mhurhangee/patent-ind-claim-en huggingface dataset:
A device for the storage and transfer of thermal energy of solar origin, which device comprises: - a containment casing , having an irradiation opening configured to allow the entrance of an incident solar radiation in an irradiation region defined within said casing , which irradiation opening is arranged at a side skirt of said casing ; - a bed of fluidizable particles received within said casing ; - a plurality of reflecting surfaces (701; 702; 703) arranged within said irradiation region , wherein each of said reflecting surfaces is configured to reflect the solar radiation entering through said irradiation opening directly on a freeboard of said bed of particles or on another reflecting surface of said irradiation region , the overall configuration being such that the inletting radiation hits the freeboard of the bed of particles downwards of multiple reflections on said reflecting surfaces (701; 702; 703), wherein the particles of said bed have higher absorbance than that of said reflecting surfaces (701; 702; 703). - a containment casing , having an irradiation opening configured to allow the entrance of an incident solar radiation in an irradiation region defined within said casing , which irradiation opening is arranged at a side skirt of said casing ; - a bed of fluidizable particles received within said casing ; - a plurality of reflecting surfaces (701; 702; 703) arranged within said irradiation region , wherein each of said reflecting surfaces is configured to reflect the solar radiation entering through said irradiation opening directly on a freeboard of said bed of particles or on another reflecting surface of said irradiation region , the overall configuration being such that the inletting radiation hits the freeboard of the bed of particles downwards of multiple reflections on said reflecting surfaces (701; 702; 703), wherein the particles of said bed have higher absorbance than that of said reflecting surfaces (701; 702; 703).
Surface temperature control system , comprising: - at least one flexible plastic tube , the outside of which is encased at least partially by a first element of a hook-and-loop fastening ; - a carrier film , wherein a second element of the hook-and-loop fastening is arranged on one side of the carrier film , so that the flexible plastic tube(s) can be fixed detachably on the carrier film with formation of the hook-and-loop fastening ; and - a dimensionally stable, planar-like carrier , on one side of which the carrier film is arranged; wherein the dimensionally stable, planar-like carrier is designed as a polymer foam insulation layer , the side of which remote from the carrier film is connected to a cover film , characterised in that the polymer foam insulation layer is 1 cm to 20 cm thick, and the cover film is designed as a composite film, the side of which facing the dimensionally stable, planar-like carrier is designed as a metal layer , preferably as an aluminium layer . - at least one flexible plastic tube , the outside of which is encased at least partially by a first element of a hook-and-loop fastening ; - a carrier film , wherein a second element of the hook-and-loop fastening is arranged on one side of the carrier film , so that the flexible plastic tube(s) can be fixed detachably on the carrier film with formation of the hook-and-loop fastening ; and - a dimensionally stable, planar-like carrier , on one side of which the carrier film is arranged;
A reflective beam former for changing the diameter of a collimated light beam, said beam former comprising a base support formed as a monolithic element made of a material transparent to light of the light beam and having a higher refractive index than air, wherein (i) at least one first mirror surface of a first curvature type, (ii) at least one second mirror surface and (iii) at least one third, curved mirror surface of a second curvature type, one of the two curvature types being convex and the other being concave, are formed on the base support downstream of one another in a beam path, - wherein the shapes of the mirror surfaces are matched to each other so that a collimated light beam entering the beam former via a first mirror surface or a third mirror surface leaves the beam former as a collimated light beam via a third mirror surface or first mirror surface , respectively, - wherein the at least one second mirror surface is formed as a planar mirror surface at a predetermined distance from a base plane of the base support and is arranged in the beam path between the first mirror surface and the at least one third mirror surface in such a way that the first mirror surface and the third mirror surface are positioned confocally relative to one another, and - on the base support there are formed a first boundary surface, upstream of the at least one first mirror surface in the beam path and perpendicular to the beam direction, for the entry of the light beam into the base support , and a second boundary surface, downstream of the at least one third mirror surface in the beam path and perpendicular to the beam direction, for the exit of the light beam on axis from the base support . - wherein the shapes of the mirror surfaces are matched to each other so that a collimated light beam entering the beam former via a first mirror surface or a third mirror surface leaves the beam former as a collimated light beam via a third mirror surface or first mirror surface , respectively, - wherein the at least one second mirror surface is formed as a planar mirror surface at a predetermined distance from a base plane of the base support and is arranged in the beam path between the first mirror surface and the at least one third mirror surface in such a way that the first mirror surface and the third mirror surface are positioned confocally relative to one another, and - on the base support there are formed a first boundary surface, upstream of the at least one first mirror surface in the beam path and perpendicular to the beam direction, for the entry of the light beam into the base support , and a second boundary surface, downstream of the at least one third mirror surface in the beam path and perpendicular to the beam direction, for the exit of the light beam on axis from the base support .
