mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the preparation of insulin analogues lacking residues B1-B3, the method comprising: providing a folded single-chain or two-chain insulin-related precursor polypeptide containing Arg or Lys at position B3; digesting the folded single-chain or two-chain insulin-related precursor polypeptide with trypsin to yield a des- tripeptide[B1-B3]- des -octapeptide-[B23-B30]-insulin intermediate product; and attaching a B23-B30 peptide segment of insulin or an analogue thereof to the des -tripeptide[B1-B3]- des -octapeptide-[B23-B30]-insulin intermediate product by typsin-catalysed semi-synthesis to yield a des -tripeptide-[B1-B3]-insulin analogue. providing a folded single-chain or two-chain insulin-related precursor polypeptide containing Arg or Lys at position B3; digesting the folded single-chain or two-chain insulin-related precursor polypeptide with trypsin to yield a des- tripeptide[B1-B3]- des -octapeptide-[B23-B30]-insulin intermediate product; and attaching a B23-B30 peptide segment of insulin or an analogue thereof to the des -tripeptide[B1-B3]- des -octapeptide-[B23-B30]-insulin intermediate product by typsin-catalysed semi-synthesis to yield a des -tripeptide-[B1-B3]-insulin analogue.
Method for operating a driver information system in an ego vehicle ; in which an operating state of a lighting device of the ego vehicle is captured; a driver information display is generated and output; wherein the driver information display comprises a graphic ego object that represents the ego vehicle ; wherein the ego object comprises a rear representation of the ego vehicle ; wherein the ego object is formed depending on the captured operating state, characterized in that further graphical objects representing physical objects in the environment of the ego vehicle are displayed, characterized in that sensors of the ego vehicle capture whether and in what way the physical objects are actually illuminated and/or the influence of the captured operating state of the lighting device on the physical objects is determined using a physical model, and the further graphical objects are formed depending on the captured operating state of the lighting device , with the result that an influence of the lighting system on the appearance of the environment is reproduced as realistically as possible. an operating state of a lighting device of the ego vehicle is captured; a driver information display is generated and output; wherein the driver information display comprises a graphic ego object that represents the ego vehicle ; wherein the ego object comprises a rear representation of the ego vehicle ; wherein the ego object is formed depending on the captured operating state, characterized in that further graphical objects representing physical objects in the environment of the ego vehicle are displayed, characterized in that sensors of the ego vehicle capture whether and in what way the physical objects are actually illuminated and/or the influence of the captured operating state of the lighting device on the physical objects is determined using a physical model, and the further graphical objects are formed depending on the captured operating state of the lighting device , with the result that an influence of the lighting system on the appearance of the environment is reproduced as realistically as possible.
A method for performing security sensing, comprising: using an optical data transceiver to illuminating a secured space with an optical data signal which has been modulated to contain a first data sequence; concurrently receiving at the optical data transceiver a plurality of retroreflected optical data signals which have been respectively retroreflected from a plurality of reflector elements disposed in the secured space in response to the optical data signal; authenticating one or more of the plurality of retroreflected optical data signals by determining whether the first data sequence is present therein; and selectively generating a security event notification to an enterprise security management controller if a variation occurs in regard to at least one optical beam condition associated with one or more of the plurality of retroreflected optical data signals, the variation selected from the group consisting of a disruption of the optical beam and a displacement of the optical beam; wherein the plurality of retroreflected optical data signals are received at the optical transceiver using a video camera; wherein the displacement of the optical beam is detected by comparing a first video image frame captured at a first time to a second video image frame captured at a second time subsequent to the first time. using an optical data transceiver to illuminating a secured space with an optical data signal which has been modulated to contain a first data sequence; concurrently receiving at the optical data transceiver a plurality of retroreflected optical data signals which have been respectively retroreflected from a plurality of reflector elements disposed in the secured space in response to the optical data signal; authenticating one or more of the plurality of retroreflected optical data signals by determining whether the first data sequence is present therein; and selectively generating a security event notification to an enterprise security management controller if a variation occurs in regard to at least one optical beam condition associated with one or more of the plurality of retroreflected optical data signals, the variation selected from the group consisting of a disruption of the optical beam and a displacement of the optical beam; wherein the plurality of retroreflected optical data signals are received at the optical transceiver using a video camera; wherein the displacement of the optical beam is detected by comparing a first video image frame captured at a first time to a second video image frame captured at a second time subsequent to the first time.
