mhurhangee/patent-ind-claim-en huggingface dataset:
A heating device (D) for use in a vehicle and configured for heating a fluid circulating between an inlet port (I) and an outlet port , which device comprises: - a chassis with a planar configuration, comprising a first face (A) and a second face (B) arranged on the side opposite the first face (A), defining an inner chamber (C) for the passage of the fluid, wherein the inner chamber (C) comprises at least a first window (1.1.2) arranged on one of the faces (A, B) of the chassis ; the inlet port (I) is in fluid communication with the chamber (C), and the outlet port is in fluid communication with the chamber (C); - a heating plate ; - at least one heating region (R) in the heating plate ; wherein the heating plate is configured for closing the at least one window (1.1.2) of the inner chamber (C) in a leak-tight manner, wherein the heating region (R) of the heating plate is oriented towards the inside of the inner chamber (C) for heating fluid intended for circulating through the inner chamber (C), characterized in that the heating plate further comprises a layer of dielectric material (2.2, 3.2) and a structural plate (2.3, 3.3) that are stacked together, such that: - the dielectric material is interposed between the structural plate (2.3, 3.3) and the heating element (2.1, 3.1), and - the heating region (R) is located on the surface of the structural plate (2.3, 3.3) opposite the surface of the structural plate (2.3, 3.3) in contact with the layer of dielectric material (2.2, 3.2). - a chassis with a planar configuration, comprising a first face (A) and a second face (B) arranged on the side opposite the first face (A), defining an inner chamber (C) for the passage of the fluid, wherein the inner chamber (C) comprises at least a first window (1.1.2) arranged on one of the faces (A, B) of the chassis ; the inlet port (I) is in fluid communication with the chamber (C), and the outlet port is in fluid communication with the chamber (C); the inner chamber (C) comprises at least a first window (1.1.2) arranged on one of the faces (A, B) of the chassis ; the inlet port (I) is in fluid communication with the chamber (C), and the outlet port is in fluid communication with the chamber (C); - a heating plate ; - at least one heating region (R) in the heating plate ; wherein the heating plate is configured for closing the at least one window (1.1.2) of the inner chamber (C) in a leak-tight manner, wherein the heating region (R) of the heating plate is oriented towards the inside of the inner chamber (C) for heating fluid intended for circulating through the inner chamber (C), characterized in that - the dielectric material is interposed between the structural plate (2.3, 3.3) and the heating element (2.1, 3.1), and - the heating region (R) is located on the surface of the structural plate (2.3, 3.3) opposite the surface of the structural plate (2.3, 3.3) in contact with the layer of dielectric material (2.2, 3.2).
Configuration device for a system comprising an electrical device in the form of a machine tool or an energy storage module for the electrical power supply to the machine tool , together with a vacuum cleaner for the removal by suction of dust generated by the machine tool , wherein the vacuum cleaner may be controlled by the electrical device via a wireless control link (S1, S2), in particular for switch-on and switch-off of the suction unit , wherein the machine tool has a drive motor for driving a tool holder on which there is or may be mounted a tool provided for machining a workpiece (W), wherein the vacuum cleaner has a suction device housing with a dirt collecting chamber for holding dirt separated from a suction flow (S) and also a suction unit for generating the suction flow (S), wherein the suction device housing (71; 871) has a suction inlet for connecting a flow connection for the suction flow (S) to the machine tool , wherein the vacuum cleaner and the electrical device have first communications interfaces conforming to a first communications standard for communication over the wireless control link (S1, S2), characterised in that the configuration device has a communications interface conforming to a second communications standard differing from the first communications standard and provided for wireless transmission of at least one communication parameter for the setting of at least one of the first communications interfaces of the first communications standard.
