mhurhangee/ep-ind-claims huggingface dataset:
A head mounted display, HMD, comprising: a generation logic to generate at least one virtual display; a see-through display; a presentation unit to present the at least one virtual display on the see-through display; and a memory coupled to the presentation unit, wherein the see-through display is configured to enable a user to view the at least one virtual display and a physical display (103, 202) in a real-world scene, wherein the at least one virtual display is presented on the see-through display as an additional object in the real-world scene, wherein the at least one virtual display is used in conjunction with the physical display to present a computer-generated information in an extended desktop from a visual perspective of the user, and wherein the presentation unit is configured to determine if the physical display is in a field of vision of the HMD, and wherein the HMD is characterised in that the presentation unit is configured to present the computer-generated information that has been previously stored in the memory in the virtual display if the physical display is not in a field of vision of the HMD. a generation logic to generate at least one virtual display; a see-through display; a presentation unit to present the at least one virtual display on the see-through display; and a memory coupled to the presentation unit, wherein the see-through display is configured to enable a user to view the at least one virtual display and a physical display (103, 202) in a real-world scene, wherein the at least one virtual display is presented on the see-through display as an additional object in the real-world scene, wherein the at least one virtual display is used in conjunction with the physical display to present a computer-generated information in an extended desktop from a visual perspective of the user, and wherein the presentation unit is configured to determine if the physical display is in a field of vision of the HMD, and wherein the HMD is characterised in that the presentation unit is configured to present the computer-generated information that has been previously stored in the memory in the virtual display if the physical display is not in a field of vision of the HMD.
An aerodynamic braking device for a casing of a payload intended to be ejected from a projectile on its trajectory, the braking device including at least one parachute connected to the casing by hangers, the parachute being housed in a sleeve, such that: - the sleeve is wound around an axis of winding perpendicular to its longitudinal direction, and attached to a cylindrical housing, the axis of which is parallel to the axis of winding, the housing in turn being secured to a base that closes off the projectile; - the hangers are connected to the casing by means of an extension cable; - the extension cable is wound around the axis of the housing and attached thereto by at least three peripheral break lines, which are uniformly angularly distributed. - the sleeve is wound around an axis of winding perpendicular to its longitudinal direction, and attached to a cylindrical housing, the axis of which is parallel to the axis of winding, the housing in turn being secured to a base that closes off the projectile; - the hangers are connected to the casing by means of an extension cable; - the extension cable is wound around the axis of the housing and attached thereto by at least three peripheral break lines, which are uniformly angularly distributed.
A core/shell semiconductor nanoparticle comprising: a core comprising a halide perovskite semiconductor; and a shell substantially surrounding the core and comprising BaTiO 3, SrTiO 3, BiFeO 3, LaNiO 3, CaTiO 3, PbTiO 3, LaYbO 3, or a semiconductor material that is not a halide perovskite, wherein the shell is substantially free of halide perovskites. a core comprising a halide perovskite semiconductor; and a shell substantially surrounding the core and comprising BaTiO 3, SrTiO 3, BiFeO 3, LaNiO 3, CaTiO 3, PbTiO 3, LaYbO 3, or a semiconductor material that is not a halide perovskite, wherein the shell is substantially free of halide perovskites.
An anti-PVRIG antibody for use in the treatment of cancer, wherein the antibody activates T cells and/or NK cells, the antibody specifically binding to human PVRIG and competing with an antibody that comprises the vhCDR1 as set out in SEQ ID NO:885, vhCDR2 as set out in SEQ ID NO:886, vhCDR3 as set out in SEQ ID NO:887, vICDR1 as set out in SEQ ID NO:889, vICOR2 as set out in SEQ ID NO:890 and vICDR3 as set out in SEQ ID NO:891 to specifically bind to the PVRIG molecule. wherein the antibody activates T cells and/or NK cells, the antibody specifically binding to human PVRIG and competing with an antibody that comprises the vhCDR1 as set out in SEQ ID NO:885, vhCDR2 as set out in SEQ ID NO:886, vhCDR3 as set out in SEQ ID NO:887, vICDR1 as set out in SEQ ID NO:889, vICOR2 as set out in SEQ ID NO:890 and vICDR3 as set out in SEQ ID NO:891 to specifically bind to the PVRIG molecule.