A method performed by a network device for transmitting remaining minimum system information, RMSI, in a wireless network, wherein a number of synchronization signal SS/PBCH blocks constitute a SS burst set which is transmitted periodically with a first periodicity, the method comprises: broadcast a subset of minimum system information on a phycisal broadcast channel PBCH, wherein the RMSI is a remaining subset of the minimum system information and wherein the RMSI is carried in a physical downlink shared channel, PDSCH; determining whether or not a SS/PBCH block in the SS burst set configures the RMSI; determining whether the first periodicity is greater than a predefined value; and in response to that the SS/PBCH block configures the RMSI and the first periodicity is greater than the predefined value, transmitting one or more repeated RMSI within the first periodicity. broadcast a subset of minimum system information on a phycisal broadcast channel PBCH, wherein the RMSI is a remaining subset of the minimum system information and wherein the RMSI is carried in a physical downlink shared channel, PDSCH; determining whether or not a SS/PBCH block in the SS burst set configures the RMSI; determining whether the first periodicity is greater than a predefined value; and in response to that the SS/PBCH block configures the RMSI and the first periodicity is greater than the predefined value, transmitting one or more repeated RMSI within the first periodicity.
An extender port for making an optical connection with an external fiber optic connector , comprising: a shell ; a first connection port disposed on the extender port with the at least one connection port comprising an optical connector opening extending from an outer surface of the extender port into a cavity of the extender port and defining a connection port passageway ; at least one securing feature associated with the connection port passageway , wherein the at least one securing feature is capable of translating within the shell for securing or releasing the external fiber optic connector , and at least one securing feature resilient member for biasing a portion of the at least one securing feature to a retain position (RP), characterized in that the extender port further comprises at least one securing feature passageway, wherein a portion of the at least one securing feature is disposed within a portion of the at least one securing feature passageway. a shell ; a first connection port disposed on the extender port with the at least one connection port comprising an optical connector opening extending from an outer surface of the extender port into a cavity of the extender port and defining a connection port passageway ; at least one securing feature associated with the connection port passageway , wherein the at least one securing feature is capable of translating within the shell for securing or releasing the external fiber optic connector , and at least one securing feature resilient member for biasing a portion of the at least one securing feature to a retain position (RP), characterized in that the extender port further comprises at least one securing feature passageway, wherein a portion of the at least one securing feature is disposed within a portion of the at least one securing feature passageway.
A cooking oven comprising: a housing having an oven cavity and an oven door for access to the oven cavity; an upper air channel ; a lower air channel ; a removable plenum pair defining the bottom of an upper cooking chamber and the top of a lower cooking chamber in the oven cavity, the plenum pair comprising: an upper air plenum removably connected to the upper air channel, the upper air plenum comprising an air intake edge configured to receive air flow from the upper air channel and a plurality of air vents configured to direct the air flow upwards into the upper cooking chamber; and a lower air plenum removably connected to the lower air channel, the lower air plenum comprising an air intake edge configured to receive air flow from the lower air channel and a plurality of air vents configured to direct the air flow downwards into the lower cooking chamber; and an air blower (41-44) configured to send heated air to the upper air channel and the lower air channel characterised in that the air blower comprises: an upper air blower configured to send heated air toward the upper cooking chamber; and a lower air blower configured to send heated air toward the lower cooking chamber. a housing having an oven cavity and an oven door for access to the oven cavity; an upper air channel ; a lower air channel ; a removable plenum pair defining the bottom of an upper cooking chamber and the top of a lower cooking chamber in the oven cavity, the plenum pair comprising: an upper air plenum removably connected to the upper air channel, the upper air plenum comprising an air intake edge configured to receive air flow from the upper air channel and a plurality of air vents configured to direct the air flow upwards into the upper cooking chamber; and a lower air plenum removably connected to the lower air channel, the lower air plenum comprising an air intake edge configured to receive air flow from the lower air channel and a plurality of air vents configured to direct the air flow downwards into the lower cooking chamber; and an upper air plenum removably connected to the upper air channel, the upper air plenum comprising an air intake edge configured to receive air flow from the upper air channel and a plurality of air vents configured to direct the air flow upwards into the upper cooking chamber; and a lower air plenum removably connected to the lower air channel, the lower air plenum comprising an air intake edge configured to receive air flow from the lower air channel and a plurality of air vents configured to direct the air flow downwards into the lower cooking chamber; and an air blower (41-44) configured to send heated air to the upper air channel and the lower air channel characterised in that the air blower comprises: an upper air blower configured to send heated air toward the upper cooking chamber; and a lower air blower configured to send heated air toward the lower cooking chamber. an upper air blower configured to send heated air toward the upper cooking chamber; and a lower air blower configured to send heated air toward the lower cooking chamber.
