mhurhangee/ep-ind-claims huggingface dataset:
A projector for illuminating a scene with a discrete spot pattern,, said projector comprises: • a laser array comprising a plurality of discrete solid-state laser light sources operable for emitting a diverging first laser beam, • a mixing chamber extending along a main optical axis and configured for receiving and allowing each of said first laser beams to diverge until, for each first laser beam, at least a portion of its light rays is overlapping with light rays of adjacent first laser beams, wherein at least a portion of an inner wall of said mixing chamber is a reflective wall for reflecting laser light or wherein at least a portion of an inner wall of said mixing chamber comprises a mirror, • a reshaping optical system configured for i) receiving the overlapping light rays of said first laser beams exiting said mixing chamber, and ii) generating a plurality of discrete second laser beams wherein each second laser beam comprises light rays originating from multiple first laser beams, and wherein said reshaping optical system comprises a first micro-lens array comprising a plurality of micro-lenses (ML[i]), and wherein each micro-lens (ML[i]) is configured for generating one of the second laser beams of said plurality of second laser beams, • a projector lens system configured for receiving said second laser beams and for projecting the second laser beams towards the scene, and wherein said projected second laser beams are forming said discrete spot pattern. • a laser array comprising a plurality of discrete solid-state laser light sources operable for emitting a diverging first laser beam, • a mixing chamber extending along a main optical axis and configured for receiving and allowing each of said first laser beams to diverge until, for each first laser beam, at least a portion of its light rays is overlapping with light rays of adjacent first laser beams, wherein at least a portion of an inner wall of said mixing chamber is a reflective wall for reflecting laser light or wherein at least a portion of an inner wall of said mixing chamber comprises a mirror, • a reshaping optical system configured for i) receiving the overlapping light rays of said first laser beams exiting said mixing chamber, and ii) generating a plurality of discrete second laser beams wherein each second laser beam comprises light rays originating from multiple first laser beams, and wherein said reshaping optical system comprises a first micro-lens array comprising a plurality of micro-lenses (ML[i]), and wherein each micro-lens (ML[i]) is configured for generating one of the second laser beams of said plurality of second laser beams, i) receiving the overlapping light rays of said first laser beams exiting said mixing chamber, and ii) generating a plurality of discrete second laser beams wherein each second laser beam comprises light rays originating from multiple first laser beams, • a projector lens system configured for receiving said second laser beams and for projecting the second laser beams towards the scene, and wherein said projected second laser beams are forming said discrete spot pattern.
A system for power and data transmission in a body of water to unmanned underwater vehicles, the system comprising: - a floating surface station configured to generate electric energy and receiving and transmitting data; - an underwater station connectable to at least one unmanned underwater vehicle; - at least one depth buoy (8; 23; 26); - an umbilical, which comprises at least one power transmission line and at least one data transmission line, is mechanically and electrically connected to the surface station and to the underwater station, and is mechanically coupled to the depth buoy (8; 23; 26) so that the umbilical comprises a first umbilical section that is stretched between the underwater station and the depth buoy (8; 23; 26) and a second umbilical section that extends loose between the depth buoy (8; 23; 26) and the surface station; and - a winch (33; 39) for selectively adjusting the length of the first umbilical section and the depth of the depth buoy (8; 22; 26). - a floating surface station configured to generate electric energy and receiving and transmitting data; - an underwater station connectable to at least one unmanned underwater vehicle; - at least one depth buoy (8; 23; 26); - an umbilical, which comprises at least one power transmission line and at least one data transmission line, is mechanically and electrically connected to the surface station and to the underwater station, and is mechanically coupled to the depth buoy (8; 23; 26) so that the umbilical comprises a first umbilical section that is stretched between the underwater station and the depth buoy (8; 23; 26) and a second umbilical section that extends loose between the depth buoy (8; 23; 26) and the surface station; and - a winch (33; 39) for selectively adjusting the length of the first umbilical section and the depth of the depth buoy (8; 22; 26).