An electric connector comprising: at least one connector terminal into which a male connector terminal of a male electric connector is inserted; and a housing including a terminal storage room in which the connector terminal is housed, the housing further including a support (311 a) supporting the connector terminal at an outer surface of the connector terminal when the male connector terminal is inserted into the terminal storage room, the support (311 a) extends from an inner wall (311 a) of the terminal storage room and makes abutment at a distal end thereof with an outer surface of the connector terminal, and the connector terminal includes a terminal main body (20a, 20aX) and a connector portion, wherein the terminal main body (20a, 20aX) includes: a first spring portion making contact with the male connector terminal; a first spring support portion supporting the first spring portion through a resilient portion; a second spring portion making contact with the male connector terminal; a second spring support portion supporting the second spring portion (221; and characterised by a space-limiter limiting expansion of a space between the first contact portion and the second spring support portion, the connector portion being formed at the first spring support portion, the support (311 a) supporting the second spring support portion, which includes a first projection with which a distal end of the support makes engagement, the first spring support portion having a further projection. at least one connector terminal into which a male connector terminal of a male electric connector is inserted; and a housing including a terminal storage room in which the connector terminal is housed, the housing further including a support (311 a) supporting the connector terminal at an outer surface of the connector terminal when the male connector terminal is inserted into the terminal storage room, the support (311 a) extends from an inner wall (311 a) of the terminal storage room and makes abutment at a distal end thereof with an outer surface of the connector terminal, and the connector terminal includes a terminal main body (20a, 20aX) and a connector portion, wherein the terminal main body (20a, 20aX) includes: a first spring portion making contact with the male connector terminal; a first spring support portion supporting the first spring portion through a resilient portion; a second spring portion making contact with the male connector terminal; a second spring support portion supporting the second spring portion (221; and characterised by a space-limiter limiting expansion of a space between the first contact portion and the second spring support portion, the connector portion being formed at the first spring support portion, the support (311 a) supporting the second spring support portion, which includes a first projection with which a distal end of the support makes engagement, the first spring support portion having a further projection.
Procedure for setting a mechanical natural frequency of a hollow body which is made at least partially from a ductile material and serves as a sensor housing of a sensor or as a measuring tube (1, 2) of a sensor, said procedure comprising the following steps: - Modification of a static exterior pressure of an atmosphere surrounding the hollow body and/or modification of a static interior pressure present in a channel of the hollow body, said channel being sealed essentially pressure-tight, to generate a pressure difference between the channel and the atmosphere surrounding the hollow body, - Setting of the pressure difference to a value that causes the material of the hollow body to expand, and - Allowing at least part of the material of the hollow body to flow under the influence of the pressure difference for the purpose of the plastic deformation of the material. - Modification of a static exterior pressure of an atmosphere surrounding the hollow body and/or modification of a static interior pressure present in a channel of the hollow body, said channel being sealed essentially pressure-tight, to generate a pressure difference between the channel and the atmosphere surrounding the hollow body, - Setting of the pressure difference to a value that causes the material of the hollow body to expand, and - Allowing at least part of the material of the hollow body to flow under the influence of the pressure difference for the purpose of the plastic deformation of the material.
A connection and sound attenuation system (1, 101) for an intake line of a turbocharged heat engine of a motor vehicle, the system being intended to be traveled by a stream of pressurized gas and to be brought up between a turbocompressor and a heat exchanger of the line and comprising: - a flexible hose for connecting to the line, and - a nonmetallic sound attenuation device (10, 110) that is suitable for being fastened to an output flange (3, 103) of the turbocompressor outside the hose and that is radially gripped by the hose while forming acoustic chambers (C1 and C2, C1' and C2'), this device comprising at least two parts (11 and 12, 111 and 112) secured to one another by clipping, whereof a first part (11, 111) is provided with fastening means to said flange and whereof a second part (12, 112) defines at least one of said chambers with the first part, characterized in that it further includes means for gripping the hose at the device (10, 110) that gripped said hose in the immediate vicinity of a free end of the hose that is intended to be mounted adjacent to said flange (3, 103). - a flexible hose for connecting to the line, and - a nonmetallic sound attenuation device (10, 110) that is suitable for being fastened to an output flange (3, 103) of the turbocompressor outside the hose and that is radially gripped by the hose while forming acoustic chambers (C1 and C2, C1' and C2'),
Fitting for a cask, having a fitting sleeve with spring-elastically relatively movable rising pipe disposed there in, wherein the fitting sleeve has a conically extending internal sealing surface tapering to an upper end and between internal sealing surface and upper end of the rising pipe is incorporated a seal and the rising pipe by means of a spring force is pressed with the seal against the sealing surface and the seal disposed on the inner side in the upper end of the rising pipe, wherein in the upper end of the rising pipe is disposed in a spring-elastically relatively movable manner a sealing body, which abuts in a form fitting manner on an interior sealing surface of the seal by reason of a spring force and the seal has an internal reinforcing ring which is surrounded by an elastic sealing material, and the reinforcing ring has at its outer jacket surface a material recess, so that the distance from the reinforcing ring to the internal sealing surface of the fitting sleeve is increased, characterised in that the material recess is formed as a sloped surface or that the material recess is formed as groove with at least partially sloped surface (34, 33), and that the sloped surface has a planar course or that the sloped surface has a curved course, in such a way that in the case of an overpressure a part of the elastic sealing material in the region of the material recess deforms to the outside in an elastically reversible manner and the part after the triggering of the overpressure function can be guided back into its start position.
