mhurhangee/patent-ind-claim-en huggingface dataset:
A display device (DD) comprising: a display panel (DP) comprising a display area (DP-DA) and a non-display area (DP-NDA) defined therein and comprising a plurality of signal pads (DP-PD) overlapping the non-display area (DP-NDA); an electronic component (DC) comprising a base layer (DC-BS) with an upper surface (DC-US) and a lower surface (DC-DS), a plurality of driving pads (DC-PD) disposed on the lower surface (DC-DS) of the base layer (DC-BS), and a plurality of driving bumps (DC-BP) respectively disposed on the plurality of driving pads (DC-PD), the plurality of driving bumps (DC-BP) being respectively connected to the plurality of signal pads (DP-PD); and a filler (RS) disposed between the display panel (DP) and the electronic component (DC), characterized in that : a first hole (HO, HOa) is defined in the upper surface (DC-US) of the base layer (DC-BS), and the first hole (HO, HOa) does not overlap the plurality of driving bumps (DC-BP) and the first hole (HO, HOa) overlaps the filler (RS) in a plan view wherein the filler (RS) is cured by UV light. a display panel (DP) comprising a display area (DP-DA) and a non-display area (DP-NDA) defined therein and comprising a plurality of signal pads (DP-PD) overlapping the non-display area (DP-NDA); an electronic component (DC) comprising a base layer (DC-BS) with an upper surface (DC-US) and a lower surface (DC-DS), a plurality of driving pads (DC-PD) disposed on the lower surface (DC-DS) of the base layer (DC-BS), and a plurality of driving bumps (DC-BP) respectively disposed on the plurality of driving pads (DC-PD), the plurality of driving bumps (DC-BP) being respectively connected to the plurality of signal pads (DP-PD); and a filler (RS) disposed between the display panel (DP) and the electronic component (DC), characterized in that : a first hole (HO, HOa) is defined in the upper surface (DC-US) of the base layer (DC-BS), and the first hole (HO, HOa) does not overlap the plurality of driving bumps (DC-BP) and the first hole (HO, HOa) overlaps the filler (RS) in a plan view wherein the filler (RS) is cured by UV light.
A head-mounted display to be worn by a user, comprising: a housing ; a component chamber defined in the housing; electronic components that generate heat, wherein the electronic components are located in the component chamber of the housing; a first fan for causing air to flow through the component chamber; and a flow control component that is operable to change an amount of the air that flows through the component chamber by movement between a closed position and an open position, wherein the flow control component is a controllable electromechanical device. a housing ; a component chamber defined in the housing; electronic components that generate heat, wherein the electronic components are located in the component chamber of the housing; a first fan for causing air to flow through the component chamber; and a flow control component that is operable to change an amount of the air that flows through the component chamber by movement between a closed position and an open position, wherein the flow control component is a controllable electromechanical device.
A method for use in a management entity of a virtualized network, comprising: receiving (S51) information regarding an installation of an application to a server , the information comprising a detection pattern based on detection information associated along with the application to be installed, wherein the detection pattern is used for detecting a data flow to be routed via the application to be installed, establishing (S52) a routing rule based on the detection pattern, and sending (S53) the routing rule to the server into which the application is to be installed. receiving (S51) information regarding an installation of an application to a server , the information comprising a detection pattern based on detection information associated along with the application to be installed, wherein the detection pattern is used for detecting a data flow to be routed via the application to be installed, establishing (S52) a routing rule based on the detection pattern, and sending (S53) the routing rule to the server into which the application is to be installed.