A pump configured to move fluid from one location to another location, the pump comprising: a pump housing of the pump; wherein the pump housing is composed of a wall structure; wherein the wall structure includes a fluid-side interior surface , an exterior surface, and a thickness located between the fluid-side interior and exterior surfaces; wherein the fluid-side interior surface of the wall structure is in fluid contact with the fluid that is moved through the pump; wherein the pump housing is composed of a resin having reinforcing fibers dispersed in the resin throughout the thickness of the wall structure except at the fluid-side interior surface of the pump housing; and wherein the fluid-side surface of the pump housing is composed of resin and is substantially free of any of the reinforcing fibers that are otherwise dispersed throughout the thickness of the pump housing, characterized in that the thickness of the wall structure is composed of a single layer of a resin comprising a first laminar layer adjacent the fluid-side surface and a second laminar layer adjacent the exterior surface, wherein the second laminar layer comprises the resin and a plurality of reinforcing fibers, and wherein the first laminar layer is a resin-only laminar layer of the resin. a pump housing of the pump; wherein the pump housing is composed of a wall structure; wherein the wall structure includes a fluid-side interior surface , an exterior surface, and a thickness located between the fluid-side interior and exterior surfaces; wherein the fluid-side interior surface of the wall structure is in fluid contact with the fluid that is moved through the pump; wherein the pump housing is composed of a resin having reinforcing fibers dispersed in the resin throughout the thickness of the wall structure except at the fluid-side interior surface of the pump housing; and wherein the fluid-side surface of the pump housing is composed of resin and is substantially free of any of the reinforcing fibers that are otherwise dispersed throughout the thickness of the pump housing, characterized in that the thickness of the wall structure is composed of a single layer of a resin comprising a first laminar layer adjacent the fluid-side surface and a second laminar layer adjacent the exterior surface, wherein the second laminar layer comprises the resin and a plurality of reinforcing fibers, and wherein the first laminar layer is a resin-only laminar layer of the resin.
Powertrain, comprising • an inverter unit comprising an inverter configured for converting direct current to alternating current and an inverter housing defining an inverter housing interior volume accommodating the inverter , and • an electric motor comprising a rotor and a stator , the rotor defining a motor axis and the electric motor being configured for providing torque, and an electric motor housing , and • a reducing gear unit comprising a reducing gear and a reducing gear cover surrounding the reducing gear , the reducing gear defining an output reducing gear axis , wherein the output reducing gear axis is parallel to the motor axis , and wherein the reducing gear cover and the inverter housing are arranged at opposite ends of the electric motor with respect to the motor axis , characterized in that the inverter housing comprises a cut-out , wherein the cut-out defines a cut-out region fully contained within the convex hull of the inverter housing , wherein the cut-out region is disjoint from the inverter housing interior volume, and wherein the output reducing gear axis passes through the cut-out region without passing through the inverter housing interior volume. • an inverter unit comprising an inverter configured for converting direct current to alternating current and an inverter housing defining an inverter housing interior volume accommodating the inverter , and • an electric motor comprising a rotor and a stator , the rotor defining a motor axis and the electric motor being configured for providing torque, and an electric motor housing , and • a reducing gear unit comprising a reducing gear and a reducing gear cover surrounding the reducing gear , the reducing gear defining an output reducing gear axis , wherein the output reducing gear axis is parallel to the motor axis , and wherein the reducing gear cover and the inverter housing are arranged at opposite ends of the electric motor with respect to the motor axis , characterized in that the inverter housing comprises a cut-out , wherein the cut-out defines a cut-out region fully contained within the convex hull of the inverter housing , wherein the cut-out region is disjoint from the inverter housing interior volume, and wherein the output reducing gear axis passes through the cut-out region without passing through the inverter housing interior volume.
