mhurhangee/patent-ind-claim-en huggingface dataset:
A service load processing 2. method, comprising obtaining a current time and a load amount reported by an access machine at the current time, wherein the access machine is an access device, the access machine distributes service data to a user terminal after the user terminal accesses to the access machine ; determining a first time difference, wherein the first time difference is a time difference between initiation of a scheduling request from the user terminal and access to the access machine by the user terminal, determining a first time point by subtracting the first time difference from the current time, and obtaining a delayed cognitive load amount that is a predicted load amount allocated to the access machine in a period between the first time point and the current time ; taking a sum of the load amount reported at the current time and the delayed cognitive load amount as an actual load amount reported by the access machine at the current time ; and determining whether the access machine is running at an overload condition by comparing the actual load amount reported by the access machine at the current time with a maximum load amount threshold for the access machine . obtaining a current time and a load amount reported by an access machine at the current time, wherein the access machine is an access device, the access machine distributes service data to a user terminal after the user terminal accesses to the access machine ; determining a first time difference, wherein the first time difference is a time difference between initiation of a scheduling request from the user terminal and access to the access machine by the user terminal, determining a first time point by subtracting the first time difference from the current time, and obtaining a delayed cognitive load amount that is a predicted load amount allocated to the access machine in a period between the first time point and the current time ; taking a sum of the load amount reported at the current time and the delayed cognitive load amount as an actual load amount reported by the access machine at the current time ; and determining whether the access machine is running at an overload condition by comparing the actual load amount reported by the access machine at the current time with a maximum load amount threshold for the access machine .
Plug-connector housing having receptacles for fastening of at least two contact carriers, wherein the plug-connector housing has a substantially rectangular cross section, with two opposite narrow sides and two opposite long sides, wherein the receptacles are formed integrally on the internal side within the plug-connector housing , and wherein one first receptacle is arranged in each of the corner regions, and wherein at least one second receptacle is arranged on each of the long sides, characterized in that one first receptacle is arranged in each of the corner regions, and in that two second receptacle are arranged on each of the long sides, and in that the second receptacles are mounted so as to be displaceable along the long sides. wherein one first receptacle is arranged in each of the corner regions, and wherein at least one second receptacle is arranged on each of the long sides, characterized in that one first receptacle is arranged in each of the corner regions, and in that two second receptacle are arranged on each of the long sides, and in that the second receptacles are mounted so as to be displaceable along the long sides.
A transport roller configured for transporting a substrate in horizontal transport system , wherein the transport roller essentially has the form of a solid body roller characterized in that the transport roller further contains a modified surface providing non-uniform contacting of the substrate , wherein the modified surface contains contact areas (5, 5', 5", 5"') for contacting the substrate and recesses (6, 6', 6", 6'") between the contact areas (5, 5', 5", 5"') not contacting the substrate, wherein the modified surface is adapted to provide a liquid or gas exchange on both sides of the transport roller while being transported using the transport roller ; wherein the modified surface consists of an essentially homogenous material like a polymer or a metal, wherein said homogenous material is not made from a fibrous material or a foam.
A computer-implemented method of estimating a location of an instrument , comprising: receiving location data from at least one of a set of location sensors and a set of robot command inputs, the location data being indicative of a location of an instrument configured to be driven through a luminal network of a patient; determining a first estimate of the location of the instrument at a first time based on the location data; determining a second estimate of the location of the instrument at the first time based on a path stored on at least one computer-readable memory, at least one computer-readable memory having stored thereon a model of the luminal network, a position of a target with respect to the model , and the path , the path defined along at least a portion of the model from an access point to the target; determining a distance between the location of the instrument and the access point; characterised in that the method further comprises: determining a weight associated with the second estimate based on the distance; and determining the location of the instrument at the first time based on the first estimate, the second estimate and the weight. receiving location data from at least one of a set of location sensors and a set of robot command inputs, the location data being indicative of a location of an instrument configured to be driven through a luminal network of a patient; determining a first estimate of the location of the instrument at a first time based on the location data; determining a second estimate of the location of the instrument at the first time based on a path stored on at least one computer-readable memory, at least one computer-readable memory having stored thereon a model of the luminal network, a position of a target with respect to the model , and the path , the path defined along at least a portion of the model from an access point to the target; determining a distance between the location of the instrument and the access point; characterised in that the method further comprises: determining a weight associated with the second estimate based on the distance; and determining the location of the instrument at the first time based on the first estimate, the second estimate and the weight. determining a weight associated with the second estimate based on the distance; and determining the location of the instrument at the first time based on the first estimate, the second estimate and the weight.
