mhurhangee/patent-ind-claim-en huggingface dataset:
An auto-provision method for Fiber-to-the-Home (FTTH) accesses based on Software Defined Networking (SDN), the auto-provision method comprising: detecting, by an optical line terminal, OLT , installed within an Internet service provider infrastructure , when an optical network unit, ONU , is connected to an optical termination point at a customer premises equipment, CPE, of a user ; when the ONU is detected as connecting to the optical termination point, notifying, by said OLT , a SDN controller installed at said Internet service provider infrastructure ; providing, by the SDN controller , connectivity to said user to a dedicated and limited network which provides access to a single self-provisioning web site by at least connecting said CPE to a service provider site; receiving, by the self-provisioning web site , credential information identifying the user on the self-provisioning web site ; receiving, by the self-provisioning web site , configuration information specifying which FTTH services the user wants to subscribe to; and disconnecting, by the SDN controller , the user from the self-provisioning web site and reconnecting the user to a different network via a virtual customer equipment, vCPE , connected to said Internet service provider infrastructure , wherein the Internet service provider infrastructure is configured to provide access to the Internet and to the subscribed FTTH services to the user . detecting, by an optical line terminal, OLT , installed within an Internet service provider infrastructure , when an optical network unit, ONU , is connected to an optical termination point at a customer premises equipment, CPE, of a user ; when the ONU is detected as connecting to the optical termination point, notifying, by said OLT , a SDN controller installed at said Internet service provider infrastructure ; providing, by the SDN controller , connectivity to said user to a dedicated and limited network which provides access to a single self-provisioning web site by at least connecting said CPE to a service provider site; receiving, by the self-provisioning web site , credential information identifying the user on the self-provisioning web site ; receiving, by the self-provisioning web site , configuration information specifying which FTTH services the user wants to subscribe to; and disconnecting, by the SDN controller , the user from the self-provisioning web site and reconnecting the user to a different network via a virtual customer equipment, vCPE , connected to said Internet service provider infrastructure , wherein the Internet service provider infrastructure is configured to provide access to the Internet and to the subscribed FTTH services to the user .
A method for preparing a gel product instant-dissolving block, comprising: adding water into a raw material gel to dissolve the raw material gel and carrying out concentrating to obtain a gel solution; carrying out a vacuum belt drying treatment on the gel solution to obtain a cellular gel body; grinding the gel body and carrying out screening to obtain gel powder with a particle size being equal to or larger than 180 μm (80 meshes); and moistening the gel powder with 85 to 95% alcohol, and carrying out compression at a compression ratio of 30 to 60%, thereby obtaining the gel product instant-dissolving block carrying out a second moistening on a surface of the compressed block with alcohol after the compression in step , and then carrying out drying to obtain a gel product instant-dissolving block, wherein the raw material gel is donkey hide gelatin; an amount of alcohol to be used in step is 1% to 5% of the weight of the compressed block, and in step , the drying is to dry the moistened compressed block until water content of the compressed block is ≤ 10%. adding water into a raw material gel to dissolve the raw material gel and carrying out concentrating to obtain a gel solution; carrying out a vacuum belt drying treatment on the gel solution to obtain a cellular gel body; grinding the gel body and carrying out screening to obtain gel powder with a particle size being equal to or larger than 180 μm (80 meshes); and moistening the gel powder with 85 to 95% alcohol, and carrying out compression at a compression ratio of 30 to 60%, thereby obtaining the gel product instant-dissolving block carrying out a second moistening on a surface of the compressed block with alcohol after the compression in step , and then carrying out drying to obtain a gel product instant-dissolving block, wherein the raw material gel is donkey hide gelatin; an amount of alcohol to be used in step is 1% to 5% of the weight of the compressed block, and in step , the drying is to dry the moistened compressed block until water content of the compressed block is ≤ 10%. the raw material gel is donkey hide gelatin; an amount of alcohol to be used in step is 1% to 5% of the weight of the compressed block, and in step , the drying is to dry the moistened compressed block until water content of the compressed block is ≤ 10%.
