mhurhangee/patent-ind-claim-en huggingface dataset:
An injection blow molding method for making a container comprising the steps of injecting a molten crystallizable polymer in a preform mold via a hot runner system and biaxially stretching the preform by blowing, thereby forming a container, characterized in that the step of injecting comprises adding locally applied friction/shear in the hot runner wherein said adding comprises selectively modifying the polymer melt flow path from a cross-sectional point-of-view and in relation to its length, wherein the hot runner construction is modified in a manner to force macromolecules in the polymer melt into different degrees of pre-alignment/orientation, thereby inducing in the preform regular sequence of variations in molecular pre- alignment/orientation between different locations of the wall cross-section of the preform.
An anti-aliasing method comprising: performing a Z-prepass using rasterization at one sample per pixel, wherein all pixels are marked that are fully covered by a triangle primitive, and for each fully covered pixel, writing the maximum depth (Z-max) over the pixel to a depth buffer; performing a fragment count pass using rasterization at one sample per pixel, wherein all pixels are marked that are fully or partially covered by a triangle primitive, including outputting the minimum depth (Z-min) for each pixel and counting for each pixel the number of fragments that pass the depth test, wherein pixels that are fully covered by a single triangle primitive get a count of one; performing a main rendering pass using rasterization at one sample per pixel, wherein all pixels are marked that are fully or partially covered by a triangle primitive, including outputting the minimum depth (Z-min) for each pixel and shading each generated fragment that passes the depth test at the pixel center or at an appropriately chosen centroid location for partially covered fragments; if a pixel is fully covered and the fragment count is one, write the color to the frame buffer; if the pixel is partially covered or the fragment count is larger than one, store the pixel to a separate array along with auxiliary information, and discard the pixel for further processing in a 3D pipeline, performing an anti-aliasing pass over all fragments generated in the main rendering pass, wherein for each pixel the list of associated fragments is processed to resolve visibility and color. performing a Z-prepass using rasterization at one sample per pixel, wherein all pixels are marked that are fully covered by a triangle primitive, and for each fully covered pixel, writing the maximum depth (Z-max) over the pixel to a depth buffer; performing a fragment count pass using rasterization at one sample per pixel, wherein all pixels are marked that are fully or partially covered by a triangle primitive, including outputting the minimum depth (Z-min) for each pixel and counting for each pixel the number of fragments that pass the depth test, wherein pixels that are fully covered by a single triangle primitive get a count of one; performing a main rendering pass using rasterization at one sample per pixel, wherein all pixels are marked that are fully or partially covered by a triangle primitive, including outputting the minimum depth (Z-min) for each pixel and shading each generated fragment that passes the depth test at the pixel center or at an appropriately chosen centroid location for partially covered fragments; if a pixel is fully covered and the fragment count is one, write the color to the frame buffer; if the pixel is partially covered or the fragment count is larger than one, store the pixel to a separate array along with auxiliary information, and discard the pixel for further processing in a 3D pipeline, performing an anti-aliasing pass over all fragments generated in the main rendering pass, wherein for each pixel the list of associated fragments is processed to resolve visibility and color.
A method of operation at a wireless communication device configured for operation in a wireless communication network , the method comprising: determining , based on information received from the network , a sequence offset for a demodulation reference signal, DMRS, sequence ; determining , based on the sequence offset, which reference signal sequence elements of the DMRS sequence map to a scheduled bandwidth of the wireless communication device , wherein the scheduled bandwidth is a portion of a larger, system bandwidth associated with the network , and characterized by: transmitting one or more of the sequence elements of the DMRS sequence ; wherein the DMRS sequence elements map to the system bandwidth according to a mapping between respective sequence elements constituting the reference signal sequence and respective subcarriers constituting the system bandwidth and, wherein the information received from the network indicates a position of a configured bandwidth within the system bandwidth , and wherein determining the sequence offset comprises determining the sequence offset based on the position of the configured bandwidth and a position of the scheduled banwidth , wherein the scheduled bandwidth is contained within the configured bandwidth . determining , based on information received from the network , a sequence offset for a demodulation reference signal, DMRS, sequence ; determining , based on the sequence offset, which reference signal sequence elements of the DMRS sequence map to a scheduled bandwidth of the wireless communication device , wherein the scheduled bandwidth is a portion of a larger, system bandwidth associated with the network , and characterized by: transmitting one or more of the sequence elements of the DMRS sequence ; wherein the DMRS sequence elements map to the system bandwidth according to a mapping between respective sequence elements constituting the reference signal sequence and respective subcarriers constituting the system bandwidth and, wherein the information received from the network indicates a position of a configured bandwidth within the system bandwidth , and wherein determining the sequence offset comprises determining the sequence offset based on the position of the configured bandwidth and a position of the scheduled banwidth , wherein the scheduled bandwidth is contained within the configured bandwidth . transmitting one or more of the sequence elements of the DMRS sequence ; wherein the DMRS sequence elements map to the system bandwidth according to a mapping between respective sequence elements constituting the reference signal sequence and respective subcarriers constituting the system bandwidth and, wherein the information received from the network indicates a position of a configured bandwidth within the system bandwidth , and wherein determining the sequence offset comprises determining the sequence offset based on the position of the configured bandwidth and a position of the scheduled banwidth , wherein the scheduled bandwidth is contained within the configured bandwidth .