A simulation device (Hx) for simulating a peripheral circuit configuration for connecting to a control device (DUT), the simulation device (Hx) can be connected electrically to the control device (DUT), and the simulation device (Hx) comprising a first adjuster (S1) for influencing a first simulation current (Is1) for forwarding from a first load connection (D1) of the control device (DUT) to a first adjuster output (Out1) of the first adjuster (S1), and the first adjuster (S1) comprising a first multistage converter, and the first multistage converter comprising a first converter output (M1), the first converter output (M1) being provided and equipped for being electrically connected to a connection on the converter side of a first inductivity component (L1), the first adjuster output (Out1) being implemented at the connection thereof on the control device side, and the flow direction of the first simulation current (Is1) being reversible, and the simulation device (Hx) further comprising a processing unit (Cx) for executing a model code, a first switch control signal (Ts1) being able to be provided by means of the model code saved and executable on the processing unit (Cx) for forwarding to a first semiconductor switch control means (Tc1), and the first semiconductor switch control means (Tc1) being provided and equipped for converting the first switch control signal (Ts1) into at least one first modified switch control signal (Ts11, Ts12, Ts13, Ts14) and for applying at least the first modified switch control signal (Ts11, Ts12, Ts13, Ts14) to the first multistage converter, the first adjuster (S1) comprising at least - a first supply potential connection comprising a first supply potential (U1), and - a second supply potential connection comprising a second supply potential (U2), and - a third supply potential connection comprising a third supply potential (U3), the third supply potential (U3) being greater than the second supply potential (U2), and the second supply potential (U2) being greater than the first supply potential (U1), the first output voltage (Uout1) being adjustable between the third supply potential (U3) and the first supply potential (U1) by means of loading the control connections (G11, G12, G13, G14) of the first adjuster (S1) using the first switch control signal (Ts1), and the first output voltage (Uout1) being referenced to a first reference potential (GND1). - a first supply potential connection comprising a first supply potential (U1), and - a second supply potential connection comprising a second supply potential (U2), and - a third supply potential connection comprising a third supply potential (U3),
Surgical instrument system for use in a knee joint replacement operation, having an intramedullary rod which extends lengthwise between a proximal rod end and a distal rod end and is configured for introduction into the medullary space of a femur (F), and a reference block which is pushed or can be pushed onto the distal rod end and has a proximally oriented block rear side configured to bear on distal condyles of the femur (F), wherein the reference block is mounted or mountable on the distal rod end by means of a bearing element , wherein the bearing element has a reception bore for coaxial and radially form-fit reception of the distal rod end and is mounted on the reference block in such a way as to be pivotable relative thereto at least about a pivot axis (S) oriented in an anteroposterior direction, characterized in that the at least one bearing element is mounted releasably on the reference block , and in that a plurality of different bearing elements are provided that have differently inclined elongate reception bores , wherein the reception bores are inclined differently, relative to a normal direction of the block rear side , in an anterior and/or posterior direction and can be mounted interchangeably on the reference block for setting a flexion-extension angle of the latter. an intramedullary rod which extends lengthwise between a proximal rod end and a distal rod end and is configured for introduction into the medullary space of a femur (F), and a reference block which is pushed or can be pushed onto the distal rod end and has a proximally oriented block rear side configured to bear on distal condyles of the femur (F), wherein the reference block is mounted or mountable on the distal rod end by means of a bearing element , wherein the bearing element has a reception bore for coaxial and radially form-fit reception of the distal rod end and is mounted on the reference block in such a way as to be pivotable relative thereto at least about a pivot axis (S) oriented in an anteroposterior direction, characterized in that the at least one bearing element is mounted releasably on the reference block , and in that a plurality of different bearing elements are provided that have differently inclined elongate reception bores , wherein the reception bores are inclined differently, relative to a normal direction of the block rear side , in an anterior and/or posterior direction and can be mounted interchangeably on the reference block for setting a flexion-extension angle of the latter.