A moisture-absorbing sheet comprising a hygroscopic molded article containing a resin component and a hygroscopic agent, the hygroscopic agent comprising calcium oxide-based particles having a specific surface area of 0.5 m 2 /g to 5 m 2 /g and an average particle diameter of 0.5 μm to 50 μm, wherein the specific surface area of the hygroscopic agent is a BET specific surface area and the average particle diameter of the hygroscopic agent is measured with a laser type particle size distribution measuring apparatus; the resin component comprising a fibrillated fluororesin; and the sheet having a) a weight increase ratio of 1% or less after being allowed to stand for 2 hours in an atmosphere at a temperature of 20°C and a relative humidity of 65%; and b) a weight increase ratio of 5% or more after being allowed to further stand for 36 hours after being allowed to stand for 36 hours in an atmosphere at a temperature of 20°C and a relative humidity of 65%. the hygroscopic agent comprising calcium oxide-based particles having a specific surface area of 0.5 m 2 /g to 5 m 2 /g and an average particle diameter of 0.5 μm to 50 μm, wherein the specific surface area of the hygroscopic agent is a BET specific surface area and the average particle diameter of the hygroscopic agent is measured with a laser type particle size distribution measuring apparatus; the resin component comprising a fibrillated fluororesin; and the sheet having a) a weight increase ratio of 1% or less after being allowed to stand for 2 hours in an atmosphere at a temperature of 20°C and a relative humidity of 65%; and b) a weight increase ratio of 5% or more after being allowed to further stand for 36 hours after being allowed to stand for 36 hours in an atmosphere at a temperature of 20°C and a relative humidity of 65%. a) a weight increase ratio of 1% or less after being allowed to stand for 2 hours in an atmosphere at a temperature of 20°C and a relative humidity of 65%; and b) a weight increase ratio of 5% or more after being allowed to further stand for 36 hours after being allowed to stand for 36 hours in an atmosphere at a temperature of 20°C and a relative humidity of 65%.
A terminal fixing method for fixing one ore more terminals to a plurality of lands provided on a substrate by laser soldering, comprising: constructing the plurality of lands by one ore more terminal installation lands on which the terminals are installed and one or more dummy lands , characterized in that the terminal fixing method further comprises the step of: irradiating each of divided laser beams (19; 19A, 19B) emitted from a laser oscillator toward a corresponding land of two or more lands in the plurality of lands so as executing the laser soldering, wherein the two or more lands are constructed by two or more terminal installation lands in the terminal installation lands , or one or more terminal installation lands in the terminal installation lands and the one or more dummy lands , and wherein said one or more dummy lands are each larger than each of the terminal installation lands . irradiating each of divided laser beams (19; 19A, 19B) emitted from a laser oscillator toward a corresponding land of two or more lands in the plurality of lands so as executing the laser soldering, wherein the two or more lands are constructed by two or more terminal installation lands in the terminal installation lands , or one or more terminal installation lands in the terminal installation lands and the one or more dummy lands , and wherein said one or more dummy lands are each larger than each of the terminal installation lands .
A pre-form of a card-type information substrate, comprising a frame formed around a perimeter of a base material , said material of said frame having a higher specific weight compared to the base material in the form of plastic and thus imparting increased weight to said pre-form ; a metal containing plate provided within an outline of said frame ; and an antenna positioned within said outline of said frame and configured to enable wireless communication; characterized in that said pre-form further comprises: a first disconnecting layer covering, said frame , said base material , said metal containing plate and said antenna and forming a first surface of said pre-form , wherein said first disconnecting layer comprises a rigid material which does not soften or flow onto or into respective steps formed by thickness differences of the materials of said frame , said base material , said metal containing plate or said antenna during lamination of further components to said pre-form . a frame formed around a perimeter of a base material , said material of said frame having a higher specific weight compared to the base material in the form of plastic and thus imparting increased weight to said pre-form ; a metal containing plate provided within an outline of said frame ; and an antenna positioned within said outline of said frame and configured to enable wireless communication; a first disconnecting layer covering, said frame , said base material , said metal containing plate and said antenna and forming a first surface of said pre-form , wherein said first disconnecting layer comprises a rigid material which does not soften or flow onto or into respective steps formed by thickness differences of the materials of said frame , said base material , said metal containing plate or said antenna during lamination of further components to said pre-form .
An apparatus for examining documents, in particular value documents, identification documents or security documents, having - at least one excitation device for exciting luminescence light in or on a document to be examined, and - at least two detector units formed as photo diodes for capturing at least part of the luminescence light emitted by the document , wherein the detector units are disposed one behind the other with respect to the luminescence light emitted by the document , characterized in that - the photo diodes have different absorption edges and are integrated on a common component , wherein the component comprises at least two p-n junctions (22/21, 23/21, 32/33, 34/33), wherein to each p-n junction (22/21, 23/21, 32/33, 34/33) there corresponds respectively one detector unit , and - for the first detector unit a photo diode based on silicon is used and for the second detector unit a photo diode based on germanium is used or that photo diodes based on silicon and indium-germanium-arsenide (InGaAs) or on silicon and lead sulfide (PbS) are combined in order to detect the luminescence light in two different partial spectral ranges. - at least one excitation device for exciting luminescence light in or on a document to be examined, and - at least two detector units formed as photo diodes for capturing at least part of the luminescence light emitted by the document , wherein the detector units are disposed one behind the other with respect to the luminescence light emitted by the document , characterized in that - the photo diodes have different absorption edges and are integrated on a common component , wherein the component comprises at least two p-n junctions (22/21, 23/21, 32/33, 34/33), wherein to each p-n junction (22/21, 23/21, 32/33, 34/33) there corresponds respectively one detector unit , and - for the first detector unit a photo diode based on silicon is used and for the second detector unit a photo diode based on germanium is used or that photo diodes based on silicon and indium-germanium-arsenide (InGaAs) or on silicon and lead sulfide (PbS) are combined in order to detect the luminescence light in two different partial spectral ranges.