A method, performed by a radio network node , for managing charging of a user equipment connected via air interface to said radio network node , for data transmission in a network by enabling management of a traffic steering policy relating to access resources for providing an access to a network for the user equipment , wherein the method comprises: receiving (A020), from a core network node , an indication of the traffic steering policy, wherein the traffic steering policy indicates one or more access resources and at least one of a Packet Data Network ,PDN, connection, a packet flow, and a bearer to use on the one or more access resources; determining (A030) to steer traffic of the user equipment for the at least one of the PDN connection, the packet flow, and the bearer, through the one or more access resources; and transmitting (A040) access information to the core network node , wherein the access information indicates a currently used access resource, amongst the one or more access resources, for the PDN connection, the packet flow or the bearer for enabling charging of the user equipment . receiving (A020), from a core network node , an indication of the traffic steering policy, wherein the traffic steering policy indicates one or more access resources and at least one of a Packet Data Network ,PDN, connection, a packet flow, and a bearer to use on the one or more access resources; determining (A030) to steer traffic of the user equipment for the at least one of the PDN connection, the packet flow, and the bearer, through the one or more access resources; and transmitting (A040) access information to the core network node , wherein the access information indicates a currently used access resource, amongst the one or more access resources, for the PDN connection, the packet flow or the bearer for enabling charging of the user equipment .
An electronic device comprising: at least one harvesting unit configured to harvest power from ambient energy; at least one circuit to be supplied with power from the at least one harvesting unit, the at least one circuit comprising processing circuitry configured to perform data processing; and control circuitry configured to adjust at least one property of the processing circuitry and/or the at least one harvesting unit to reduce impedance mismatch between an output impedance of the at least one harvesting unit and an input impedance of the at least one circuit; wherein in a non-power-converted mode of operation of the electronic device, the electronic device is configured to power the processing circuitry directly from the power harvested by the at least one harvesting unit and the processing circuitry is coupled directly to an output of the at least one harvesting unit without an intervening power converter; and wherein the electronic device further comprises a power converter configured to generate a converted voltage from the power generated by the at least one harvesting unit in a power-converted mode of operation and wherein in the power-converted mode of operation, the electronic device is configured to power the processing circuitry using the converted voltage generated by the power converter. at least one harvesting unit configured to harvest power from ambient energy; at least one circuit to be supplied with power from the at least one harvesting unit, the at least one circuit comprising processing circuitry configured to perform data processing; and control circuitry configured to adjust at least one property of the processing circuitry and/or the at least one harvesting unit to reduce impedance mismatch between an output impedance of the at least one harvesting unit and an input impedance of the at least one circuit; wherein in a non-power-converted mode of operation of the electronic device, the electronic device is configured to power the processing circuitry directly from the power harvested by the at least one harvesting unit and the processing circuitry is coupled directly to an output of the at least one harvesting unit without an intervening power converter; and wherein the electronic device further comprises a power converter configured to generate a converted voltage from the power generated by the at least one harvesting unit in a power-converted mode of operation and wherein in the power-converted mode of operation, the electronic device is configured to power the processing circuitry using the converted voltage generated by the power converter.
A method for providing a large-area X-ray image of an object supported by an object support and for providing further synthetic X-ray projections, comprising: ∘ taking a plurality of X-ray projections using an X-ray device, wherein the plurality of X-ray projections are taken during a linear movement of the object holder and/or the X-ray device; ∘ creating at least one tomosynthetic volume from the plurality of X-ray projections; ∘ creating at least one first synthetic forward projection from the at least one tomosynthetic volume, wherein the at least one synthetic forward projection produces a large-area X-ray image; o displaying the large-area X-ray image on a suitable display device; characterized in that the method further comprises: ∘ selecting and/or marking an area of interest within the large-area X-ray image; o creating at least one second synthetic forward projection comprising the area of interest; ∘ displaying the at least one second synthetic forward projection on a suitable display device; wherein the at least one second synthetic forward projection is created in a projection geometry corresponding to the current orientation of the X-ray device in space. ∘ taking a plurality of X-ray projections using an X-ray device, wherein the plurality of X-ray projections are taken during a linear movement of the object holder and/or the X-ray device; ∘ creating at least one tomosynthetic volume from the plurality of X-ray projections; ∘ creating at least one first synthetic forward projection from the at least one tomosynthetic volume, wherein the at least one synthetic forward projection produces a large-area X-ray image; o displaying the large-area X-ray image on a suitable display device; characterized in that the method further comprises: ∘ selecting and/or marking an area of interest within the large-area X-ray image; o creating at least one second synthetic forward projection comprising the area of interest; ∘ displaying the at least one second synthetic forward projection on a suitable display device; ∘ selecting and/or marking an area of interest within the large-area X-ray image; o creating at least one second synthetic forward projection comprising the area of interest; ∘ displaying the at least one second synthetic forward projection on a suitable display device; wherein the at least one second synthetic forward projection is created in a projection geometry corresponding to the current orientation of the X-ray device in space.