A turbine airfoil comprising: an airfoil body , the airfoil body extending from a leading edge to a trailing edge , the airfoil body extending from a pressure side to a suction side , the airfoil body extending from a root portion to a tip portion ; at least one internal cavity disposed within the airfoil body ; at least one pedestal integrally formed with the airfoil body via additive manufacturing, the at least one pedestal protruding from an outer periphery of the airfoil body , the at least one pedestal structurally coupled to the airfoil body , wherein the at least one pedestal is oriented relative to an additive manufacturing build direction such that at least one pedestal comprises a support structure to the airfoil body ; at least one film cooling hole , the at least one film cooling hole disposed entirely within the airfoil body and entirely within the at least one pedestal , wherein the at least one film cooling hole is in fluid communication with the at least one internal cavity . an airfoil body , the airfoil body extending from a leading edge to a trailing edge , the airfoil body extending from a pressure side to a suction side , the airfoil body extending from a root portion to a tip portion ; at least one internal cavity disposed within the airfoil body ; at least one pedestal integrally formed with the airfoil body via additive manufacturing, the at least one pedestal protruding from an outer periphery of the airfoil body , the at least one pedestal structurally coupled to the airfoil body , wherein the at least one pedestal is oriented relative to an additive manufacturing build direction such that at least one pedestal comprises a support structure to the airfoil body ; at least one film cooling hole , the at least one film cooling hole disposed entirely within the airfoil body and entirely within the at least one pedestal , wherein the at least one film cooling hole is in fluid communication with the at least one internal cavity .
A method for wireless communication at a user equipment, UE, comprising: receiving a first synchronization signal for synchronizing with a cell, the first synchronization signal transmitted by a base station serving the cell according to a first periodicity; receiving system information comprising an indication of a second periodicity of a second synchronization signal; receiving , subsequent to the synchronizing, the second synchronization signal for resynchronizing with the cell, the second synchronization signal transmitted by the base station according to the second periodicity, wherein the second synchronization signal comprises a plurality of repetitions of a first sequence that is based at least in part on a cell identifier of the cell; and communicating over the cell with the base station based at least in part on the resynchronizing. receiving a first synchronization signal for synchronizing with a cell, the first synchronization signal transmitted by a base station serving the cell according to a first periodicity; receiving system information comprising an indication of a second periodicity of a second synchronization signal; receiving , subsequent to the synchronizing, the second synchronization signal for resynchronizing with the cell, the second synchronization signal transmitted by the base station according to the second periodicity, wherein the second synchronization signal comprises a plurality of repetitions of a first sequence that is based at least in part on a cell identifier of the cell; and communicating over the cell with the base station based at least in part on the resynchronizing.
A vertical bounce detection system of an elevator system , the vertical bounce detection system comprising: at least one sensor operable to detect vertical movement of an elevator car in a hoistway of the elevator system ; a processing system communicatively coupled to the at least one sensor ; and a memory system having a plurality of instructions stored thereon that, when executed by the processing system , cause the vertical bounce detection system to: determine a bounce energy level of the elevator car based on sensor data from the at least one sensor ; compare the bounce energy level to a bounce condition threshold ; and command a speed reduction of the elevator car to continue movement of the elevator car at a reduced speed based on determining that the bounce energy level exceeds the bounce condition threshold ; characterized in that the at least one sensor , the processing system , and the memory system are components of a safety actuator operable to apply a braking force to an element of the elevator system . at least one sensor operable to detect vertical movement of an elevator car in a hoistway of the elevator system ; a processing system communicatively coupled to the at least one sensor ; and a memory system having a plurality of instructions stored thereon that, when executed by the processing system , cause the vertical bounce detection system to: determine a bounce energy level of the elevator car based on sensor data from the at least one sensor ; compare the bounce energy level to a bounce condition threshold ; and command a speed reduction of the elevator car to continue movement of the elevator car at a reduced speed based on determining that the bounce energy level exceeds the bounce condition threshold ; characterized in that determine a bounce energy level of the elevator car based on sensor data from the at least one sensor ; compare the bounce energy level to a bounce condition threshold ; and command a speed reduction of the elevator car to continue movement of the elevator car at a reduced speed based on determining that the bounce energy level exceeds the bounce condition threshold ; characterized in that the at least one sensor , the processing system , and the memory system are components of a safety actuator operable to apply a braking force to an element of the elevator system .