A system comprising: a first storage device storing a boot manifest , the boot manifest comprising a manifest type flag; a second storage device storing a counter value; and a microcontroller in communication with the first storage device and the second storage device, the microcontroller to perform a boot process, and configured to: determine a(S565/S580) manifest type of the boot manifest based on the manifest type flag; determine (S560) a tenancy mode based on a parity of the counter value; execute an owner secure boot flow (S570) if the manifest type is an owner manifest type and the tenancy mode is an owner tenancy mode; execute a tenancy revocation flow (S575) if the manifest type is the owner manifest type and the tenancy mode is a tenant tenancy mode; execute a tenancy transfer flow (S585) if the manifest type is a tenant manifest type and the tenancy mode is the owner tenancy mode; and execute a tenancy secure boot flow (S590) if the manifest type is the tenant manifest type and the tenancy mode is the tenant tenancy mode. a first storage device storing a boot manifest , the boot manifest comprising a manifest type flag; a second storage device storing a counter value; and a microcontroller in communication with the first storage device and the second storage device, the microcontroller to perform a boot process, and configured to: determine a(S565/S580) manifest type of the boot manifest based on the manifest type flag; determine (S560) a tenancy mode based on a parity of the counter value; execute an owner secure boot flow (S570) if the manifest type is an owner manifest type and the tenancy mode is an owner tenancy mode; execute a tenancy revocation flow (S575) if the manifest type is the owner manifest type and the tenancy mode is a tenant tenancy mode; execute a tenancy transfer flow (S585) if the manifest type is a tenant manifest type and the tenancy mode is the owner tenancy mode; and execute a tenancy secure boot flow (S590) if the manifest type is the tenant manifest type and the tenancy mode is the tenant tenancy mode. determine a(S565/S580) manifest type of the boot manifest based on the manifest type flag; determine (S560) a tenancy mode based on a parity of the counter value; execute an owner secure boot flow (S570) if the manifest type is an owner manifest type and the tenancy mode is an owner tenancy mode; execute a tenancy revocation flow (S575) if the manifest type is the owner manifest type and the tenancy mode is a tenant tenancy mode; execute a tenancy transfer flow (S585) if the manifest type is a tenant manifest type and the tenancy mode is the owner tenancy mode; and execute a tenancy secure boot flow (S590) if the manifest type is the tenant manifest type and the tenancy mode is the tenant tenancy mode.
A method of making an inductance coil comprising a magnetic core and the coil which is wound around the magnetic core , wherein the coil is formed by: winding a flat surfaced wire around a winding axis, wherein the flat surface of the wire is perpendicular to the winding axis, such that the coil has a regular shape, wrapping a surface of the coil with an insulating adhesive tape , whereby the insulating adhesive tape is wound on and adhered to the coil formed by the wound wire, such that the insulating adhesive tape is wound around an axis which is substantially in line with the direction along which the wound wire forming the coil extends without leaving any gaps between the insulating adhesive tape and the surface of the coil , so as to form an isolation layer on the surface of the coil . winding a flat surfaced wire around a winding axis, wherein the flat surface of the wire is perpendicular to the winding axis, such that the coil has a regular shape, wrapping a surface of the coil with an insulating adhesive tape , whereby the insulating adhesive tape is wound on and adhered to the coil formed by the wound wire, such that the insulating adhesive tape is wound around an axis which is substantially in line with the direction along which the wound wire forming the coil extends without leaving any gaps between the insulating adhesive tape and the surface of the coil , so as to form an isolation layer on the surface of the coil .
Method for additively manufacturing of three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy source, wherein a carrying unit is provided that is adapted to carry the object to be built, wherein at least one foil- or sheet-like carrying element is detachably connected with the carrying unit , wherein the carrying element provides a surface on which the object is additively built, wherein at least one part of the carrying element is part of at least one object to be built, characterized in that an area of the surface of the at least one carrying element provided for the object to be built on is chosen or adjusted dependent on the shape and/or size of the bottom surface of the object to be built, wherein the object is built on the carrying element .
