mhurhangee/ep-ind-claims huggingface dataset:
A laboratory product transport element (30; 730) for a laboratory transport system, the laboratory product transport element (30; 730) comprising: an energy source (744; 3040) to furnish drive power, at least one signal receiver to receive control signals; a control unit to generate drive signals as a function of at least one control signal obtained from the at least one receiver; at least one movement device (38; 838; 938; 1038; 1138), with which the laboratory product transport element can move independently on a transfer path; at least one drive device (36; 836; 936; 1036; 1136) to drive the at least one movement device (38; 838; 938; 1038; 1138) as a function of the drive signals of the control unit, the at least one drive device being driven by the drive power; at least one holder (733; 2500) to hold a laboratory product to be transported; and characterized in that the laboratory product transport element (30; 730) further comprises a reinforcement device (800, 900, 1000, 1100), wherein the reinforcement device (800, 900, 1000, 1100) is configured to redirect a load force from a chassis (801, 901, 1001, 1101) coupled with the at least one holder (733; 2500) to the transfer path; and in that the energy source (744; 3040) comprises an energy receiver, wherein the energy receiver comprises at least one induction coil capable of absorbing an alternating electromagnetic field. an energy source (744; 3040) to furnish drive power, at least one signal receiver to receive control signals; a control unit to generate drive signals as a function of at least one control signal obtained from the at least one receiver; at least one movement device (38; 838; 938; 1038; 1138), with which the laboratory product transport element can move independently on a transfer path; at least one drive device (36; 836; 936; 1036; 1136) to drive the at least one movement device (38; 838; 938; 1038; 1138) as a function of the drive signals of the control unit, the at least one drive device being driven by the drive power; at least one holder (733; 2500) to hold a laboratory product to be transported; and characterized in that the laboratory product transport element (30; 730) further comprises a reinforcement device (800, 900, 1000, 1100), wherein the reinforcement device (800, 900, 1000, 1100) is configured to redirect a load force from a chassis (801, 901, 1001, 1101) coupled with the at least one holder (733; 2500) to the transfer path; and in that the energy source (744; 3040) comprises an energy receiver, wherein the energy receiver comprises at least one induction coil capable of absorbing an alternating electromagnetic field.
A remote controlled blood flow restriction cuff comprising: an air bladder configured to be positioned around a limb; a compact air pump located on the cuff to pressurize the air bladder; a pressure sensor to sense bladder air pressure; an electronic controller to control operation of the air pump; the controller adjustable for a predetermined pressure or pressure range, and receptive and responsive to signals from the pressure sensor; a power supply located on the cuff to provide power to the air pump, controller and pressure sensor; wherein inflation and deflation of the cuff can be controlled using a remote device in communication with the controller wherein the electronic controller is configured to: inflate the cuff in small increments until pulse stops; sense at what pressure level pulse rate is no longer detected using photoplethysmography, bioimpedance, near infrared spectroscopy and/or Doppler ultrasound, determine a limb occlusion pressure of a user as the point at which minimal pressure is required to stop blood flow to an extremity of the limb; inflate the cuff to a desired percentage of LOP between 50-80% based on a user selection; and to maintain the pressure at the selected percentage of LOP, keeping pressure constant in this zone allowing for adjustments with limb/body movement. an air bladder configured to be positioned around a limb; a compact air pump located on the cuff to pressurize the air bladder; a pressure sensor to sense bladder air pressure; an electronic controller to control operation of the air pump; the controller adjustable for a predetermined pressure or pressure range, and receptive and responsive to signals from the pressure sensor; a power supply located on the cuff to provide power to the air pump, controller and pressure sensor; wherein inflation and deflation of the cuff can be controlled using a remote device in communication with the controller wherein the electronic controller is configured to: inflate the cuff in small increments until pulse stops; sense at what pressure level pulse rate is no longer detected using photoplethysmography, bioimpedance, near infrared spectroscopy and/or Doppler ultrasound, determine a limb occlusion pressure of a user as the point at which minimal pressure is required to stop blood flow to an extremity of the limb; inflate the cuff to a desired percentage of LOP between 50-80% based on a user selection; and to maintain the pressure at the selected percentage of LOP, keeping pressure constant in this zone allowing for adjustments with limb/body movement. inflate the cuff in small increments until pulse stops; sense at what pressure level pulse rate is no longer detected using photoplethysmography, bioimpedance, near infrared spectroscopy and/or Doppler ultrasound, determine a limb occlusion pressure of a user as the point at which minimal pressure is required to stop blood flow to an extremity of the limb; inflate the cuff to a desired percentage of LOP between 50-80% based on a user selection; and to maintain the pressure at the selected percentage of LOP, keeping pressure constant in this zone allowing for adjustments with limb/body movement.