A method to determine the identity of a nucleotide residue in an extension product, comprising: (a) combining in a sequencing reaction mixture a plurality of identical primed template DNA molecules, a DNA polymerase, at least 4 distinguishable, blocked deoxyribonucleotide triphosphate (dNTP) analogue species, at least 3 of which distinguishable, blocked dNTP analogue species are labeled such that each distinguishable, blocked dNTP analogue species in the sequencing reaction mixture can be distinguished from the other distinguishable, blocked dNTP analogue species, thereby incorporating a distinguishable, blocked dNTP analogue species into at least one of said plurality of identical primed template DNA molecules and forming a distinguishable, blocked extension product; (b) after step (a), adding to the sequencing reaction mixture at least 4 unlabeled, blocked dNTP analogue species, thereby forming an unlabeled, blocked extension product; (c) during step (b), determining the identity of the distinguishable, blocked dNTP analogue incorporated into the labeled, blocked extension product in step (a); and, (d) assigning the complement of the labeled, 3'-blocked dNTP analogue determined in step (c) as the identity of the nucleotide residue in the template DNA molecule. (a) combining in a sequencing reaction mixture a plurality of identical primed template DNA molecules, a DNA polymerase, at least 4 distinguishable, blocked deoxyribonucleotide triphosphate (dNTP) analogue species, at least 3 of which distinguishable, blocked dNTP analogue species are labeled such that each distinguishable, blocked dNTP analogue species in the sequencing reaction mixture can be distinguished from the other distinguishable, blocked dNTP analogue species, thereby incorporating a distinguishable, blocked dNTP analogue species into at least one of said plurality of identical primed template DNA molecules and forming a distinguishable, blocked extension product; (b) after step (a), adding to the sequencing reaction mixture at least 4 unlabeled, blocked dNTP analogue species, thereby forming an unlabeled, blocked extension product; (c) during step (b), determining the identity of the distinguishable, blocked dNTP analogue incorporated into the labeled, blocked extension product in step (a); and, (d) assigning the complement of the labeled, 3'-blocked dNTP analogue determined in step (c) as the identity of the nucleotide residue in the template DNA molecule.
A water supply system , comprising: a water storage tank having a storage tank fill port and a storage tank outlet , the water storage tank configured to store a volume of water at a first pressure; a pressure tank in fluid communication with the water storage tank via a storage tank output line and periodically fillable with water from the water storage tank , wherein the flow of water through the storage tank output line from the water storage tank to the pressure tank is controlled by a storage output valve located along the storage tank output line , an air source fluidly connected along an air line and into the pressure tank under the control of an air valve located along the air line to pressurize the volume of water in the pressure tank to a second pressure greater than the first pressure; and a pressure tank output line fluidly connected to the pressure tank to output water from the pressure tank ; wherein the system further comprises a vent connected to the air valve configured to allow for venting air from the pressure tank to reduce the pressure in the pressure tank , wherein the storage output valve is configured to open to refill the pressure tank with water from the water storage tank , wherein the storage tank outlet is at a higher elevation than the pressure tank such that flow of water from the water storage tank to the pressure tank is achieved through gravity, wherein the storage tank fill port is located at an uppermost tank surface of the water storage tank . a water storage tank having a storage tank fill port and a storage tank outlet , the water storage tank configured to store a volume of water at a first pressure; a pressure tank in fluid communication with the water storage tank via a storage tank output line and periodically fillable with water from the water storage tank , wherein the flow of water through the storage tank output line from the water storage tank to the pressure tank is controlled by a storage output valve located along the storage tank output line , an air source fluidly connected along an air line and into the pressure tank under the control of an air valve located along the air line to pressurize the volume of water in the pressure tank to a second pressure greater than the first pressure; and a pressure tank output line fluidly connected to the pressure tank to output water from the pressure tank ; wherein the system further comprises a vent connected to the air valve configured to allow for venting air from the pressure tank to reduce the pressure in the pressure tank , wherein the storage output valve is configured to open to refill the pressure tank with water from the water storage tank , wherein the storage tank outlet is at a higher elevation than the pressure tank such that flow of water from the water storage tank to the pressure tank is achieved through gravity, wherein the storage tank fill port is located at an uppermost tank surface of the water storage tank .