A liquid sample analyzer comprising: a flow cell configured to receive a flow of a liquid sample from a liquid sample source ; a light source including a lamp configured to emit light to illuminate the flow of the liquid sample in the flow cell; and a lamp temperature management system including: an air flow generator operable to generate a turbulent air flow to cool the lamp; a thermally conductive primary housing encapsulating the lamp such that a primary air gap (G1) is provided between the primary housing and the lamp ; and a thermally conductive secondary housing surrounding the primary housing and configured to deflect the turbulent air flow away from the primary housing ; wherein: a buffer chamber is defined by and between the primary housing and the secondary housing ; the primary housing defines a lamp chamber containing the lamp; and the lamp chamber is fluidly sealed from the buffer chamber . a flow cell configured to receive a flow of a liquid sample from a liquid sample source ; a light source including a lamp configured to emit light to illuminate the flow of the liquid sample in the flow cell; and a lamp temperature management system including: an air flow generator operable to generate a turbulent air flow to cool the lamp; a thermally conductive primary housing encapsulating the lamp such that a primary air gap (G1) is provided between the primary housing and the lamp ; and a thermally conductive secondary housing surrounding the primary housing and configured to deflect the turbulent air flow away from the primary housing ; an air flow generator operable to generate a turbulent air flow to cool the lamp; a thermally conductive primary housing encapsulating the lamp such that a primary air gap (G1) is provided between the primary housing and the lamp ; and a thermally conductive secondary housing surrounding the primary housing and configured to deflect the turbulent air flow away from the primary housing ; a buffer chamber is defined by and between the primary housing and the secondary housing ; the primary housing defines a lamp chamber containing the lamp; and the lamp chamber is fluidly sealed from the buffer chamber .
Display screen device , comprising: - a frame with a foot unit and a multiplicity of wheel elements connected thereto, wherein the display screen device is movable in a rolling manner; - a display screen unit connected to the frame with display screen reproduction means , wherein the display screen unit is height-adjustable in relation to the foot unit between a first, low position and a second, high position; characterized in that said display screen device further comprises braking means for braking one or more of the multiplicity of wheel elements , wherein the braking means are configured so that the one or more of the multiplicity of wheel elements is released only if the display screen unit is near or in the first, low position so that the display screen device is movable only if the display screen unit is near or in the first, low position. - a frame with a foot unit and a multiplicity of wheel elements connected thereto, wherein the display screen device is movable in a rolling manner; - a display screen unit connected to the frame with display screen reproduction means , wherein the display screen unit is height-adjustable in relation to the foot unit between a first, low position and a second, high position; characterized in that said display screen device further comprises braking means for braking one or more of the multiplicity of wheel elements , wherein the braking means are configured so that the one or more of the multiplicity of wheel elements is released only if the display screen unit is near or in the first, low position so that the display screen device is movable only if the display screen unit is near or in the first, low position.
A light detection device comprising: a first optical fiber that includes a first core and first cladding surrounding the first core ; a second optical fiber that includes a second core having a diameter larger than a diameter of the first core and connected to the first core , and second cladding surrounding the second core ; a first cladding mode stripper provided outside the first cladding , wherein the first cladding mode stripper is configured to emit cladding mode light propagating through the first cladding to the outside of the first optical fiber ; and a first light detection unit and a second light detection unit , wherein in a longitudinal direction of the first optical fiber , the first light detection unit is disposed on one side of the first cladding mode stripper and the second light detection unit is disposed on the other side, the first light detection unit detects Rayleigh scattering of light propagating through the first optical fiber , the second light detection unit detects Rayleigh scattering of light propagating through the first optical fiber or the second optical fiber , and the second optical fiber is a multimode fiber. a first optical fiber that includes a first core and first cladding surrounding the first core ; a second optical fiber that includes a second core having a diameter larger than a diameter of the first core and connected to the first core , and second cladding surrounding the second core ; a first cladding mode stripper provided outside the first cladding , wherein the first cladding mode stripper is configured to emit cladding mode light propagating through the first cladding to the outside of the first optical fiber ; and a first light detection unit and a second light detection unit , wherein in a longitudinal direction of the first optical fiber , the first light detection unit is disposed on one side of the first cladding mode stripper and the second light detection unit is disposed on the other side, the first light detection unit detects Rayleigh scattering of light propagating through the first optical fiber , the second light detection unit detects Rayleigh scattering of light propagating through the first optical fiber or the second optical fiber , and the second optical fiber is a multimode fiber.