Disc screen for the separation of solid residues, which comprises: - a support structure; - a plurality of rotating shafts parallel to each other and rotatably mounted on said support structure defining a screening plane having an elongated extension along a residue advancement direction between an input section and an output section; - drive means for driving said rotating shafts in order to carry them in rotation around their longitudinal extension axis; - a plurality of discs axially mounted in succession spaced from each other along said rotating shafts; characterized in that it comprises: - a movable hopper slidably mounted on said support structure along said advancement direction of said residues, above said screening plane, provided with an outlet door which supplies said screening plane along said residue advancement direction; - displacement means suitable to move said movable hopper along said advancement direction of the residues in order to position the outlet door in different positions along the screening plane. - a support structure; - a plurality of rotating shafts parallel to each other and rotatably mounted on said support structure defining a screening plane having an elongated extension along a residue advancement direction between an input section and an output section; - drive means for driving said rotating shafts in order to carry them in rotation around their longitudinal extension axis; - a plurality of discs axially mounted in succession spaced from each other along said rotating shafts; characterized in that it comprises: - a movable hopper slidably mounted on said support structure along said advancement direction of said residues, above said screening plane, provided with an outlet door which supplies said screening plane along said residue advancement direction; - displacement means suitable to move said movable hopper along said advancement direction of the residues in order to position the outlet door in different positions along the screening plane.
A method for exogenous inactivation of a virus comprising exogenously contacting an infectious virus containing a control nucleic acid sequence with an effective amount of citraconic anhydride, thereby inactivating the virus while preserving the integrity of the control nucleic acid sequence, wherein said effective amount of citraconic anhydride is at a concentration between about 5 mM and about 25 mM.
An LED circuit, comprising: - a plurality of integrated circuit LED packages; and - an integrated circuit comprising a set of LED control circuits, each formed in a respective area of the circuit, and having at least one control line leading to each individual LED control circuit, wherein each LED package is bonded over a respective LED control circuit such that the LED makes electrical connection with the LED control circuit, and characterized in that the LED control circuits are electrically connected together in series by the integrated circuit to define a string of LED control circuits, and wherein each LED control circuit comprises a transistor in parallel with the LED package, and the at least one control line comprises a transistor gate line and wherein the ends of the string of LED control circuits comprise power line connection pads. - a plurality of integrated circuit LED packages; and - an integrated circuit comprising a set of LED control circuits, each formed in a respective area of the circuit, and having at least one control line leading to each individual LED control circuit,
Manual pliers tool comprising a mechanical pliers part with a) two pivotable hand levers (8, 9), b) two pliers jaws (11, 12) which can be moved relatively to each other, c) a drive mechanism coupling the pliers jaws (11, 12) to the hand levers (8, 9) in a way such that a pivoting movement of the hand levers (8, 9) induces a movement of the pliers jaws (11, 12) over a working stroke, d) an electronic constructional unit being provided which da) is embodied separately from the mechanical pliers part, db) is arranged at a pliers head part of the mechanical pliers part which is located between the hand levers (8, 9) and the pliers jaws (11, 12) and dc) is fixed to the pliers head part, e) the electronic constructional unit extending on two opposite sides of the pliers head part, characterised in that f) the electronic constructional unit comprises a continuous recess having a closed edge through which the mechanical pliers part extends. a) two pivotable hand levers (8, 9), b) two pliers jaws (11, 12) which can be moved relatively to each other, c) a drive mechanism coupling the pliers jaws (11, 12) to the hand levers (8, 9) in a way such that a pivoting movement of the hand levers (8, 9) induces a movement of the pliers jaws (11, 12) over a working stroke, d) an electronic constructional unit being provided which da) is embodied separately from the mechanical pliers part, db) is arranged at a pliers head part of the mechanical pliers part which is located between the hand levers (8, 9) and the pliers jaws (11, 12) and dc) is fixed to the pliers head part, da) is embodied separately from the mechanical pliers part, db) is arranged at a pliers head part of the mechanical pliers part which is located between the hand levers (8, 9) and the pliers jaws (11, 12) and dc) is fixed to the pliers head part, e) the electronic constructional unit extending on two opposite sides of the pliers head part, characterised in that f) the electronic constructional unit comprises a continuous recess having a closed edge through which the mechanical pliers part extends.