A winding and unwinding apparatus , comprising: supports ; a rotating shaft capable of being rotatably disposed on the support ; a rotating turret disposed on the rotating shaft and capable of rotating along with the rotating shaft so as to switch between at least two target operation positions, wherein the rotating turret is configured for mounting a winding drum ; and a power assembly disposed on the support and comprising a first power source and the winding and unwinding apparatus being characterized in that it further comprises a magnetic powder clutch , and in that the rotating shaft and the first power source are in transmission connection with each other via the magnetic powder clutch , and the magnetic powder clutch is configured to control the rotating shaft to remain stationary when the rotating turret is hovering at each target operation position. supports ; a rotating shaft capable of being rotatably disposed on the support ; a rotating turret disposed on the rotating shaft and capable of rotating along with the rotating shaft so as to switch between at least two target operation positions, wherein the rotating turret is configured for mounting a winding drum ; and a power assembly disposed on the support and comprising a first power source and the winding and unwinding apparatus being characterized in that it further comprises a magnetic powder clutch , and in that the rotating shaft and the first power source are in transmission connection with each other via the magnetic powder clutch , and the magnetic powder clutch is configured to control the rotating shaft to remain stationary when the rotating turret is hovering at each target operation position.
A microwave heating apparatus comprising: a solid state microwave energy source; a first dielectric resonator antenna that includes a first exciter dielectric resonator and a first feed structure in proximity to the first exciter dielectric resonator, wherein the first exciter dielectric resonator has a top surface and an opposed bottom surface, wherein the first feed structure is electrically coupled to the microwave energy source to receive a first excitation signal from the microwave energy source, and wherein the first exciter dielectric resonator is configured to produce a first electric field in response to the excitation signal provided to the first feed structure; and one or more second dielectric resonators positioned within a distance less than one fifth of a wavelength of a resonant frequency of the first exciter dielectric resonator to form a dielectric resonator antenna array , wherein the distance is selected so that each of the second dielectric resonators is closely capacitively coupled with the first exciter dielectric resonator when the excitation signal is provided. a solid state microwave energy source; a first dielectric resonator antenna that includes a first exciter dielectric resonator and a first feed structure in proximity to the first exciter dielectric resonator, wherein the first exciter dielectric resonator has a top surface and an opposed bottom surface, wherein the first feed structure is electrically coupled to the microwave energy source to receive a first excitation signal from the microwave energy source, and wherein the first exciter dielectric resonator is configured to produce a first electric field in response to the excitation signal provided to the first feed structure; and one or more second dielectric resonators positioned within a distance less than one fifth of a wavelength of a resonant frequency of the first exciter dielectric resonator to form a dielectric resonator antenna array , wherein the distance is selected so that each of the second dielectric resonators is closely capacitively coupled with the first exciter dielectric resonator when the excitation signal is provided.
Sealing strip for sealing a joint between two components , in particular between building components, the sealing strip extending in a longitudinal direction (L) and having, in the cross-sectional profile, two fastening portions between which two separate adjacent sealing portions are provided, the sealing strip being formed from a film material and a compressible foam, the sealing portions each having a chamber formed between two film portions of the film material , the sealing portions being formed so as to be directly adjacent to one another, the sealing portions being separated from one another by an intended bending point extending in the longitudinal direction (L), the sealing portions being designed to taper toward the intended bending point in order to form a recess between the sealing portions , and the chamber being filled with the compressible foam, characterized in that the film portions of the sealing portions are welded together at the fastening portions and at the intended bending point .
An abrasive grain on the basis of electrofused aluminum oxide with a surface coating comprising titanium oxide and/or carbon, wherein compounds formed of titanium oxide particles and/or carbon particles at the abrasive grain surface by means of a temperature treatment are tightly connected to the abrasive grain surface, characterized in that a direct tight bond without an additional binding agent is formed between the abrasive grain surface and the titanium oxide and/or carbon particles comprising an average particle size of between 0.01 μm and 10 μm.
A composition for maintaining protein integrity of a biological sample comprising: one or more chloride salts; one or more phosphate salts; one of more non-ionic detergents; one or more chelators; and one or more lithium salts. one or more chloride salts; one or more phosphate salts; one of more non-ionic detergents; one or more chelators; and one or more lithium salts.