Photovoltaic component , comprising, an outer pane ; and an inner pane ; characterized in that an energy-generating layer comprising a plurality of concentrator photovoltaic modules is arranged between the outer pane and the inner pane , the concentrator photovoltaic modules comprising a condenser optic as a primary optic; a partially transparent deflection optic as a secondary optic; and a photovoltaic chip integrated into a surface mountable housing , the surface mountable housing having a transparent cover and an integrated reflector as a tertiary optic; wherein the condenser optic is arranged between the outer pane and the photovoltaic chip ; the partially transparent deflection optic is arranged between the photovoltaic chip and the inner pane ; and the transparent cover and an inlet opening of the integrated reflector face the inner pane , wherein the condenser optic is configured to focus sunlight entering through the outer pane onto one or more deflection regions of the deflection optic ; the deflection optic is configured to deflect the sunlight focused by the condenser optic onto the one or more deflection regions into the integrated reflector ; and the reflector is configured to concentrate the sunlight deflected by the deflector onto the photovoltaic chip . an outer pane ; and an inner pane ; characterized in that an energy-generating layer comprising a plurality of concentrator photovoltaic modules is arranged between the outer pane and the inner pane , the concentrator photovoltaic modules comprising a condenser optic as a primary optic; a partially transparent deflection optic as a secondary optic; and a photovoltaic chip integrated into a surface mountable housing , the surface mountable housing having a transparent cover and an integrated reflector as a tertiary optic; wherein the condenser optic is arranged between the outer pane and the photovoltaic chip ; the partially transparent deflection optic is arranged between the photovoltaic chip and the inner pane ; and the transparent cover and an inlet opening of the integrated reflector face the inner pane , wherein the condenser optic is configured to focus sunlight entering through the outer pane onto one or more deflection regions of the deflection optic ; the deflection optic is configured to deflect the sunlight focused by the condenser optic onto the one or more deflection regions into the integrated reflector ; and the reflector is configured to concentrate the sunlight deflected by the deflector onto the photovoltaic chip .
A growth hormone releasing hormone (GHRH) analog comprising a peptide having the sequence set forth in formula (I) (SEQ ID NO: 1): wherein: X1 is Tyr, His, N-methyl Tyr or Desamino Tyr; X2 is Ala, D-Ala, Ser or alpha aminoisobutyric acid (Aib); X8 is Asn, Asp, Ala, Gln, Ser or Aib; X9 is Cys conjugated to a PEG polymer of less than or equal to 5 kDa; X11 is Arg or L-Homoarginine (Har); X12 is Lys or Orn; X15 is Gly or Ala; X18 is Ser or Ala; X20 is Arg or Har; X21 is Lys or Orn; X22 is Leu, Val or Ala; X24 is Gln; X25 is Asp or Ala; X26 is Ile or Ala; X27 is Met, Leu or Norleucine; X28 is Ser or Ala; X29 is Lys, Arg, Orn, Har or Agmatine; and X30 is an NH 2 group or Asn-NH 2 ; or a pharmaceutically acceptable salt thereof, wherein optionally one of X22, X24 or X28 is Cys conjugated to a PEG polymer of less than or equal to 5 kDa. X1 is Tyr, His, N-methyl Tyr or Desamino Tyr; X2 is Ala, D-Ala, Ser or alpha aminoisobutyric acid (Aib); X8 is Asn, Asp, Ala, Gln, Ser or Aib; X9 is Cys conjugated to a PEG polymer of less than or equal to 5 kDa; X11 is Arg or L-Homoarginine (Har); X12 is Lys or Orn; X15 is Gly or Ala; X18 is Ser or Ala; X20 is Arg or Har; X21 is Lys or Orn; X22 is Leu, Val or Ala; X24 is Gln; X25 is Asp or Ala; X26 is Ile or Ala; X27 is Met, Leu or Norleucine; X28 is Ser or Ala; X29 is Lys, Arg, Orn, Har or Agmatine; and X30 is an NH 2 group or Asn-NH 2 ;
Clasp for a wristband or bracelet including at least first and second blades (2; 3), the first blade being articulated to the second blade by a first end, between a closed position, called the wearing position, in which the second blade is folded onto the first blade , and an open position, in which the second blade is released from the first blade , the first blade being articulated at a second end to a member for attaching a first wristband portion, a second wristband portion being at least indirectly connected to the second blade the clasp including first means for locking the first blade in a closed position on the second blade, the clasp including means for adjusting the position of the second blade with respect to the first blade in an open position, the adjustment means including a groove machined in the second blade , an arbor integral with the first blade and passing through the groove , the groove having at least two recesses to define a short position and a long position, characterized in that the arbor receives a pusher for releasing and/or locking the arbor in order to move the second blade from one recess to another.