A cable tensioning capstan assembly comprising: a capstan drum around which a cable is configured to be wrapped, wherein the capstan drum is configured to rotate about an output axis and wherein the capstan drum comprises a first axial end and a second axial end ; and a first traction flange disposed adjacent the first axial end of the capstan drum; characterised in that the first traction flange is configured to rotate about the output axis ; wherein the first traction flange is independently rotatable relative to the capstan drum. a capstan drum around which a cable is configured to be wrapped, wherein the capstan drum is configured to rotate about an output axis and wherein the capstan drum comprises a first axial end and a second axial end ; and a first traction flange disposed adjacent the first axial end of the capstan drum; characterised in that the first traction flange is configured to rotate about the output axis ; wherein the first traction flange is independently rotatable relative to the capstan drum.
Process for preparing organyloxysilyl-terminated polymers (A), characterized in that in a first step at least one hydroxy-functional organic compound is reacted with at least one isocyanate-functional compound and also, optionally, with a silane containing organyloxy groups, in the presence of at least one metal-containing catalyst (B), and in a second step the resulting reaction mixture is admixed with chelating agent (C), which is selected from (C1) crown ether, (C2) heterocycle-containing compound whose heteroatom located in the cyclic moiety possesses a free electron pair, and which comprises at least one further heteroatom having a free electron pair, and (C3) compound containing at least two groups per molecule that are selected from carboxyl groups, carboxylate groups, sulfate groups, sulfonate groups, phosphate groups, phosphonate groups, cyanide groups, and cyanate groups. in a first step at least one hydroxy-functional organic compound is reacted with at least one isocyanate-functional compound and also, optionally, with a silane containing organyloxy groups, in the presence of at least one metal-containing catalyst (B), and in a second step the resulting reaction mixture is admixed with chelating agent (C), which is selected from (C1) crown ether, (C2) heterocycle-containing compound whose heteroatom located in the cyclic moiety possesses a free electron pair, and which comprises at least one further heteroatom having a free electron pair, and (C3) compound containing at least two groups per molecule that are selected from carboxyl groups, carboxylate groups, sulfate groups, sulfonate groups, phosphate groups, phosphonate groups, cyanide groups, and cyanate groups. (C1) crown ether, (C2) heterocycle-containing compound whose heteroatom located in the cyclic moiety possesses a free electron pair, and which comprises at least one further heteroatom having a free electron pair, and (C3) compound containing at least two groups per molecule that are selected from carboxyl groups, carboxylate groups, sulfate groups, sulfonate groups, phosphate groups, phosphonate groups, cyanide groups, and cyanate groups.
