mhurhangee/ep-ind-claims huggingface dataset:
A supplemental device for attachment to an injection device including a dosage window covering a sleeve on which dose values are marked, the supplemental device comprising: a main body; an arrangement for supporting the main body of the supplemental device in a predetermined positional relationship with the injection device; a transparent protection window located at a surface of the main body that is aligned with the dosage window of the injection pen when in use; and an optical sensor arrangement supported in the main body and having a sensor directed at the protection window, the sensor being capable of capturing images of said dosage window, wherein the protection window is configured as a toric lens with an optical power, wherein a surface of the protection window that is furthest from the sensor arrangement lies on a curved surface of an imaginary cylinder having an axis coincident with a longitudinal axis of the injection device when the supplemental device is installed on the injection device, and wherein the surface of the protection window that is furthest from the sensor arrangement lies in close proximity with a dosage window of the injection device when the supplemental device is installed on the injection device. a main body; an arrangement for supporting the main body of the supplemental device in a predetermined positional relationship with the injection device; a transparent protection window located at a surface of the main body that is aligned with the dosage window of the injection pen when in use; and an optical sensor arrangement supported in the main body and having a sensor directed at the protection window, the sensor being capable of capturing images of said dosage window, wherein the protection window is configured as a toric lens with an optical power, wherein a surface of the protection window that is furthest from the sensor arrangement lies on a curved surface of an imaginary cylinder having an axis coincident with a longitudinal axis of the injection device when the supplemental device is installed on the injection device, and wherein the surface of the protection window that is furthest from the sensor arrangement lies in close proximity with a dosage window of the injection device when the supplemental device is installed on the injection device.
An assembly for storing thermal energy comprising a phase change material, PCM, storage vessel and at least one heat transfer fluid receptacle, HTF receptacle, - the PCM storage vessel being defined by a thermally conductive wall, the PCM storage vessel comprising an inverted tapered portion, the inverted tapered portion having a tip portion and a base portion, the tip portion having a diameter less than the diameter of the base portion, the tip portion being arranged relatively beneath the base portion, - the at least one HTF receptacle being provided adjacent to and in thermal communication with at least a portion of the PCM storage vessel, thermal communication between the PCM storage vessel and the at least one HTF receptacle occurring via the thermally conductive wall, the HTF receptacle comprising a portion for receiving thermal energy from an external thermal energy source, the portion being adjacent the tip portion of the inverted tapered portion; and wherein the assembly being adapted such that thermal energy provided to a PCM in the PCM vessel is substantially received at a first portion of the at least one HTF receptacle being adjacent and in thermal communication with the tip portion of the inverted tapered portion of the PCM vessel and thermal energy to be extracted from the PCM is substantially extracted at a second portion of the at least one HTF receptacle being distal the tip portion of the inverted tapered portion of the PCM vessel. - the PCM storage vessel being defined by a thermally conductive wall, the PCM storage vessel comprising an inverted tapered portion, the inverted tapered portion having a tip portion and a base portion, the tip portion having a diameter less than the diameter of the base portion, the tip portion being arranged relatively beneath the base portion, - the at least one HTF receptacle being provided adjacent to and in thermal communication with at least a portion of the PCM storage vessel, thermal communication between the PCM storage vessel and the at least one HTF receptacle occurring via the thermally conductive wall, the HTF receptacle comprising a portion for receiving thermal energy from an external thermal energy source, the portion being adjacent the tip portion of the inverted tapered portion; and
A method of growing mono crystalline germanium crystals in a crystal growth furnace including a heating source, a plurality of heating zones, an ampoule and a crucible, the method comprising: loading raw germanium material into the crucible; sealing the crucible and the container; placing the crucible into the crystal growth furnace having a crucible support; melting the raw germanium material in the crucible to create a melt; controlling a crystallizing temperature gradient of the melt while placing the melt in contact with the seed crystal; forming a monocrystalline germanium ingot via movement of the crystallizing temperature gradient and/or the crucible relative to each other; and cooling the monocrystalline germanium ingot, wherein monocrystalline germanium ingots having a micro-pit density of greater than 0.025/cm 2 and less than 0.51/cm 2 are reproducibly provided, characterised in that the grown crystal is cooled via a vertical gradient freeze process and/or vertical Bridgman process, at a cooling rate of 3 °C /hour for the first 5 hours and of 30 °C /hour to 45 °C /hour for a remaining period of the cooling process. loading raw germanium material into the crucible; sealing the crucible and the container; placing the crucible into the crystal growth furnace having a crucible support; melting the raw germanium material in the crucible to create a melt; controlling a crystallizing temperature gradient of the melt while placing the melt in contact with the seed crystal; forming a monocrystalline germanium ingot via movement of the crystallizing temperature gradient and/or the crucible relative to each other; and cooling the monocrystalline germanium ingot, wherein monocrystalline germanium ingots having a micro-pit density of greater than 0.025/cm 2 and less than 0.51/cm 2 are reproducibly provided, characterised in that the grown crystal is cooled via a vertical gradient freeze process and/or vertical Bridgman process, at a cooling rate of 3 °C /hour for the first 5 hours and of 30 °C /hour to 45 °C /hour for a remaining period of the cooling process.