A method of filling a silo with crop material to be stored, in particular a flat silo with chopped corn, including the following method steps: a) the crop material to be stored is distributed in the silo , b) the crop material in the silo is continuously driven over by means of at least one compacting machine at least for the duration of a compacting period, wherein at least a force due to the weight of the compacting machine acts on the crop material , and c) the crop material is compacted by means of the action of the force due to the weight of the compacting machine , characterised by the following method step: d) the compacting machine is operated autonomously at least within the compacting period, wherein the compacting machine is controlled by means of at least one control device , wherein the compacting machine acts independently entirely without the intervention of human mental activity. a) the crop material to be stored is distributed in the silo , b) the crop material in the silo is continuously driven over by means of at least one compacting machine at least for the duration of a compacting period, wherein at least a force due to the weight of the compacting machine acts on the crop material , and c) the crop material is compacted by means of the action of the force due to the weight of the compacting machine ,
A system comprising: a compressor connected to a condenser and an evaporator ; a condenser temperature sensor that outputs a condenser signal corresponding to a sensed condenser temperature; an inverter drive that modulates a frequency of electric power delivered to said compressor to modulate a speed of said compressor ; and a control module connected to said inverter drive that determines a measured condenser temperature based on said condenser signal, that monitors electric power data and compressor speed data from said inverter drive , that calculates a derived condenser temperature based on said monitored electric power data, said monitored compressor speed data, and compressor map data for said compressor , said compressor map data correlating electric power data and compressor speed data with condenser temperature data for said compressor, that compares said measured condenser temperature with said derived condenser temperature, characterized in that the control module selects one of said derived condenser temperature and said measured condenser temperature as being more accurate based on historical data when a difference between said derived condenser temperature and said measured condenser temperature is greater than a predetermined threshold, and selectively updates said compressor map data based on said comparison when said difference is less than said predetermined threshold. a compressor connected to a condenser and an evaporator ; a condenser temperature sensor that outputs a condenser signal corresponding to a sensed condenser temperature; an inverter drive that modulates a frequency of electric power delivered to said compressor to modulate a speed of said compressor ; and a control module connected to said inverter drive that determines a measured condenser temperature based on said condenser signal, that monitors electric power data and compressor speed data from said inverter drive , that calculates a derived condenser temperature based on said monitored electric power data, said monitored compressor speed data, and compressor map data for said compressor , said compressor map data correlating electric power data and compressor speed data with condenser temperature data for said compressor, that compares said measured condenser temperature with said derived condenser temperature,
A fastening system for a dental implant comprising a ball shaped portion , wherein the fastening system comprises a superstructure forming a housing or a housing being configured to be inserted in a superstructure , a body , and a screw means , wherein the body has a seat formed of at least two parts of the body , wherein the at least two parts forming the seat are received in a recess of the housing and arranged such that the seat can engage around the ball shaped portion of the dental implant and such that the at least two parts are movable between a first position in which the at least two parts are allowed to move relative each other, and a second position in which the at least two parts are prevented from moving relative each other, wherein the seat is movable in a longitudinal direction between the first and the second position, wherein the seat is movable in the longitudinal direction along a tapering inner structure of the housing and/or wherein the at least two parts have an outer surface which forms a tapered body, wherein the screw means is accessible from a side of the fastening system being opposite an end face of the housing having the seat , wherein the body forming the seat is connected to the screw means for maneuvering the position of the at least two parts , such that the at least two parts forming the seat are movable in the longitudinal direction relative the screw means from the first position to the second position and such that when the at least two parts are in the first position the seat may be brought upwards in the longitudinal direction by operating the screw means , and wherein the screw means is arranged in a channel in the housing or the superstructure .