An on-wafer S-parameter calibration method, comprising: performing (S101) two-port calibration on a waveguide end face when a probe is not connected to a test system; performing (S102) one-port calibration on each of two probe end faces when the probe is connected to the test system; correcting (S103) a crosstalk error of the test system according to a crosstalk calibration standard, wherein the crosstalk calibration standard is fabricated on a substrate of a device under test and equal to the device under test in length; acquiring (S401) a first set of error terms through the two-port calibration, and acquiring a second set of error terms through the one-port calibration, where the first set of error terms and the second set of error terms compose an 8-term error model; acquiring (S402) four crosstalk error terms by correcting the crosstalk error of the test system; establishing (S403) a 12-term error model according to the 8-term error model and the four crosstalk error terms; and obtaining an S-parameter of the device under test after calibration of the test system according to the 12-term error model. performing (S101) two-port calibration on a waveguide end face when a probe is not connected to a test system; performing (S102) one-port calibration on each of two probe end faces when the probe is connected to the test system; correcting (S103) a crosstalk error of the test system according to a crosstalk calibration standard, wherein the crosstalk calibration standard is fabricated on a substrate of a device under test and equal to the device under test in length; acquiring (S401) a first set of error terms through the two-port calibration, and acquiring a second set of error terms through the one-port calibration, where the first set of error terms and the second set of error terms compose an 8-term error model; acquiring (S402) four crosstalk error terms by correcting the crosstalk error of the test system; establishing (S403) a 12-term error model according to the 8-term error model and the four crosstalk error terms; and obtaining an S-parameter of the device under test after calibration of the test system according to the 12-term error model.
Method for inspecting a geometry , the geometry being a weld joint having a surface , which method uses an inspection device having a digital image capturing means and a shape scanning means , which method comprises the steps of a) orienting the inspection device in a first orientation in relation to the surface ; b) depicting the surface using said image capturing means to produce a first image; c) measuring a shape of a first part of said geometry using said shape scanning means to produce a first shape; d) moving the inspection device to a second orientation in relation to the surface , which second orientation is not the same as the first orientation; e) depicting the surface using said image capturing means to produce a second image; f) measuring a second part of said geometry using said shape scanning means to produce a second shape; g) using digital image processing based on said first and second images, determining a geometric orientation difference between said first and second orientations, the determining comprising the calculation of a maximum value for a correlation between said first and second images when varying a translational relative position of said first and second images; h) based on said geometric orientation difference, determining a geometric relation between the first and second shapes; and i) producing a data representation of said geometry based on said first shape, said second shape and said geometric relation. a) orienting the inspection device in a first orientation in relation to the surface ; b) depicting the surface using said image capturing means to produce a first image; c) measuring a shape of a first part of said geometry using said shape scanning means to produce a first shape; d) moving the inspection device to a second orientation in relation to the surface , which second orientation is not the same as the first orientation; e) depicting the surface using said image capturing means to produce a second image; f) measuring a second part of said geometry using said shape scanning means to produce a second shape; g) using digital image processing based on said first and second images, determining a geometric orientation difference between said first and second orientations, the determining comprising the calculation of a maximum value for a correlation between said first and second images when varying a translational relative position of said first and second images; h) based on said geometric orientation difference, determining a geometric relation between the first and second shapes; and i) producing a data representation of said geometry based on said first shape, said second shape and said geometric relation.
Agronomic fertilizer pellet based on multipurpose extinguishing powders comprising an organic matrix characterized in that it has the following formulation: 45-35% of Compost + 15-20% solid residues of exhausted coffee grounds + 15-20% of Jatropha + 10-5% of class ABC-E extinguishing powders + 5-10% Starch + 5-10% of Wood chips.