A method for in-situ production of a gap in the surface layer(s) of an elongated nanostructure, the method comprising the steps of - growing at least two elongated nanostructures from a surface of a substrate such that at least some of the at least two nanostructures grow in non-parallel directions, at least some of the at least two nanostructures being shadow nanostructures and at least some of the at least two nanostructures being device nanostructures, the substrate being located in a vacuum chamber having at least one deposition source, and - depositing at least a first facet layer on at least a part of each of the at least two nanostructures by means of said deposition source, wherein the deposition source and the growth of the nanostructures are arranged such that, during deposition of said at least first facet layer, at least one shadow nanostructure covers and forms a respective shadow mask over a portion of a respective at least one device nanostructure, thereby preventing deposition of the at least first facet layer on the portion of the respective at least one device nanostructure, and thereby collectively forming a respective gap in the first facet layer deposited on each device nanostructure. - growing at least two elongated nanostructures from a surface of a substrate such that at least some of the at least two nanostructures grow in non-parallel directions, at least some of the at least two nanostructures being shadow nanostructures and at least some of the at least two nanostructures being device nanostructures, the substrate being located in a vacuum chamber having at least one deposition source, and - depositing at least a first facet layer on at least a part of each of the at least two nanostructures by means of said deposition source,
A method for adding a graphical object to image data of one or more image frames comprising a first image frame (104; 404a), the graphical object being added during encoding of the one or more image frames using an encoder , wherein the first image frame is intra frame encoded by the encoder, wherein the one or more image frames comprises a second frame being a subsequent to the first image frame, the second image frame being inter frame encoded and referencing the first image frame, the method comprising the steps of: receiving (S502), by an image data generator , data pertaining to the graphical object to be added to the image data of the one or more image frames; converting (S506), by the image data generator, the graphical object into a first set of discrete frequency transform, DFT, blocks , based on a defined size of a coding unit, CU, of the encoder, each DFT block being associated with a position in the one or more image frames to which the DFT block corresponds; performing (S508), by the encoder, DFT on a plurality of block of pixels of the first image frame, to output a second set of DFT blocks ; instructing (S510), by the image data generator, the encoder to replace a subset of DFT blocks of the second set of DFT blocks with the first set of DFT blocks according to the positions associated with the first set of DFT blocks; and instructing, by the image data generator, the encoder to inter encode blocks of pixels in the second image frame corresponding to the positions associated with the first set of DFT blocks, and to set motion vectors of said blocks of pixels in the second image frame to zero. receiving (S502), by an image data generator , data pertaining to the graphical object to be added to the image data of the one or more image frames; converting (S506), by the image data generator, the graphical object into a first set of discrete frequency transform, DFT, blocks , based on a defined size of a coding unit, CU, of the encoder, each DFT block being associated with a position in the one or more image frames to which the DFT block corresponds; performing (S508), by the encoder, DFT on a plurality of block of pixels of the first image frame, to output a second set of DFT blocks ; instructing (S510), by the image data generator, the encoder to replace a subset of DFT blocks of the second set of DFT blocks with the first set of DFT blocks according to the positions associated with the first set of DFT blocks; and instructing, by the image data generator, the encoder to inter encode blocks of pixels in the second image frame corresponding to the positions associated with the first set of DFT blocks, and to set motion vectors of said blocks of pixels in the second image frame to zero.
A light-emitting nanoparticle comprising a matrix material, and a light-emitting substance included in the matrix material, wherein the matrix material comprises at least one cationic element selected from the group consisting of Ti, Si, Ca, Al and Zr and surfactant molecule, and at least one anionic element selected from the group consisting of O and P, preferably comprising at least one selected from the group consisting of TiO 2 , Ca 10 (PO 4 ) 6 (OH) 2 , Al 2 O 3 , and ZrO 2 .