Input or control device with variable controls configuration particularly buttons and/or keys, comprising of a control zone with capacitively, and/or resistively, and/or inductively, and/or optically, and/or acoustically evaluated touch layer and with a first graphic layer, while the touch layer is connected to an evaluation unit to define a touch spot, the touch layer being continuously spread over a surface of the control zone, the first graphic layer has a graphic representation of at least one control element on it and the first graphic layer is steadily attached to the touch layer, being disposed under the touch layer or located on top of the touch layer, wherein the first graphic layer is configured to be covered with other different graphic layers, the first graphic layer and at least one other different graphic layer have different number, and/or shape, and/or location, and/or graphic representation of the controls, the evaluation unit is adjusted for different evaluation of a touch or a touch gesture at the same spot on the touch layer based on the first graphic layer, if the other different graphic layer is not inserted, or based on the other different graphic layer, if the other different graphic layer is inserted. the first graphic layer is configured to be covered with other different graphic layers, the first graphic layer and at least one other different graphic layer have different number, and/or shape, and/or location, and/or graphic representation of the controls, the evaluation unit is adjusted for different evaluation of a touch or a touch gesture at the same spot on the touch layer based on the first graphic layer, if the other different graphic layer is not inserted, or based on the other different graphic layer, if the other different graphic layer is inserted.
A polyol premix composition comprising at least one blowing agent, a polyol, at least one silicone surfactant, a catalyst, and an adsorbing agent, wherein the blowing agent comprises a hydrohaloolefin, and optionally a hydrocarbon, fluorocarbon, chlorocarbon, fluorochlorocarbon, halogenated hydrocarbon, CO 2 or other gas generating material, or combinations thereof; wherein the hydrohaloolefin comprises 1,3,3,3-tetrafluoropropene, 1-chloro-3,3,3-trifluoropropene, 1,1,1,4,4,4-hexafluorobut-2-ene, or stereoisomers thereof, or combinations thereof and wherein the adsorbing agent is a halogen ion scavenger selected from the group consisting of a silica gel, fumed silica, activated charcoal, calcium chloride, montmorillonite clay, a molecular sieve, and combinations thereof. wherein the hydrohaloolefin comprises 1,3,3,3-tetrafluoropropene, 1-chloro-3,3,3-trifluoropropene, 1,1,1,4,4,4-hexafluorobut-2-ene, or stereoisomers thereof, or combinations thereof and wherein the adsorbing agent is a halogen ion scavenger selected from the group consisting of a silica gel, fumed silica, activated charcoal, calcium chloride, montmorillonite clay, a molecular sieve, and combinations thereof.
An exposure control device for equipping and/or retrofitting a generative layer-wise building device for a production of at least one three-dimensional object from a building material layer by layer by solidification of the building material by means of a heat supply to positions corresponding to the cross-section of an object in a layer by selectively scanning the layer with electromagnetic radiation or particle radiation, wherein the generative layer-wise building device comprises: an exposure device which emits electromagnetic radiation or particle radiation and is configured to irradiate positions to be solidified in a layer in such a way that after cooling they exist as an object cross-section or part of the object cross-section in the respective layer, wherein the exposure control device has a first data output interface, at which control commands can be output to the exposure device so that it scans, in accordance with the control commands, positions of a layer of the building material with electromagnetic radiation or particle radiation, characterized in that the control commands which are output via the first data output interface specify one of a plurality of exposure types wherein an exposure type is defined by a predetermined combination of a radiation energy density to be emitted by the exposure device and a scanning pattern with which the radiation is being directed to a region of a layer of the building material and the exposure control device has a second data output interface at which an exposure type can be output in real time in relation to a timing of the output of a control command specifying this exposure type, wherein the output of the exposure type takes place within a predetermined period of time before or after the output of the associated control command. an exposure device which emits electromagnetic radiation or particle radiation and is configured to irradiate positions to be solidified in a layer in such a way that after cooling they exist as an object cross-section or part of the object cross-section in the respective layer, wherein the exposure control device has a first data output interface, at which control commands can be output to the exposure device so that it scans, in accordance with the control commands, positions of a layer of the building material with electromagnetic radiation or particle radiation, characterized in that the control commands which are output via the first data output interface specify one of a plurality of exposure types wherein an exposure type is defined by a predetermined combination of a radiation energy density to be emitted by the exposure device and a scanning pattern with which the radiation is being directed to a region of a layer of the building material and the exposure control device has a second data output interface at which an exposure type can be output in real time in relation to a timing of the output of a control command specifying this exposure type, wherein the output of the exposure type takes place within a predetermined period of time before or after the output of the associated control command.
A system comprising an apparatus for treating a sexually dysfunctional male patient, comprising at least one elongated corpus cavernosum prosthesis being hydraulically operated and powered and controllable from outside the patient's body, wherein the at least one prosthesis is adapted to be implanted within at least one corpus cavernosum of the male patient and adjusted postoperatively to temporarily achieve enlarged status and/or erection of the penis, characterised in that the apparatus further comprises at least one implantable vibrator adapted to be implanted within at least one corpus cavernosum in a region of sexually responsive tissue of the penis, and that the system comprises an implantable internal energy receiver including an energy source and/or an energy-transforming device adapted to supply energy consuming components of the apparatus with energy via a power supply line, wherein the at least one vibrator is adapted to to cause vibration in at least one of the corpora cavernosa for stimulating the sexually responsive tissue of the penis during sexual intercourse, when implanted, on patient command.