A method for wireless communication at a narrowband communications device, comprising: identifying (615, 1505, 1605) positioning reference signal, PRS, resources within a standalone narrowband transmission bandwidth that is outside of a wideband system bandwidth or in a guard band bandwidth that is adjacent to the wideband system bandwidth; and receiving (1510, 1610), on the PRS resources within the standalone narrowband transmission bandwidth or the guard band bandwidth, one or more PRS transmissions (625, 635) in at least one downlink subframe among a plurality of downlink subframes, wherein the PRS resources within the narrowband transmission bandwidth comprise resources within a single resource block, RB, of the narrowband transmission bandwidth, wherein the PRS resources within the single RB comprising PRS resources within each of a first through third symbol of the single RB, and wherein the one or more PRS transmissions are received in the single RB from a base station; and oversampling the one or more PRS transmissions. identifying (615, 1505, 1605) positioning reference signal, PRS, resources within a standalone narrowband transmission bandwidth that is outside of a wideband system bandwidth or in a guard band bandwidth that is adjacent to the wideband system bandwidth; and receiving (1510, 1610), on the PRS resources within the standalone narrowband transmission bandwidth or the guard band bandwidth, one or more PRS transmissions (625, 635) in at least one downlink subframe among a plurality of downlink subframes, wherein the PRS resources within the narrowband transmission bandwidth comprise resources within a single resource block, RB, of the narrowband transmission bandwidth, wherein the PRS resources within the single RB comprising PRS resources within each of a first through third symbol of the single RB, and wherein the one or more PRS transmissions are received in the single RB from a base station; and oversampling the one or more PRS transmissions.
A communication device including a base station, the communication device comprising: a control section configured to determine whether an existing standard-compliant terminal is connected to the base station in a usage frequency band, the usage frequency band being a frequency band to be used by the base station, on a basis of existing standard-compliant terminal connection information that indicates whether the existing standard-compliant terminal is connected to the base station in a predetermined frequency band and that is received from another base station, characterized in that the control section selects a selected frequency band on a basis of whether the existing standard-compliant terminal is connected to the base station in the selected frequency band, wherein whether the existing standard-compliant terminal is connected to the base station in the selected frequency band is determined on a basis of band identification information that identifies the predetermined frequency band and that is received from the other base station and the existing standard-compliant terminal connection information, wherein the control section repeats selection of frequency bands to be used as the usage frequency band until a necessary bandwidth for the usage frequency is attained, and sequentially adds the selected frequency bands to the usage frequency band. a control section configured to determine whether an existing standard-compliant terminal is connected to the base station in a usage frequency band, the usage frequency band being a frequency band to be used by the base station, on a basis of existing standard-compliant terminal connection information that indicates whether the existing standard-compliant terminal is connected to the base station in a predetermined frequency band and that is received from another base station, characterized in that the control section selects a selected frequency band on a basis of whether the existing standard-compliant terminal is connected to the base station in the selected frequency band, wherein whether the existing standard-compliant terminal is connected to the base station in the selected frequency band is determined on a basis of band identification information that identifies the predetermined frequency band and that is received from the other base station and the existing standard-compliant terminal connection information, wherein the control section repeats selection of frequency bands to be used as the usage frequency band until a necessary bandwidth for the usage frequency is attained, and sequentially adds the selected frequency bands to the usage frequency band.
A concrete saw comprising: a motor (58; 138) and a first support element supporting the motor, and a blade drive element coupled to the motor and having means for accepting and supporting a concrete saw blade; a frame combination including a first frame element, and a second frame element wherein the second frame element includes a support for allowing the concrete saw to move along a surface, and wherein the first frame element is pivotally mounted relative the second frame element; a second damping element (124; 192,194) between the first support element and the first frame element; characterized by a first damping element (126;192, 194) between the blade drive element and the first frame element;and in that the first (126; 192,194) and second (124; 192,194) damping elements are oriented at angles with respect to each other. a motor (58; 138) and a first support element supporting the motor, and a blade drive element coupled to the motor and having means for accepting and supporting a concrete saw blade; a frame combination including a first frame element, and a second frame element wherein the second frame element includes a support for allowing the concrete saw to move along a surface, and wherein the first frame element is pivotally mounted relative the second frame element; a second damping element (124; 192,194) between the first support element and the first frame element; characterized by a first damping element (126;192, 194) between the blade drive element and the first frame element;and in that the first (126; 192,194) and second (124; 192,194) damping elements are oriented at angles with respect to each other.