A fingerprint detecting circuit, applied in a fingerprint identification system transmitting a first signal to a finger, the fingerprint detecting circuit comprising: a conductive layer, configured to couple a touch from the finger; and an amplifier, comprising: a negative input terminal, coupled to the conductive layer; a positive input terminal, configured to receive a second signal; and an output terminal, wherein a first capacitance is formed between the output terminal and the negative input terminal; wherein a first phase of the first signal is inverse to a second phase of the second signal; wherein the first signal and the second signal drive the fingerprint detecting circuit to operation; wherein the second signal is expressed as: V 2 = − k ∗ V 1 , wherein V1 represents the first signal, V2 represents the second signal, and k is a positive constant. a conductive layer, configured to couple a touch from the finger; and an amplifier, comprising: a negative input terminal, coupled to the conductive layer; a positive input terminal, configured to receive a second signal; and an output terminal, wherein a first capacitance is formed between the output terminal and the negative input terminal; a negative input terminal, coupled to the conductive layer; a positive input terminal, configured to receive a second signal; and an output terminal, wherein a first capacitance is formed between the output terminal and the negative input terminal; wherein a first phase of the first signal is inverse to a second phase of the second signal; wherein the first signal and the second signal drive the fingerprint detecting circuit to operation; wherein the second signal is expressed as: V 2 = − k ∗ V 1 , wherein V1 represents the first signal, V2 represents the second signal, and k is a positive constant.
Fruit picking and collecting device consisting of a basket-shaped, round, transparent and rigid collecting container having a basket wall , which has a first slot and two further slots on the left and right of the first slot , said slots being spaced from the first slot , characterized in that the bottom of the collecting container is spherically shaped downwards, the basket wall is spherical, and the collecting container has a circumferential transition line between the basket bottom and the basket wall , a flat tab for fastening a handle is attached to the circumferential transition line so that it is aligned along a center line of the collecting container and pointing into a direction opposite the basket opening , the first slot is opposite the flat tab , extends over the entire height of the basket wall , and is aligned perpendicular to the circumferential transition line , and the two further slots extend over the entire height of the basket wall and, starting from the circumferential transition line , are inclined in the direction of the tab , and are spaced apart from the first slot within the half of the collecting container opposite the tab . the bottom of the collecting container is spherically shaped downwards, the basket wall is spherical, and the collecting container has a circumferential transition line between the basket bottom and the basket wall , a flat tab for fastening a handle is attached to the circumferential transition line so that it is aligned along a center line of the collecting container and pointing into a direction opposite the basket opening , the first slot is opposite the flat tab , extends over the entire height of the basket wall , and is aligned perpendicular to the circumferential transition line , and the two further slots extend over the entire height of the basket wall and, starting from the circumferential transition line , are inclined in the direction of the tab , and are spaced apart from the first slot within the half of the collecting container opposite the tab .
An imaging detector , comprising: a digital image sensor configured to generate a plurality of signals in response to x-rays incident on the sensor ; characterized by : a first processor communicatively coupled to the digital image sensor and configured to receive the plurality of signals and generate a digital representation of an x-ray image based on the plurality of signals, and a second processor configured to generate a user interface and to cause a digital image based on the digital representation of the x-ray image to be displayed via the user interface, and wherein the first processor is configured to enter a first idle state while the second processor is in a second active state or the second processor is configured to enter a second idle state while the first processor is in a first active state . a digital image sensor configured to generate a plurality of signals in response to x-rays incident on the sensor ; characterized by : a first processor communicatively coupled to the digital image sensor and configured to receive the plurality of signals and generate a digital representation of an x-ray image based on the plurality of signals, and a second processor configured to generate a user interface and to cause a digital image based on the digital representation of the x-ray image to be displayed via the user interface, and wherein the first processor is configured to enter a first idle state while the second processor is in a second active state or the second processor is configured to enter a second idle state while the first processor is in a first active state . a first processor communicatively coupled to the digital image sensor and configured to receive the plurality of signals and generate a digital representation of an x-ray image based on the plurality of signals, and a second processor configured to generate a user interface and to cause a digital image based on the digital representation of the x-ray image to be displayed via the user interface, and wherein the first processor is configured to enter a first idle state while the second processor is in a second active state or the second processor is configured to enter a second idle state while the first processor is in a first active state .