An arc evaporation source comprising a target , a ring-shaped magnetic field guide magnet , and a back side magnetic field generation source , wherein the magnetic field guide magnet has a polarity with a magnetization direction extending along a direction perpendicular to an evaporation face of the target and facing front or rear, wherein the back side magnetic field generation source is arranged at the side of a back side of the target , the side being the rear of the magnetic field guide magnet , and forms magnetic force lines along the magnetization direction of the magnetic field guide magnet , and wherein, in projection of the magnetic field guide magnet and the target in the magnetization direction of the magnetic field guide magnet , the target is arranged so that the target is projected at a diameter inner side with respect to an intermediate position between an inner peripheral face and an outer peripheral face in a radial direction of the magnetic field guide magnet , characterised in that the target is arranged so that the evaporation face is located at the front with the respect to the magnetic field guide magnet .
A bioreactor comprising a magnetic mixer drive, comprising: a flexible bag ; a magnetic impeller provided in an inner volume of the flexible bag , said magnetic impeller being provided in a receiver structure for receiving the magnetic impeller and aligning it with the magnetic mixer drive along an axis ; and characterized by a magnetic drive comprising a stator (110;111;120;160;605;705) comprising a plurality of current carrying elements (164;764) for producing a magnetic flux in an axial direction along the axis for driving the magnetic impeller to rotate around said axis ; and wherein the stator is an axial flux stator having a core (121;170;175) to affix the current carrying elements (164;764), said core (121;170;175) including a plurality of stationary segments, each segment having height and a width with slots therebetween, the segments integrated on a plate with a hollow central axis, wherein the plurality of stationary segments are pie or conic shaped stator teeth (163;176;763) and the current carrying elements (164;764) are conductive windings wound around the stator teeth; and wherein the stator is mounted in a wall (1008; 1009; 1010) of a rigid support vessel and said flexible bag is adapted to be received in said rigid support vessel . a flexible bag ; a magnetic impeller provided in an inner volume of the flexible bag , said magnetic impeller being provided in a receiver structure for receiving the magnetic impeller and aligning it with the magnetic mixer drive along an axis ; and characterized by a magnetic drive comprising a stator (110;111;120;160;605;705) comprising a plurality of current carrying elements (164;764) for producing a magnetic flux in an axial direction along the axis for driving the magnetic impeller to rotate around said axis ; and wherein the stator is an axial flux stator having a core (121;170;175) to affix the current carrying elements (164;764), said core (121;170;175) including a plurality of stationary segments, each segment having height and a width with slots therebetween, the segments integrated on a plate with a hollow central axis, wherein the plurality of stationary segments are pie or conic shaped stator teeth (163;176;763) and the current carrying elements (164;764) are conductive windings wound around the stator teeth; and wherein the stator is mounted in a wall (1008; 1009; 1010) of a rigid support vessel and said flexible bag is adapted to be received in said rigid support vessel .
Router (RT) for receiving and distributing data (D), comprising: - a capability parameter receiver (FPE) for receiving capability parameters (FP) from at least two devices (Gi) that are connectable to the router (RT); - a device configurator (GK) for selecting and/or configuring at least one of the devices (Gi) taking account of the capability parameters (FP); - a user data receiver (NDE) for receiving data (D) from at least one of the devices (Gi); and - a user data manifold (NDV) for distributing data (D) to at least one of the devices (Gi); wherein the router (RT) is part of a mobile telephone, an implant, a watch, eyeglasses, a hearing aid, a belt, an ankle tag, a piece of jewellery, a piercing, a bracelet and/or another article of clothing and is prepared to reveal and/or identify the user (N) in relation to devices (Gi) that are located in the user's (N) surroundings, characterised in that the device configurator (GK) is prepared to create device-specific device configuration data (GKD) based on capabilities reported by the devices (Gi) and to deliver them to the particular device (Gi). - a capability parameter receiver (FPE) for receiving capability parameters (FP) from at least two devices (Gi) that are connectable to the router (RT); - a device configurator (GK) for selecting and/or configuring at least one of the devices (Gi) taking account of the capability parameters (FP); - a user data receiver (NDE) for receiving data (D) from at least one of the devices (Gi); and - a user data manifold (NDV) for distributing data (D) to at least one of the devices (Gi);