A method in a user equipment, UE, the method comprising: receiving a measurement configuration message via a radio network node, the measurement configuration message comprising a configuration identifier associated with a measurement configuration file but not the measurement configuration file; determining a need for retrieving the measurement configuration file from the radio network node; retrieving the measurement configuration file from the radio network node using the received configuration identifier; wherein retrieving the measurement configuration file from the radio network node using the received configuration identifier comprises: transmitting a request for the measurement configuration file to the radio network node; and receiving the measurement configuration file from the radio network node. receiving a measurement configuration message via a radio network node, the measurement configuration message comprising a configuration identifier associated with a measurement configuration file but not the measurement configuration file; determining a need for retrieving the measurement configuration file from the radio network node; retrieving the measurement configuration file from the radio network node using the received configuration identifier; wherein retrieving the measurement configuration file from the radio network node using the received configuration identifier comprises: transmitting a request for the measurement configuration file to the radio network node; and receiving the measurement configuration file from the radio network node. transmitting a request for the measurement configuration file to the radio network node; and receiving the measurement configuration file from the radio network node.
An air conditioner comprising: a cabinet provided with an opening; and a cover to open and close the opening, wherein the cover comprises: a cover body to cover the opening and including a first cover body and a second cover body that are spaced apart from each other to form a double layer walled structure; and a plurality of spacing ribs provided between the first cover body and the second cover body. a cabinet provided with an opening; and a cover to open and close the opening, wherein the cover comprises: a cover body to cover the opening and including a first cover body and a second cover body that are spaced apart from each other to form a double layer walled structure; and a plurality of spacing ribs provided between the first cover body and the second cover body.
A method for processing an authorization change of a Proximity-based Service, ProSe, characterized by comprising: triggering, by a ProSe Function of a visited network or a local network, reauthorization of the ProSe; and sending, by the ProSe Function of the visited network or the local network, updated authorization information to a ProSe Function of a home network, wherein the updated authorization information comprises: an update time limitation indication; or the updated authorization information comprises: an update time limitation indication, and time information; wherein the update time limitation indication is arranged to indicate whether the authorization change of the ProSe is a temporary update or a permanent update. triggering, by a ProSe Function of a visited network or a local network, reauthorization of the ProSe; and sending, by the ProSe Function of the visited network or the local network, updated authorization information to a ProSe Function of a home network, wherein the updated authorization information comprises: an update time limitation indication; or the updated authorization information comprises: an update time limitation indication, and time information; wherein the update time limitation indication is arranged to indicate whether the authorization change of the ProSe is a temporary update or a permanent update.
A method of forwarding a packet, characterized in that, the method comprises: determining, by a software defined network, SDN, controller, that a first access device connected with a database server (102, 181-185) is to be configured with a mirror image rule, wherein the mirror image rule comprises an internet protocol, IP, address of the database server (102, 181-185) connected with the first access device, a media access control, MAC, address of a database audit device (103, 176-179) connected with a second access device, and a virtual extensible LAN, VXLAN, tunnel between the first access device and the second access device; and transmitting, by the SDN controller, a mirror image rule adding message carrying the mirror image rule to the first access device so as to cause the first access device to, after receiving a database access packet whose destination IP address is the IP address of the database server (102, 181-185), obtain a mirror packet by mirroring the database access packet, replace a destination MAC address of the mirror packet with the MAC address of the database audit device (103, 176-179) according to the mirror image rule, perform VXLAN encapsulation on the replaced mirror packet, and forward the encapsulated VXLAN packet. determining, by a software defined network, SDN, controller, that a first access device connected with a database server (102, 181-185) is to be configured with a mirror image rule, wherein the mirror image rule comprises an internet protocol, IP, address of the database server (102, 181-185) connected with the first access device, a media access control, MAC, address of a database audit device (103, 176-179) connected with a second access device, and a virtual extensible LAN, VXLAN, tunnel between the first access device and the second access device; and transmitting, by the SDN controller, a mirror image rule adding message carrying the mirror image rule to the first access device so as to cause the first access device to, after receiving a database access packet whose destination IP address is the IP address of the database server (102, 181-185), obtain a mirror packet by mirroring the database access packet, replace a destination MAC address of the mirror packet with the MAC address of the database audit device (103, 176-179) according to the mirror image rule, perform VXLAN encapsulation on the replaced mirror packet, and forward the encapsulated VXLAN packet. obtain a mirror packet by mirroring the database access packet, replace a destination MAC address of the mirror packet with the MAC address of the database audit device (103, 176-179) according to the mirror image rule, perform VXLAN encapsulation on the replaced mirror packet, and forward the encapsulated VXLAN packet.