A computer implemented method for sending information between programs, comprising: displaying a graphical user interface comprising a plurality of selectable application icons ; receiving a simultaneous selection of a first icon and a second icon from the plurality of selectable application icons; responsive to receiving the simultaneous selection of the first and second icons: launching a first program associated with the first icon; launching a second program associated with the second icon; sending, from the second program to the first program, information, named context information, relating to the applicative scope of the second program and used to implement performing actions or tasks in the first application in accordance with a general applicative context of the second program; and performing a task in the first program in dependence on the received context information by combining said context information with information from the second program thereby improving the functionality of the first program. displaying a graphical user interface comprising a plurality of selectable application icons ; receiving a simultaneous selection of a first icon and a second icon from the plurality of selectable application icons; launching a first program associated with the first icon; launching a second program associated with the second icon; sending, from the second program to the first program, information, named context information, relating to the applicative scope of the second program and used to implement performing actions or tasks in the first application in accordance with a general applicative context of the second program; and performing a task in the first program in dependence on the received context information by combining said context information with information from the second program thereby improving the functionality of the first program.
A method for assembling a structure formed of objects including discrete objects and a large object that is bigger than the discrete objects , the method comprising: operating in an asynchronous phase in which pick-and-place (PNP) machines at a placement station are each operated independently to place the discrete objects onto a mandrel ; and operating in a synchronous phase in which the PNP machines are operated in tandem to place the large object that spans multiple PNP machines onto the mandrel . operating in an asynchronous phase in which pick-and-place (PNP) machines at a placement station are each operated independently to place the discrete objects onto a mandrel ; and operating in a synchronous phase in which the PNP machines are operated in tandem to place the large object that spans multiple PNP machines onto the mandrel .
A guidance device, the device comprising: a needle (20; 120; 220; 320) with at least one beacon (30; 130; 230; 330); a tracking pad (10; 110; 310) with a guiding opening (14; 114; 314) and a plurality of sensors (12A, 12B, 12C; 112; 212; 312) operable with the at least one beacon (30; 130; 230; 330) on the needle (20; 120; 220; 320) to track the disposition of the needle (20; 120; 220; 320) at least when a distal end (24; 124; 224; 324) of the needle (20; 120; 220; 320) is inserted into the guiding opening (14; 114; 314).
Platform for the space-saving design of an energy conversion system , in that containers are stacked as housings of components of the energy conversion system , one above the other, with the platform arranged between the containers, wherein the platform has a frame structure which has, on a first side, first alignment elements for placing the platform on a first container and, on a second side, opposite the first side, of the frame structure, second alignment elements for placing a second container on a placement area of the frame structure, wherein the first and second alignment elements are arranged in such a way that they result in an arrangement, which is laterally centered and vertically spaced apart by a height (H) of the platform , of the second container above the first container, characterised in that the frame structure forms a standing area, which circumferentially surrounds the placement area and is walkable by persons, as access to the second container .
A brewing system , including: a fermentation vessel ; and an additive dispensing device , including: a vessel body including a chamber, the chamber having a closed end and an open end , wherein the open end opens into the fermentation vessel ; a cap releasably secured to the vessel body to provide the closed end of the chamber; a pressure release means in the cap between the chamber and atmosphere; and a controllable valve positioned between the open end and the fermentation vessel , configured to selectively open and close a flow path between the chamber and the fermentation vessel . a fermentation vessel ; and an additive dispensing device , including: a vessel body including a chamber, the chamber having a closed end and an open end , wherein the open end opens into the fermentation vessel ; a cap releasably secured to the vessel body to provide the closed end of the chamber; a pressure release means in the cap between the chamber and atmosphere; and a controllable valve positioned between the open end and the fermentation vessel , configured to selectively open and close a flow path between the chamber and the fermentation vessel . a vessel body including a chamber, the chamber having a closed end and an open end , wherein the open end opens into the fermentation vessel ; a cap releasably secured to the vessel body to provide the closed end of the chamber; a pressure release means in the cap between the chamber and atmosphere; and a controllable valve positioned between the open end and the fermentation vessel , configured to selectively open and close a flow path between the chamber and the fermentation vessel .