A pest control device, comprising: a bait container (200, 300, 400, 500) including an upper end portion (200a, 204, 330) opposite a lower end portion (200b, 206, 340), the bait container defining a chamber containing a bait including a pesticide toxic to one or more species of termites, the upper end portion defining an upper opening into the chamber, a closure to selectively access and close the upper opening with an airtight seal, the lower end portion including a pest access arrangement positioned below the bait and structured to permit termite access to the bait, the lower end portion defining a pocket to trap air to reduce intrusion of water through the pest access arrangement when the bait container is installed at least partially below ground with the lower end portion being positioned further below ground level than the upper end portion.
Pre-impregnated fibre-reinforced composite material in laminar form, obtained by impregnating a fibrous mass with a polymeric binder composition and destined to be subjected to subsequent forming and complete curing operations to obtain a fibre-reinforced composite material, characterized in that said polymeric binder composition is constituted by at least 70% by weight of two or more resins selected from the group consisting of siloxane resins and silsesquioxane resins, and may optionally comprise one or more organic resins, said siloxane resins comprising polysiloxanes and said silsesquioxane resins comprising polysilsesquioxanes, and in that said polymeric binder composition appears as a liquid having viscosity of between 55000 and 10000 mPas at temperatures of between 50 °C and 70 °C, wherein the polymeric binder composition forms a polymeric binder matrix not crosslinked or only partially crosslinked which fills the interstices of the fibrous mass, wherein said polymeric binder composition comprises a mixture of: - at least one resin selected from the group consisting of siloxane resins and silsesquioxane resins, solid at room temperature, with melting point range of between 40 °C and 90 °C; and - at least one resin selected from the group consisting of siloxane resins and silsesquioxane resins, liquid at room temperature, with viscosity at room temperatures of between 1 mPas and 5000 mPas; the weight ratio between solid resin at room temperature and liquid resin at room temperature is of between 100/30 and 100/50 and wherein said polymeric binder composition further comprises at least one solvent, selected from the compounds able to solubilize the polysiloxanes and the polysilsesquioxanes, said at least one solvent constituting less than 1% by weight of the pre-impregnated fibre-reinforced composite material, viscosity being measured with a Brookfield viscometer, with a shear rate of 1s-1. - at least one resin selected from the group consisting of siloxane resins and silsesquioxane resins, solid at room temperature, with melting point range of between 40 °C and 90 °C; and - at least one resin selected from the group consisting of siloxane resins and silsesquioxane resins, liquid at room temperature, with viscosity at room temperatures of between 1 mPas and 5000 mPas; the weight ratio between solid resin at room temperature and liquid resin at room temperature is of between 100/30 and 100/50 and wherein said polymeric binder composition further comprises at least one solvent, selected from the compounds able to solubilize the polysiloxanes and the polysilsesquioxanes, said at least one solvent constituting less than 1% by weight of the pre-impregnated fibre-reinforced composite material, viscosity being measured with a Brookfield viscometer, with a shear rate of 1s-1.
