixture in a pure chlorinated solvent or in a mixture of solvents in which at least one of the components is a chlorinated solvent.
A computer-implemented method for handling a storage input/output, I/O, operation originating from a virtual machine, VM, and destined for a virtual disk, the VM running on a first host, wherein the first host is part of a cluster of host computers (111A, 111B... 111N) each having its own physical storage resources (117, 118), the first host containing a first driver, the method comprising: receiving, by the first driver, the I/O operation; retrieving, from the I/O operation, an identifier for a virtual disk object representing the virtual disk, the virtual disk object being composed of virtual component objects, the virtual component objects (220A-220F) being mappable to any available physical storage resources (117, 118) throughout the cluster of host computers (111A-N); determining, using the identifier, a host (111A, 111B) which serves as a virtual disk coordinator host of the virtual disk object by accessing a database of the first host, wherein the virtual disk coordinator host controls access to the virtual disk object; performing one of: transmitting, by the first driver, the I/O operation to a second driver on a second host which serves as the virtual disk coordinator host, or updating the database to set the first host to be the virtual disk coordinator host of the virtual disk object; and executing the I/O operation by the virtual disk coordinator host (111A, 111B) by communicating with the hosts (111A, 111B... 111N) that are coordinators for the virtual component objects (220A-220F) of the virtual disk object. receiving, by the first driver, the I/O operation; retrieving, from the I/O operation, an identifier for a virtual disk object representing the virtual disk, the virtual disk object being composed of virtual component objects, the virtual component objects (220A-220F) being mappable to any available physical storage resources (117, 118) throughout the cluster of host computers (111A-N); determining, using the identifier, a host (111A, 111B) which serves as a virtual disk coordinator host of the virtual disk object by accessing a database of the first host, wherein the virtual disk coordinator host controls access to the virtual disk object; performing one of: transmitting, by the first driver, the I/O operation to a second driver on a second host which serves as the virtual disk coordinator host, or updating the database to set the first host to be the virtual disk coordinator host of the virtual disk object; and transmitting, by the first driver, the I/O operation to a second driver on a second host which serves as the virtual disk coordinator host, or updating the database to set the first host to be the virtual disk coordinator host of the virtual disk object; and executing the I/O operation by the virtual disk coordinator host (111A, 111B) by communicating with the hosts (111A, 111B... 111N) that are coordinators for the virtual component objects (220A-220F) of the virtual disk object.
An embedder (300; 700) for embedding a watermark (341; 742) to be embedded into an input information representation (310; 710) which represents an audio signal, or which represents a video signal, or which represents a computer program, or which represents an image, or which represents a text, comprising: an information adder (330; 740) implemented to provide the input information representation (310; 710) with the watermark (341; 742) to be embedded and with additional information (343; 762) to be added in order to obtain an information representation (320; 720) provided with the watermark to be embedded and with the additional information to be added, wherein the additional information to be added comprises descriptive information describing the embedding of at least one watermark into the information representation (320; 720) provided with the watermark to be embedded and with the additional information; wherein the information adder (330; 740) is implemented to add the additional information (341; 762), which is to be added, within a timeslot following synchronization information contained in the input information representation (310; 710). an information adder (330; 740) implemented to provide the input information representation (310; 710) with the watermark (341; 742) to be embedded and with additional information (343; 762) to be added in order to obtain an information representation (320; 720) provided with the watermark to be embedded and with the additional information to be added, wherein the additional information to be added comprises descriptive information describing the embedding of at least one watermark into the information representation (320; 720) provided with the watermark to be embedded and with the additional information; wherein the information adder (330; 740) is implemented to add the additional information (341; 762), which is to be added, within a timeslot following synchronization information contained in the input information representation (310; 710).
Trial neck device for detecting and/or measuring the physical/structural characteristics of a bone joint of a patient for making a hip prosthesis, said trial neck device comprising at least one base component (2, 20, 200) and at least one apical or terminal component (3, 30) constrained to said at least one base component (2, 20, 200) and moveable with respect to said at least one base component (2, 20, 200) so as to allow said detecting or said measuring, said at least one base component (2, 20, 200) being designed to be connected to a trial rasp or to a final prosthetic component intended to be constrained to the femur of a patient, whereas said at least one apical component (3, 30) being designed to be arranged proximal to the cotyle of the patient, wherein the device comprises adjustment means for adjusting the distance and/or the angular position of said at least one apical component (3, 30) with respect to said at least one base component (2, 20, 200), said adjustment means being operable with joint reduced, so that said device is suitable for detecting and/or measuring said physical/structural characteristics with joint reduced, characterised in that it comprises at least two of the following adjustment means: adjustment means for adjusting the distance of said apical component (3, 30) with respect to said at least one base component (2, 20, 200), adjustment means for adjusting the angular position of said at least one apical component (3, 30) with respect to said at least one base component (2, 20, 200) and adjustment means for adjusting the lateral-medial position of said at least one apical component (3, 30) with respect to said at least one base component (2, 20, 200).