Antenna equipment comprising: • an antenna comprising a feed point, • a board on which the antenna is disposed, wherein the board is a printed circuit board, • a first surface area of the board that is not covered by a metal layer, • a further surface area of the board in a corner of the board, wherein the further surface area is not covered by the metal layer and within the further surface area the antenna including the antenna feed point is disposed, • wherein a first edge (X) of the board is a longer edge of the board among two edges of the board that are close to the antenna , wherein a first current maximum point (A) at which a first current maximum is present is a point at an intersection on the first edge (X) between the first edge (X) and an edge of the further surface area when the antenna is operated at its operating wavelength λ, wherein a point that is on the first edge and whose distance to the first current maximum point (A) on the first edge is λ/4, is a first point, wherein the first current maximum is a current maximum that is on the first edge and that is closest to the feed point of the antenna, and the first surface area that is not covered by the metal layer comprises the first point, and a maximum distance from an edge (FE) of the first surface area to the first edge (X) of the board is λ/4. • an antenna comprising a feed point, • a board on which the antenna is disposed, wherein the board is a printed circuit board, • a first surface area of the board that is not covered by a metal layer, • a further surface area of the board in a corner of the board, wherein the further surface area is not covered by the metal layer and within the further surface area the antenna including the antenna feed point is disposed, • wherein a first edge (X) of the board is a longer edge of the board among two edges of the board that are close to the antenna , wherein a first current maximum point (A) at which a first current maximum is present is a point at an intersection on the first edge (X) between the first edge (X) and an edge of the further surface area when the antenna is operated at its operating wavelength λ, wherein a point that is on the first edge and whose distance to the first current maximum point (A) on the first edge is λ/4, is a first point, wherein the first current maximum is a current maximum that is on the first edge and that is closest to the feed point of the antenna, and the first surface area that is not covered by the metal layer comprises the first point, and a maximum distance from an edge (FE) of the first surface area to the first edge (X) of the board is λ/4.
An integrated hydrogen gas generator (E), comprising: a water tank configured for containing a water to be electrolyzed; an electrolytic module configured for electrolyzing the water and generating a gas comprising hydrogen; an integrated passageway device disposed above the water tank , the integrated passageway device comprising a lower cover integrally formed to avoid the additional piping; a condenser coupled to the integrated passageway device for condensing an impurity in the gas comprising hydrogen; a humidifying module coupled to integrated passageway device and configured to humidify the gas comprising hydrogen; and a nebulizer coupled to the integrated passageway device and configured to generate an atomized gas to be mixed with the gas comprising hydrogen; wherein the gas comprising hydrogen is transmitted among the condenser, the humidifying module and the nebulizer through the integrated passageway device . a water tank configured for containing a water to be electrolyzed; an electrolytic module configured for electrolyzing the water and generating a gas comprising hydrogen; an integrated passageway device disposed above the water tank , the integrated passageway device comprising a lower cover integrally formed to avoid the additional piping; a condenser coupled to the integrated passageway device for condensing an impurity in the gas comprising hydrogen; a humidifying module coupled to integrated passageway device and configured to humidify the gas comprising hydrogen; and a nebulizer coupled to the integrated passageway device and configured to generate an atomized gas to be mixed with the gas comprising hydrogen; wherein the gas comprising hydrogen is transmitted among the condenser, the humidifying module and the nebulizer through the integrated passageway device .
Marking device for marking information media , with a housing , with a marking unit , with a marking region made inside the housing , with a feed magazine for receiving a plurality of information media to be marked, with a deposit magazine for depositing a plurality of marked information media , and with a conveyer device , characterized in that a receiving device is provided for receiving at least one information medium , that the receiving device can be moved horizontally between a loading/unloading position outside the marking region and a marking position within the marking region , that a positioning device is provided, that an information medium can be taken by means of the conveyor device from the feed magazine into a first, lower level in the marking region , wherein the first level is arranged below the receiving device , that an information medium can be moved vertically by means of the positioning device between the first, lower level in the marking region and the marking position in a second, upper level in the marking region , and that by means of the conveyor device , an information medium can be taken from the first, lower level in the marking region to the deposit magazine .