A molding comprising - a matrix component comprising melamine-formaldehyde condensate and - embedded in the matrix component separate, foamed polystyrene particles and one or more solid additives selected from the group consisting of (i) inorganic fillers and (ii) flame retardants, wherein - the ratio of the total mass of the melamine-formaldehyde condensate to the total mass of the separate, foamed polystyrene particles is greater than 2.2 and - the density of the molding is in the range from 19 to 50 kg/m 3. - a matrix component comprising melamine-formaldehyde condensate and - embedded in the matrix component separate, foamed polystyrene particles and one or more solid additives selected from the group consisting of (i) inorganic fillers and (ii) flame retardants, wherein separate, foamed polystyrene particles and one or more solid additives selected from the group consisting of (i) inorganic fillers and (ii) flame retardants, - the ratio of the total mass of the melamine-formaldehyde condensate to the total mass of the separate, foamed polystyrene particles is greater than 2.2 and - the density of the molding is in the range from 19 to 50 kg/m 3.
Solenoid valve comprising a first port, a second port, a valve element and a valve seat arranged between said first port and said second port, a coil and a yoke arrangement, said coil being magnetically linked to said yoke arrangement, said yoke arrangement having a movable armature, wherein said valve element is controlled by a pressure difference between a first pressure on a first side of said valve element and a second pressure on a second side of said valve element, at least one of said first pressure and said second pressure being controlled by means of said armature, wherein said armature comprises a first front face at a first end and a second front face at a second end opposite said first end, said first front face and said second front face being connected by a first flow path, wherein said first flow path has first throttling means for keeping low a flow rate of a fluid flowing through said first flow path, a second flow path connects said first side and said second side of said valve element, said second flow path having second throttling means for keeping a low flow rate of a fluid flowing through said second flow path, and said second flow path is arranged between said valve element and a wall of a housing surrounding said valve element, said first flow path is arranged between said armature and a wall of the housing surrounding said armature, wherein said valve element and said armature are arranged within a tubular housing one behind the other.
A sound transmission device for connection to an exhaust system of a vehicle, the exhaust system being configured to channel exhaust gases along a flow path from an engine to at least one exhaust outlet, the sound transmission device comprising: a first sound inlet port and a first sound outlet port, the sound transmission device being configured to transmit engine-generated sound pulses from the first sound inlet port to the first sound outlet port whilst preventing the flow of exhaust gases from the first sound inlet port to the first sound outlet port; and a diaphragm (30; 47) housed in a chamber connected to the first sound inlet port, the diaphragm being connected across the chamber and configured such that, in response to engine-generated sound pulses being conducted from the first sound inlet port of the sound transmission device into the chamber, the diaphragm vibrates so as to transmit the engine-generated sound pulses across the diaphragm from a first side of the chamber at which the first sound inlet port of the sound transmission device is located to a second side of the chamber at which the first sound outlet port of the sound transmission device is located, the chamber being divided into a first volume, to the first side of the chamber, and a second volume, to the second side of the chamber; characterised in that the first volume is defined by the diaphragm, a first end wall and a first flexible membrane connected between the diaphragm and the first end wall to enclose the first volume, and the second volume is defined by the diaphragm a second end wall and a second flexible membrane connected between the diaphragm and the second end wall to enclose the second volume. a first sound inlet port and a first sound outlet port, the sound transmission device being configured to transmit engine-generated sound pulses from the first sound inlet port to the first sound outlet port whilst preventing the flow of exhaust gases from the first sound inlet port to the first sound outlet port; and a diaphragm (30; 47) housed in a chamber connected to the first sound inlet port, the diaphragm being connected across the chamber and configured such that, in response to engine-generated sound pulses being conducted from the first sound inlet port of the sound transmission device into the chamber, the diaphragm vibrates so as to transmit the engine-generated sound pulses across the diaphragm from a first side of the chamber at which the first sound inlet port of the sound transmission device is located to a second side of the chamber at which the first sound outlet port of the sound transmission device is located, the chamber being divided into a first volume, to the first side of the chamber, and a second volume, to the second side of the chamber; characterised in that the first volume is defined by the diaphragm, a first end wall and a first flexible membrane connected between the diaphragm and the first end wall to enclose the first volume, and the second volume is defined by the diaphragm a second end wall and a second flexible membrane connected between the diaphragm and the second end wall to enclose the second volume.