A polyethylene formulation comprising: from 45 weight percent (wt.%) to 90 wt.% of a medium density polyethylene (MDPE) having a density of from 0.930 grams per cubic centimeter (g/cc) to 0.950 g/cc and a melt index (I 2) from 0.05 grams per ten minutes (g/10 min) to 0.5 g/10 min; from 10 wt.% to 50 wt.% of a polyethylene composition having a density from 0.910 g/cc to 0.936 g/cc and a melt index (I 2) from 0.25 g/10 min to 2.0 g/10 min; and from 0.5 wt.% to 5% of a masterbatch composition; wherein the polyethylene composition comprises: a first polyethylene fraction area in a temperature range of 45°C to 87°C of an elution profile via improved comonomer composition distribution (iCCD) analysis method, wherein the first polyethylene fraction area comprises at least 50% of the total area of the elution profile; a second polyethylene fraction area in a temperature range of 95°C to 120°C of an elution profile via improved comonomer composition distribution (iCCD) analysis method, wherein the second polyethylene fraction area comprises less than or equal to 23% of the total area of the elution profile; and wherein a ratio of the first polyethylene fraction area to the second polyethylene fraction area is 2.9 to 12.5. from 45 weight percent (wt.%) to 90 wt.% of a medium density polyethylene (MDPE) having a density of from 0.930 grams per cubic centimeter (g/cc) to 0.950 g/cc and a melt index (I 2) from 0.05 grams per ten minutes (g/10 min) to 0.5 g/10 min; from 10 wt.% to 50 wt.% of a polyethylene composition having a density from 0.910 g/cc to 0.936 g/cc and a melt index (I 2) from 0.25 g/10 min to 2.0 g/10 min; and from 0.5 wt.% to 5% of a masterbatch composition; a first polyethylene fraction area in a temperature range of 45°C to 87°C of an elution profile via improved comonomer composition distribution (iCCD) analysis method, wherein the first polyethylene fraction area comprises at least 50% of the total area of the elution profile; a second polyethylene fraction area in a temperature range of 95°C to 120°C of an elution profile via improved comonomer composition distribution (iCCD) analysis method, wherein the second polyethylene fraction area comprises less than or equal to 23% of the total area of the elution profile; and wherein a ratio of the first polyethylene fraction area to the second polyethylene fraction area is 2.9 to 12.5.
Method for signalling a connection request between data processing devices, in which broadcast radio is used to transmit a connection call that is used to call upon at least one data terminal to use a radio network to set up a connection that is suitable for transmitting the data, characterized in that access authorization for the data is transmitted with the connection call.
An extended transdermal delivery device, the device comprising: a buprenorphine composition formulated to deliver buprenorphine to a subject for seven days or longer, the buprenorphine composition comprising: - buprenorphine; - an α-hydroxy acid, wherein the weight ratio of α-hydroxy acid to burprenorphine is 50% or less; - lauryl lactate, or glycerol monooleate, or a combination of both types of esters,; and - a pressure sensitive adhesive; and a backing layer. a buprenorphine composition formulated to deliver buprenorphine to a subject for seven days or longer, the buprenorphine composition comprising: - buprenorphine; - an α-hydroxy acid, wherein the weight ratio of α-hydroxy acid to burprenorphine is 50% or less; - lauryl lactate, or glycerol monooleate, or a combination of both types of esters,; and - a pressure sensitive adhesive; and - buprenorphine; - an α-hydroxy acid, wherein the weight ratio of α-hydroxy acid to burprenorphine is 50% or less; - lauryl lactate, or glycerol monooleate, or a combination of both types of esters,; and - a pressure sensitive adhesive; and a backing layer.