A detachable fan blade platform comprising: a body having lateral sides each having a channel providing a C-shaped groove; and a seal removably and slidably received in each of the channels and retained therein without adhesive; wherein the seal includes a bulb receiving the channel, and wherein the bulb is hollow and includes a longitudinally extending hole, wherein the hole receives a pin that prevents the bulb from collapsing during operation. a body having lateral sides each having a channel providing a C-shaped groove; and a seal removably and slidably received in each of the channels and retained therein without adhesive; wherein the seal includes a bulb receiving the channel, and wherein the bulb is hollow and includes a longitudinally extending hole, wherein the hole receives a pin that prevents the bulb from collapsing during operation.
A portable cardiac massage apparatus, comprising a C-shaped frame including a base for positioning under the back of a supine patient, an upper arm and an upright body which interconnects the base and the upper arm, a plunger for applying pressure to the sternum of a patient lying on the base, which plunger is coupled to the upper arm and movable with respect to the upper arm in a direction from the upper arm to the base and back and a lever for operating the plunger which lever is pivotally coupled to the plunger through a first hinge and the lever is pivotally coupled to a link rod through a second hinge located at a distance from the first hinge, wherein the link rod is pivotally coupled to the upper arm through a third hinge located at a distance from the second hinge, characterized in that the lever is also pivotally connected to an auxiliary rod through a fourth hinge located at a distance from the first and second hinges (10, 21), wherein the auxiliary rod is pivotally connected to the upright body through a fifth hinge that is displaceable along the upright body through a guide at the upright body in a direction from the upper arm to the base and back, wherein the first hinge is located between the second and fourth hinges (21, 24) and beyond the fourth hinge as seen in a direction from the upright body to the plunger.
An exercise ball device, comprising: a three-dimensional space frame comprising multiple frame members defining multiple openings into an interior of the frame; and multiple panels connected to the frame members, the panels disposed within the openings and between the frame members, and outer surfaces of the frame members together with outer surfaces of the panels defining an outer surface of the exercise ball device, characterised in that: the frame members each comprising one or more flanges extending outwardly from the sides of each frame member and into the openings, the flanges being located below the outer surface of each frame member; and the ball comprising one or more cross members connecting together opposed frame members. a three-dimensional space frame comprising multiple frame members defining multiple openings into an interior of the frame; and multiple panels connected to the frame members, the panels disposed within the openings and between the frame members, and outer surfaces of the frame members together with outer surfaces of the panels defining an outer surface of the exercise ball device, characterised in that: the frame members each comprising one or more flanges extending outwardly from the sides of each frame member and into the openings, the flanges being located below the outer surface of each frame member; and the ball comprising one or more cross members connecting together opposed frame members. the frame members each comprising one or more flanges extending outwardly from the sides of each frame member and into the openings, the flanges being located below the outer surface of each frame member; and the ball comprising one or more cross members connecting together opposed frame members.
A method of making a material dispensing system, the method comprising the steps of: (a) providing a container preform comprising a polymeric preform and an elastically deformable band surrounding at least a portion of the polymeric preform; (b) heating the polymeric preform; (c) positioning the container preform into a mold cavity; and (d) applying pressure to an interior of the polymeric preform sufficient to cause the container preform to expand outwardly towards a wall of the mold cavity to form a collapsible bag, during which the elastically deformable band is stretched and potential energy is generated in association with the stretched elastically deformable band which at least partially collapses the container when the applied internal pressure is removed, (e) wherein step (b) comprises transmitting invisible and/or infrared light waves through the elastically deformable band to the polymeric preform, said invisible and/or infrared light waves optionally having an infrared wavelength around 1.5 micron. (a) providing a container preform comprising a polymeric preform and an elastically deformable band surrounding at least a portion of the polymeric preform; (b) heating the polymeric preform; (c) positioning the container preform into a mold cavity; and (d) applying pressure to an interior of the polymeric preform sufficient to cause the container preform to expand outwardly towards a wall of the mold cavity to form a collapsible bag, during which the elastically deformable band is stretched and potential energy is generated in association with the stretched elastically deformable band which at least partially collapses the container when the applied internal pressure is removed, (e) wherein step (b) comprises transmitting invisible and/or infrared light waves through the elastically deformable band to the polymeric preform, said invisible and/or infrared light waves optionally having an infrared wavelength around 1.5 micron.