Seal assembly comprising a seal which comprises an annular seal made of a seal material having a substantially U-shaped longitudinal section , wherein the annular seal in the axial direction is delimited on both sides by a first and a second radial leg , wherein the radial legs in the radial direction are connected to one another on the external circumference by an axial leg , wherein the first radial leg on its side facing axially away from the second radial leg has a first axial sealing edge and a second axial sealing edge , wherein the second axial sealing edge encloses the first axial sealing edge by way of a radial spacing on the external circumference; wherein the axial leg on the external circumference has a support face , and wherein the support face and the first radial leg delimit a groove encircling the annular seal on the external circumference, wherein the seal is disposed in an installation space , wherein the installation space is delimited by a first , a second and a third machine element , wherein the first machine element has a first sealing face which extends substantially in the radial direction and under an axial pre-load is in sealing contact with the first axial sealing edge , and wherein the first sealing face , as a function of the pressure to be sealed and/or the assembly-related axial compression of the seal during the intended use of the latter, is able to be in sealing contact with the second axial sealing edge under an axial pre-load, characterized in that the annular seal comprises an imaginary radial plane , wherein - in the production-related state of the annular seal , the first axial sealing edge by way of the radial plane delimits a first axial spacing which is larger than a second axial spacing delimited by the second axial sealing edge by way of the radial plane , and in that the first and the third machine element on their mutually facing sides delimit a joint , and in that the groove covers the joint in the axial direction .
A method for determining the history of a droplet, comprising: exposing a microfluidic droplet to a first condition; adding a first nucleic acid to the droplet, wherein the first nucleic acid encodes the step of exposing a microfluidic droplet to the first condition; exposing the microfluidic droplet to a second condition; adding a second nucleic acid to the droplet, wherein the second nucleic acid encodes the step of exposing the microfluidic droplet to the second condition; and amplifying the first nucleic acid and the second nucleic acid within the microfluidic droplet to produce an amplified nucleic acid; and sequencing the amplified nucleic acid to determine the history of the droplet. exposing a microfluidic droplet to a first condition; adding a first nucleic acid to the droplet, wherein the first nucleic acid encodes the step of exposing a microfluidic droplet to the first condition; exposing the microfluidic droplet to a second condition; adding a second nucleic acid to the droplet, wherein the second nucleic acid encodes the step of exposing the microfluidic droplet to the second condition; and amplifying the first nucleic acid and the second nucleic acid within the microfluidic droplet to produce an amplified nucleic acid; and sequencing the amplified nucleic acid to determine the history of the droplet.
A heat exchanger fin comprising a fin body having braided channels that are under vacuum and have a working fluid therein, characterized in that the fin body has a plurality of airflow through holes there through, whereby the braided channels are formed around the plurality of airflow through holes and by a staggered pitch of the plurality of airflow through holes to increase the creation of a non-equilibrium pressure condition within the braided channels , strengthening the self-sustained turbulent driving forces therein.
A catalyst for use in dehydrogenation processes comprising: an alumina carrier; chromium oxide, at a concentration from 10 wt% to 30 wt% chromium oxide based on the total catalyst weight; sodium oxide, as a promoter, at a concentration from 0.1 wt% to 2 wt% sodium oxide based on the total catalyst weight; and potassium oxide, as a promoter, at a concentration from 0.1 wt% to 5 wt% potassium oxide based on the total catalyst weight; in which the sodium oxide and the potassium oxide are the only alkali metal oxides.
An hGDF-15 inhibitor for use in a method for cancer immunotherapy, the method being a method of treating a solid cancer in combination with an immune checkpoint blocker in a human patient, wherein the hGDF-15 inhibitor is to be administered to the human patient, wherein the hGDF-15 inhibitor is a monoclonal antibody capable of binding to hGDF-15, or an hGDF-15-binding portion thereof, and wherein the immune checkpoint blocker is selected from one or more of the following group consisting of: i) an inhibitor of human PD-1, the inhibitor being a monoclonal antibody capable of binding to human PD-1, or a portion thereof binding to human PD-1; and ii) an inhibitor of human PD-L1, the inhibitor being a monoclonal antibody capable of binding to human PD-L1, or a portion thereof binding to human PD-L1. i) an inhibitor of human PD-1, the inhibitor being a monoclonal antibody capable of binding to human PD-1, or a portion thereof binding to human PD-1; and ii) an inhibitor of human PD-L1, the inhibitor being a monoclonal antibody capable of binding to human PD-L1, or a portion thereof binding to human PD-L1.