A unitary optic member for directing light from a plurality of LED light sources in spaced relationship to one another on a board beneath the optic member, the optic member having a plurality of lens portions each for directing light from one of the plurality of LED light sources, the lens portions being surrounded by and interconnected by a non-lens portion, the optic member comprising: a molded polymeric layer forming an outermost layer (16, 44) and a pocket-space of each of the lens portions and forming the non-lens portion therebetween; characterized in that for each lens portion, an inner surface shape is formed by an innermost polymeric layer (22, 42) and an intermediate molded polymeric layer (20, 46) within the pocket-space, the innermost polymeric layer (22, 42) is overmolded to the adjacent intermediate molded layer (20, 46) with layer-to-layer interface bonding, the outermost and intermediate polymeric layers (16, 20, 44, 46) being overmolded to one another with layer-to-layer interface bonding. a molded polymeric layer forming an outermost layer (16, 44) and a pocket-space of each of the lens portions and forming the non-lens portion therebetween; characterized in that for each lens portion, an inner surface shape is formed by an innermost polymeric layer (22, 42) and an intermediate molded polymeric layer (20, 46) within the pocket-space, the innermost polymeric layer (22, 42) is overmolded to the adjacent intermediate molded layer (20, 46) with layer-to-layer interface bonding, the outermost and intermediate polymeric layers (16, 20, 44, 46) being overmolded to one another with layer-to-layer interface bonding.
Device for admetering a plurality of components in accordance with a predetermined recipe, comprising scales including a recipe memory, and a transponder, characterised in that the scales are equipped with a transponder reader, that the predetermined recipe can be stored on the transponder and can be transferred by way of the transponder reader to the recipe memory and that the transponder reader is so equipped that it is additionally usable for checking the admetered components during the admetering process.
A method of forming an optical device, the method comprising the steps of: (a) forming spacers on a sacrificial mesa, the mesa having vertical sidewalls, the spacers being formed from a first electrically insulating, optically transparent material, and having an internal face facing the mesa sidewalls, and an opposing external face; (b) depositing a reflective, electrically conducting material so as to form a mirror layer on the external face of the spacers; (c) removing the sacrificial mesa so as to form a pocket between the internal faces of the spacers; and (d) installing a die having substantially vertical sidewalls into the pocket between the internal faces of the spacers. (a) forming spacers on a sacrificial mesa, the mesa having vertical sidewalls, the spacers being formed from a first electrically insulating, optically transparent material, and having an internal face facing the mesa sidewalls, and an opposing external face; (b) depositing a reflective, electrically conducting material so as to form a mirror layer on the external face of the spacers; (c) removing the sacrificial mesa so as to form a pocket between the internal faces of the spacers; and (d) installing a die having substantially vertical sidewalls into the pocket between the internal faces of the spacers.
A system for performing robotically-assisted surgery, comprising: an x-ray imaging device comprising an x-ray source and an x-ray detector mounted to a support structure such that at least one of the x-ray source and the x-ray detector is configured to rotate with respect to the support structure to obtain x-ray images from different projection angles relative to an object being imaged; and a robotic arm having a first end configured to extend into an imaging area between the source and the detector and a second end attached to the support structure; wherein the at least one of the x-ray source and the x-ray detector is configured to translate in at least one direction with respect to a first portion of the support structure, and the second end of the robotic arm is attached to a second portion of the support structure that translates with the at least one of the x-ray source and the x-ray detector relative to the first portion of the support structure. an x-ray imaging device comprising an x-ray source and an x-ray detector mounted to a support structure such that at least one of the x-ray source and the x-ray detector is configured to rotate with respect to the support structure to obtain x-ray images from different projection angles relative to an object being imaged; and a robotic arm having a first end configured to extend into an imaging area between the source and the detector and a second end attached to the support structure; wherein the at least one of the x-ray source and the x-ray detector is configured to translate in at least one direction with respect to a first portion of the support structure, and the second end of the robotic arm is attached to a second portion of the support structure that translates with the at least one of the x-ray source and the x-ray detector relative to the first portion of the support structure.
An optical fiber provided with a system for cooling the optical fiber, the system comprising: a flexible heat sink member in thermal contact with the optical fiber; a heat pipe evaporator configured to dissipate heat from the optical fiber; and a thermal storage medium in thermal contact with the flexible heat sink member and the heat pipe evaporator, wherein the optical fiber is coiled around the flexible heat sink member; and the flexible heat sink member is constructed and arranged to provide flexibility in a radial direction so as to compensate for any mismatch in coefficient of thermal expansion between material of the optical fiber and material of the flexible heat sink member and to maintain direct thermal contact between the optical fiber and the flexible heat sink member. a flexible heat sink member in thermal contact with the optical fiber; a heat pipe evaporator configured to dissipate heat from the optical fiber; and a thermal storage medium in thermal contact with the flexible heat sink member and the heat pipe evaporator, wherein the optical fiber is coiled around the flexible heat sink member; and the flexible heat sink member is constructed and arranged to provide flexibility in a radial direction so as to compensate for any mismatch in coefficient of thermal expansion between material of the optical fiber and material of the flexible heat sink member and to maintain direct thermal contact between the optical fiber and the flexible heat sink member.