High strength, thermoformable special brass alloy with a structure comprising a β-phase with a volume proportion of 50-80% and a γ-phase with a volume proportion of 10-40%, wherein the γ-phase comprises in atom percent 50-60 Cu, 25-36 Zn, 5-13 Al, wherein the γ-phase is embedded into the β-phase matrix, wherein the special brass alloy further comprises hard intermetallic phases in a volume proportion of 5-15 %, and exhibits the following composition (values in % by weight): Cu: 50-58 Mn: 1.5-3.1 Ni: 3.2-5.85 AI: 2.8- 5.6 Si: 0.5-2.5 Sn: 0.05-0.5 Cr: 0.05-1 P: 0.01-0.1 Fe: max. 0.3 Pb: max. 0.1 Zn: Remainder, together with unavoidable impurities Cu: 50-58 Mn: 1.5-3.1 Ni: 3.2-5.85 AI: 2.8- 5.6 Si: 0.5-2.5 Sn: 0.05-0.5 Cr: 0.05-1 P: 0.01-0.1 Fe: max. 0.3 Pb: max. 0.1 Zn: Remainder, together with unavoidable impurities
Mixer with a housing and with a mixing device drive arranged in the housing, wherein the mixing device drive for measuring a torque introduced into a medium to be mixed by said mixing device drive is mounted to pivot about a pivot axis within the housing , and is supported at least indirectly against at least one rotational direction (Pf. 1) of the mixing device drive , wherein the mixer has a measuring device for detecting a reaction force of this support.
A soft magnetic resin composition comprising soft magnetic particles, epoxy resin, phenol resin, and acrylic resin, wherein the epoxy resin is trishydroxyphenylmethane epoxy resin, and the phenol resin is phenolnovolak resin, and the soft magnetic particle content relative to the soft magnetic resin composition is 60 vol% or more, the soft magnetic resin composition after curing has a linear expansion coefficient of 22.0 ppm/°C or less, characterised in that a total amount of the epoxy resin, the phenol resin, and the acrylic resin has an acrylic resin mass percentage of 1.0 mass% or more and 15.0 mass% or less. wherein the epoxy resin is trishydroxyphenylmethane epoxy resin, and the phenol resin is phenolnovolak resin, and the soft magnetic particle content relative to the soft magnetic resin composition is 60 vol% or more, the soft magnetic resin composition after curing has a linear expansion coefficient of 22.0 ppm/°C or less, characterised in that a total amount of the epoxy resin, the phenol resin, and the acrylic resin has an acrylic resin mass percentage of 1.0 mass% or more and 15.0 mass% or less.
Use of a hose having - a polymer elastic layer , which contains a thermoplastic elastomer (TPE) having a thermoplastic component (TK) and an elastomer component (EK), - a reinforcing layer surrounding the elastic layer and - optionally an outer layer surrounding the reinforcing layer , preferably made from polymer material, - wherein the inner side of the elastic layer is provided with a polymer inner layer having a layer thickness (s) of 0.1 to 0.5 mm, the inner surface of which delimits a free cross-section (A) for the transport of a fluid (F) to be conducted and - wherein the inner layer has a Shore A hardness of more than 85, determined according to DIN EN ISO 868 (e.g. on 2 mm dense injection moulding plates, 3 layers, reading time 1 to 3 sec.), for the transport of drinking water. - a polymer elastic layer , which contains a thermoplastic elastomer (TPE) having a thermoplastic component (TK) and an elastomer component (EK), - a reinforcing layer surrounding the elastic layer and - optionally an outer layer surrounding the reinforcing layer , preferably made from polymer material, - wherein the inner side of the elastic layer is provided with a polymer inner layer having a layer thickness (s) of 0.1 to 0.5 mm, the inner surface of which delimits a free cross-section (A) for the transport of a fluid (F) to be conducted and - wherein the inner layer has a Shore A hardness of more than 85, determined according to DIN EN ISO 868 (e.g. on 2 mm dense injection moulding plates, 3 layers, reading time 1 to 3 sec.),
A strain of Lactobacillus reuteri probiotic bacteria and a poultry vaccine for use in the in ovo vaccination of poultry, wherein said strain and said vaccine are administered to an embryonated poultry egg together, as a combined preparation; wherein said vaccine is for Marek's disease; and wherein said vaccine comprises a strain of turkey herpes virus or a strain of chicken herpes virus, or a combination thereof.
A pharmaceutical composition for use in a method of treating a subject having cancer, wherein said method comprises orally administering said pharmaceutical composition once per day, and wherein said pharmaceutical composition comprises a therapeutically effective amount of 5-azacytidine and is an immediate release composition.