Submarine exploration system comprising: a. a master submarine drone which is designed to move autonomously according to a predetermined flight plan and comprises at least two seabed characterization systems and a communication module for transmitting communication signals; b. a plurality of follower submarine drones (31, 32, 33, 34, 35, 36) which each comprise at least one magnetic field sensor capable of measuring the magnetic field in the vicinity of the follower drone, each follower drone further comprising a communication module for receiving communication signals from the master drone; c. the master drone being designed to transmit navigation instructions to the follower drones and each follower drone being designed to move autonomously according to the movement instruction so that its movement is slaved to the movement of the master drone. a. a master submarine drone which is designed to move autonomously according to a predetermined flight plan and comprises at least two seabed characterization systems and a communication module for transmitting communication signals; b. a plurality of follower submarine drones (31, 32, 33, 34, 35, 36) which each comprise at least one magnetic field sensor capable of measuring the magnetic field in the vicinity of the follower drone, each follower drone further comprising a communication module for receiving communication signals from the master drone; c. the master drone being designed to transmit navigation instructions to the follower drones and each follower drone being designed to move autonomously according to the movement instruction so that its movement is slaved to the movement of the master drone.
A method of forming an ophthalmic lens for an eye, the eye having an in-focus visual acuity and a depth of focus, the ophthalmic lens comprising: an optic having a central axis and a clear aperture disposed about the central axis, the optic comprising a first surface and an opposing second surface, the first and second surfaces together configured to introduce at least some asymmetric aberration to the eye to extend the depth of focus while maintaining the in-focus visual acuity, wherein the asymmetric aberration is a higher order asymmetric aberration, and wherein the optic is further configured to correct for one or more non-asymmetric higher order aberrations. an optic having a central axis and a clear aperture disposed about the central axis, the optic comprising a first surface and an opposing second surface, the first and second surfaces together configured to introduce at least some asymmetric aberration to the eye to extend the depth of focus while maintaining the in-focus visual acuity, wherein the asymmetric aberration is a higher order asymmetric aberration, and wherein the optic is further configured to correct for one or more non-asymmetric higher order aberrations.
An onboard unit for communicating with a vehicular identification system, in particular a road toll, parking space management or access system, comprising: a housing attachable to an exterior surface of a windscreen of a vehicle; a transceiver for radio communication with the identification system; and a processor coupled to the transceiver and being configured to communicate with the identification system via the transceiver; the transceiver and processor being contained in said housing; characterized in that the onboard unit comprises a tampering protection unit which is split into two parts (29, 30), the first part being contained in said housing and the second part being attachable to an inner surface of the windscreen; wherein the first and the second part (29, 30) each comprise a near field transceiver (32, 33), which near field transceivers (32, 33) are configured to establish a wireless connection between said first and second parts (29, 30) when a radio connection with the identification system is established; and wherein the tampering protection unit is configured to detect a disruption of said wireless connection and, upon detection, to trigger an alarm event in the first part. a housing attachable to an exterior surface of a windscreen of a vehicle; a transceiver for radio communication with the identification system; and a processor coupled to the transceiver and being configured to communicate with the identification system via the transceiver; the transceiver and processor being contained in said housing; characterized in that the onboard unit comprises a tampering protection unit which is split into two parts (29, 30), the first part being contained in said housing and the second part being attachable to an inner surface of the windscreen; wherein the first and the second part (29, 30) each comprise a near field transceiver (32, 33), which near field transceivers (32, 33) are configured to establish a wireless connection between said first and second parts (29, 30) when a radio connection with the identification system is established; and wherein the tampering protection unit is configured to detect a disruption of said wireless connection and, upon detection, to trigger an alarm event in the first part.