A power take off adapted to be supported on a mounting surface of a source of rotational energy so as to provide rotational energy from the source of rotational energy to a rotatably driven accessory, the power take off comprising: a housing including a mounting surface adapted to be supported on the mounting surface of the source of rotational energy, the mounting surface of the housing including an opening and having a groove therein that extends about the opening; a sealing member (31; 41) disposed within the groove in the mounting surface of the housing and adapted to engage the mounting surface of the source of rotational energy when the housing is supported thereon; an input mechanism (12, 13, 14, 15) supported within the housing and including a portion (12, 13) that extends outwardly through the opening from the housing and is adapted to engage a rotatably driven mechanism provided within the source of rotational energy so as to be rotatably driven by the source of rotational energy; and an output mechanism (17, 17a, 17b) that is rotatably driven by the input mechanism and is adapted to be connected to a rotatably driven accessory. a housing including a mounting surface adapted to be supported on the mounting surface of the source of rotational energy, the mounting surface of the housing including an opening and having a groove therein that extends about the opening; a sealing member (31; 41) disposed within the groove in the mounting surface of the housing and adapted to engage the mounting surface of the source of rotational energy when the housing is supported thereon; an input mechanism (12, 13, 14, 15) supported within the housing and including a portion (12, 13) that extends outwardly through the opening from the housing and is adapted to engage a rotatably driven mechanism provided within the source of rotational energy so as to be rotatably driven by the source of rotational energy; and an output mechanism (17, 17a, 17b) that is rotatably driven by the input mechanism and is adapted to be connected to a rotatably driven accessory.
A method of estimating available excess energy in electrical equipment powered by a solar panel and by a battery, the method comprising, for a given day, the step of using sensors for measuring voltage across the terminals of the solar panel and current supplied by the solar panel, and the following steps that are performed in a data concentrator: · defining a theoretical power curve (C4, C6, C8, C11) and a real power curve (C1, C2, C3, C5, C9) for the power supplied by the solar panel as a function of time, the real power curve being obtained from the voltage and current measurements; · determining whether or not the day is a day of full sunshine; · defining an efficiency curve from the theoretical power curve and from the real power curve, the efficiency being equal to the ratio of the real power divided by the theoretical power; and · when the efficiency curve reaches a predetermined maximum value and the given day is a day of full sunshine, estimating the available excess energy by subtracting the real power curve from the theoretical power curve as from a first moment of the given day close to a second moment of the given day at which the efficiency curve reaches its maximum value, the first moment of the given day corresponds to a moment at which the efficiency curve reaches a certain predefined percentage of its maximum value; or · when the efficiency curve does not reach the predetermined maximum value or the given day is not a day of full sunshine, estimating the available excess energy by adjusting the theoretical power curve to obtain an adjusted theoretical power curve (C12, C14), and then subtracting the real power curve from the adjusted theoretical power curve as from that first moment of the day. · defining a theoretical power curve (C4, C6, C8, C11) and a real power curve (C1, C2, C3, C5, C9) for the power supplied by the solar panel as a function of time, the real power curve being obtained from the voltage and current measurements; · determining whether or not the day is a day of full sunshine; · defining an efficiency curve from the theoretical power curve and from the real power curve, the efficiency being equal to the ratio of the real power divided by the theoretical power; and · when the efficiency curve reaches a predetermined maximum value and the given day is a day of full sunshine, estimating the available excess energy by subtracting the real power curve from the theoretical power curve as from a first moment of the given day close to a second moment of the given day at which the efficiency curve reaches its maximum value, the first moment of the given day corresponds to a moment at which the efficiency curve reaches a certain predefined percentage of its maximum value; or · when the efficiency curve does not reach the predetermined maximum value or the given day is not a day of full sunshine, estimating the available excess energy by adjusting the theoretical power curve to obtain an adjusted theoretical power curve (C12, C14), and then subtracting the real power curve from the adjusted theoretical power curve as from that first moment of the day.
Stone picker connected to an agricultural tractor or equivalent, the stone picker comprising several hydraulic driven work units (2, 2', 5): a left rake unit, a right rake unit (2") and lift rotor, and hydraulic motors (3, 3', 6, 6') driving said work units, characterized in that the hydraulic motors (6, 6') are arranged to drive the lifting rotor, and the hydraulic motors (3, 3') are arranged to drive the rake units (2, 2'), and each of the hydraulic motors (3, 3') is connected in series with a hydraulic motor (6, 6') of the lifting rotor, said hydraulic motors of the lifting rotor also being arranged to act as pumps, whereby kinetic energy stored in the lifting rotor together with surplus hydraulic power from the motors (6, 6') of the lifting rotor, is arranged to be suppliable to the motor (3 or 3') of a instantaneous most loaded rake unit (2, 2') to assist the motor (3, 3') thereof at load fluctuations, and thereby being arranged to minimize a total hydraulic power demand of the stone picker.