A pressing machine for plastically deforming a tubular workpiece, in particular a fitting, wherein the pressing machine comprises: a. a motor ; b. pressing jaws which are driven by the motor and can apply a force to the workpiece during operation; c. a power transmission unit coupled to the motor and the pressing jaws for transmitting power from the motor to the pressing jaws; d. at least one sensor unit for measuring at least one pressing parameter (P); and e. a controller , which receives a currently measured value of the press parameter (P) from the sensor unit and determines therewith a slope of a press parameter curve (K) of the press parameter (P); wherein f. the controller terminates a pressing operation before reaching a maximum possible pressing force (Pmax) when the slope of the press parameter curve (K) of the pressing parameter (P) fulfills a switch-off criterion, wherein the controller terminates the pressing process only when in addition to the switch-off criterion a predetermined minimum value (Pmin) for a pressing parameter (P) has been exceeded and/or if the duration of the pressing process a minimum time (Tmin) has been exceeded. a. a motor ; b. pressing jaws which are driven by the motor and can apply a force to the workpiece during operation; c. a power transmission unit coupled to the motor and the pressing jaws for transmitting power from the motor to the pressing jaws; d. at least one sensor unit for measuring at least one pressing parameter (P); and e. a controller , which receives a currently measured value of the press parameter (P) from the sensor unit and determines therewith a slope of a press parameter curve (K) of the press parameter (P); wherein f. the controller terminates a pressing operation before reaching a maximum possible pressing force (Pmax) when the slope of the press parameter curve (K) of the pressing parameter (P) fulfills a switch-off criterion, wherein the controller terminates the pressing process only when in addition to the switch-off criterion a predetermined minimum value (Pmin) for a pressing parameter (P) has been exceeded and/or if the duration of the pressing process a minimum time (Tmin) has been exceeded.
An apparatus, comprising: an interface, which is configured to receive a first sequence of first positions of a medical device that moves in a body of a patient ; and a processor , which is configured to visualize the first positions of the medical device to a user, by automatically moving a dummy device , external to the body, in a second sequence of second positions that mimics the first sequence; wherein the processor is configured to move the dummy device in a physical three-dimensional model that models at least part of the body of the patient, wherein the physical 3D model is external to the body. an interface, which is configured to receive a first sequence of first positions of a medical device that moves in a body of a patient ; and a processor , which is configured to visualize the first positions of the medical device to a user, by automatically moving a dummy device , external to the body, in a second sequence of second positions that mimics the first sequence; wherein the processor is configured to move the dummy device in a physical three-dimensional model that models at least part of the body of the patient, wherein the physical 3D model is external to the body.
An apparatus for heating preforms made of plastic by means a transport device transporting the plastic preforms along a predetermined transport path (P) comprising at least one heating device disposed along the transport path of the plastic preforms for heating the plastic preforms during transport, characterized in that the apparatus includes a temperature detecting device arranged for detecting a temperature of the plastic preforms in a spatially resolved manner, wherein the temperature detecting device is arranged and designed for detecting the temperature of the plastic preform along the substantially entire circumferential surface and/or length thereof, wherein the temperature detecting device is arranged and designed for detecting local deviations in the heating of the plastic preform and marking said plastic preform as defective.
A probe holder for positioning at least one probe such that the probe engages at least partially in a system for biotechnological applications having: - a holder base for positioning the probe holder on the system for biotechnological applications and - at least one probe positioning means , that is configured to position the at least one probe such that the probe extends in a probe extension direction (S; S1, S2, S3, S4); wherein the probe positioning means is arranged on the holder base such that the position of the probe in an operating position in the probe extension direction (S; S1, S2, S3, S4) is variably adjustable. - a holder base for positioning the probe holder on the system for biotechnological applications and - at least one probe positioning means , that is configured to position the at least one probe such that the probe extends in a probe extension direction (S; S1, S2, S3, S4);
Device for use as an applicator for a mass onto foods, the device having at least one pressurized gas line which is connected to a flow channel , and the device having a transport equipment which is set up to transport the foods along in front of an outlet opening of the flow channel , wherein the inlet opening at the inlet end of the flow channel is spanned open by a convex surface which extends rotationally symmetrically about the longitudinal central axis of the flow channel and which has a curvature projecting towards the longitudinal central axis of the flow channel , the gradient of which curvature increases in the direction towards the longitudinal central axis of the flow channel , wherein adjoining and opposite to the inlet opening the flow channel has its smallest cross-section and, from this smallest cross-section, the flow channel widens in the direction towards the outlet opening , wherein the inlet opening is limited by an annular feed opening for pressurized gas, which feed opening is connected to the pressurized gas line , and wherein a feed line opens into an area in which the flow channel generates negative pressure, wherein this area extends from in front of the inlet opening to within the flow channel , and the opposite open end of the feed line is arranged in a container for the mass, characterized in that a guide element at a radial distance surrounds the flow channel at its outlet opening , wherein the guide element extends coaxially to the longitudinal central axis of the flow channel , and wherein the device has an equipment for conveying a further powdery or liquid mass into the radial distance between the guide element and the flow channel , and wherein the guide element is connected to an equipment for pressurizing with pressurized gas, which equipment is set up to generate a gas flow between the guide element and the flow channel in the direction from the inlet opening to the outlet opening .