An accumulation module, comprising: an accumulation dial including a hopper (511, 512, 513, 514), and the accumulation dial rotates to re-position the hopper (511, 512, 513, 514); characterised in that said accumulation module further comprises: a picker assembly including pneumatically actuated pickers, and the picker assembly extends outwardly from a home position to retrieve a package and returns to the home position to deposit the package into the hopper (511, 512, 513, 514) located at a first position; and a first plunger that contacts the package to force the package, when the hopper (511, 512, 513, 514) is in a second position, through an open bottom of the hopper (511, 512, 513, 514) into a shell positioned below the accumulation dial to deliver the package to a travel pack module. an accumulation dial including a hopper (511, 512, 513, 514), and the accumulation dial rotates to re-position the hopper (511, 512, 513, 514); characterised in that said accumulation module further comprises: a picker assembly including pneumatically actuated pickers, and the picker assembly extends outwardly from a home position to retrieve a package and returns to the home position to deposit the package into the hopper (511, 512, 513, 514) located at a first position; and a first plunger that contacts the package to force the package, when the hopper (511, 512, 513, 514) is in a second position, through an open bottom of the hopper (511, 512, 513, 514) into a shell positioned below the accumulation dial to deliver the package to a travel pack module. a picker assembly including pneumatically actuated pickers, and the picker assembly extends outwardly from a home position to retrieve a package and returns to the home position to deposit the package into the hopper (511, 512, 513, 514) located at a first position; and a first plunger that contacts the package to force the package, when the hopper (511, 512, 513, 514) is in a second position, through an open bottom of the hopper (511, 512, 513, 514) into a shell positioned below the accumulation dial to deliver the package to a travel pack module.
A method for controlling uplink power comprising: receiving, by a terminal device, uplink power control information transmitted by a network device, wherein the uplink power control information comprises open-loop power control information, and the open-loop power control information comprises open-loop power control parameters corresponding to multiple uplink beams comprising a target uplink beam; determining, by the terminal device, according to the uplink power control information, a target power control parameter corresponding to the target uplink beam; and determining, by the terminal device, according to the target power control parameter, target transmitting power for transmitting a target uplink signal using the target uplink beam; wherein the determining, by the terminal device, according to the uplink power control information, the target power control parameter corresponding to the target uplink beam comprises: determining, by the terminal device, according to the open-loop power control information, a target open-loop power control parameter corresponding to the target uplink beam from the open-loop power control parameters. receiving, by a terminal device, uplink power control information transmitted by a network device, wherein the uplink power control information comprises open-loop power control information, and the open-loop power control information comprises open-loop power control parameters corresponding to multiple uplink beams comprising a target uplink beam; determining, by the terminal device, according to the uplink power control information, a target power control parameter corresponding to the target uplink beam; and determining, by the terminal device, according to the target power control parameter, target transmitting power for transmitting a target uplink signal using the target uplink beam; wherein the determining, by the terminal device, according to the uplink power control information, the target power control parameter corresponding to the target uplink beam comprises: determining, by the terminal device, according to the open-loop power control information, a target open-loop power control parameter corresponding to the target uplink beam from the open-loop power control parameters.
A lighting system for providing light to illumination of sub-systems of a vehicle, the system comprising: a holographic projector comprising: a light source; a hologram engine arranged to output holograms; a spatial light modulator arranged to display each hologram and spatially-modulate light from the light source in accordance with each hologram, wherein the spatially-modulated light forms a holographic reconstruction, corresponding to each hologram, on a replay plane 510); and a light distribution system comprising a plurality of optical fibres wherein each optical fibre of the plurality of optical fibres is a multimode optical fibre comprising an input optically-coupled to respective sub-area of the replay plane and an output optically coupled with an illumination sub-system of the vehicle, wherein the holographic projector is arranged such that the holographic reconstruction illuminates at least one sub-area of the replay plane optically-coupled to an optical fibre of the plurality of optical fibres. a light source; a hologram engine arranged to output holograms; a spatial light modulator arranged to display each hologram and spatially-modulate light from the light source in accordance with each hologram, wherein the spatially-modulated light forms a holographic reconstruction, corresponding to each hologram, on a replay plane 510); and a light distribution system comprising a plurality of optical fibres wherein each optical fibre of the plurality of optical fibres is a multimode optical fibre comprising an input optically-coupled to respective sub-area of the replay plane and an output optically coupled with an illumination sub-system of the vehicle, wherein the holographic projector is arranged such that the holographic reconstruction illuminates at least one sub-area of the replay plane optically-coupled to an optical fibre of the plurality of optical fibres.