An arrangement for the protection of electrical lines a gainst mechanical damage, which are used for the electrically conducting connection of an electrical device, which is rotatable around its axis, with a fixed point which is mounted in the same apparatus as the rotatable device, characterized in - that within an outer tube atleasttwo inner tubes (7, 8) fort the insertion of an electrical line each are mounted separate from each other, the outer tube having a significant greater inside width than the outer diameter of the innertubes (7,8) which have within the outertube a greater length as the same, - that a circular disc is positioned atone end of the outertube which is rotatable in circumferential direction within the same, - that the inner tubes (7, 8) penetrate through separated through holes of the disc such, that they project from the same with a predetermined length, and - that the innertubes(7,8) are fixed within a holding member at the other end of the outertube which can be moved within the same in axial direction and the inner tubes (7,8) penetrate the holding member completely. - that within an outer tube atleasttwo inner tubes (7, 8) fort the insertion of an electrical line each are mounted separate from each other, the outer tube having a significant greater inside width than the outer diameter of the innertubes (7,8) which have within the outertube a greater length as the same, - that a circular disc is positioned atone end of the outertube which is rotatable in circumferential direction within the same, - that the inner tubes (7, 8) penetrate through separated through holes of the disc such, that they project from the same with a predetermined length, and - that the innertubes(7,8) are fixed within a holding member at the other end of the outertube which can be moved within the same in axial direction and the inner tubes (7,8) penetrate the holding member completely.
A position sensing system, having: - a matrix of display modules that form a display screen having a display surface; characterized by: - a plurality of mounting brackets mounted to the display modules, each mounting bracket including a module connector and; - a plurality of system modules mounted to the mounting brackets wherein at least some of the system modules include radiation sensors and wherein at least some of the system modules include radiation sources; wherein each module connector includes two sets of connection points, and wherein corresponding connection points in each set are electrically coupled to one another, and wherein each module connector provides an electrical connection between adjacent system modules. - a matrix of display modules that form a display screen having a display surface; - a plurality of mounting brackets mounted to the display modules, each mounting bracket including a module connector and; - a plurality of system modules mounted to the mounting brackets wherein at least some of the system modules include radiation sensors and wherein at least some of the system modules include radiation sources;
A drum apparatus of an imaging device comprising: a non-magnetic imaging cylinder having an outer surface; a vacuum system coupled to the imaging cylinder and configured to apply a suction through perforations in the outer surface of the imaging cylinder; and a magnetic foil, the drum apparatus having a first configuration in which the magnetic foil is releasably attached to the outer surface of the imaging cylinder, wherein the imaging cylinder having the magnetic foil attached thereto is configured to retain at least one metal back plate on the imaging cylinder via magnetic coupling to the magnetic foil, and the drum apparatus having a second configuration in which the magnetic foil is not attached to the outer surface of the imaging cylinder, wherein in the second configuration the outer surface of the imaging cylinder is configured to receive at least one flexographic plate, and wherein the vacuum system is suitable for retaining the magnetic foil or the at least one flexographic plate on the outer surface of the imaging cylinder. a non-magnetic imaging cylinder having an outer surface; a vacuum system coupled to the imaging cylinder and configured to apply a suction through perforations in the outer surface of the imaging cylinder; and a magnetic foil, the drum apparatus having a first configuration in which the magnetic foil is releasably attached to the outer surface of the imaging cylinder, wherein the imaging cylinder having the magnetic foil attached thereto is configured to retain at least one metal back plate on the imaging cylinder via magnetic coupling to the magnetic foil, and the drum apparatus having a second configuration in which the magnetic foil is not attached to the outer surface of the imaging cylinder, wherein in the second configuration the outer surface of the imaging cylinder is configured to receive at least one flexographic plate, and wherein the vacuum system is suitable for retaining the magnetic foil or the at least one flexographic plate on the outer surface of the imaging cylinder.
A method for displaying video data at a display location, comprising: obtaining a bitstream comprising video and illumination data, wherein said illumination data comprise luminance and chrominance information synchronized to said video data and based on a reference lighting setup; controlling lighting at the display location by mapping the illumination data to the lighting at said display location in synchronization with the video data that are output for display; and characterised in that the illumination data are represented by at least one bitstream portion, the at least one bitstream portion comprising three 32 bit fields (L, a, b) of information for a color information for the lighting, a 32 float field for a duration (d) of the lighting, and a 32 float field for parameters (α) describing a speed to move from one lighting level to another one. obtaining a bitstream comprising video and illumination data, wherein said illumination data comprise luminance and chrominance information synchronized to said video data and based on a reference lighting setup; controlling lighting at the display location by mapping the illumination data to the lighting at said display location in synchronization with the video data that are output for display; and characterised in that the illumination data are represented by at least one bitstream portion, the at least one bitstream portion comprising three 32 bit fields (L, a, b) of information for a color information for the lighting, a 32 float field for a duration (d) of the lighting, and a 32 float field for parameters (α) describing a speed to move from one lighting level to another one.