mhurhangee/ep-ind-claims huggingface dataset:
A hand tape applicator comprising: a body; a spindle connected to the body and configured to receive a tape roll comprising tape; an ergonomic handle connected to the body; a roller mechanism connected to the body and configured to apply the tape to a substrate, wherein the roller mechanism comprises: a head; and a tape roller extending along a roller axis between a first end and a second end of the tape roller, wherein the tape roller is connected to the head at each of the first and second ends (2018, 2020); characterised by, a force sensor connected to the head, wherein the force sensor is configured to detect a force between the tape roller and the head and provide a signal indicative of the force. a body; a spindle connected to the body and configured to receive a tape roll comprising tape; an ergonomic handle connected to the body; a roller mechanism connected to the body and configured to apply the tape to a substrate, wherein the roller mechanism comprises: a head; and a tape roller extending along a roller axis between a first end and a second end of the tape roller, wherein the tape roller is connected to the head at each of the first and second ends (2018, 2020); characterised by, a force sensor connected to the head, wherein the force sensor is configured to detect a force between the tape roller and the head and provide a signal indicative of the force. a head; and a tape roller extending along a roller axis between a first end and a second end of the tape roller, wherein the tape roller is connected to the head at each of the first and second ends (2018, 2020); characterised by, a force sensor connected to the head, wherein the force sensor is configured to detect a force between the tape roller and the head and provide a signal indicative of the force.
An aerial vehicle safety apparatus comprising: - an expandable object configured to hold air inside during expansion; - a container (18; 21) that accommodates the expandable object in an initial state; - a hat-shaped member provided in the container and including a columnar member and a flange provided at one end of the columnar member; and - an ejection apparatus (10; 17) that ejects the hat-shaped member and the expandable object from inside of the container to outside of the container at time of operation, characterized in that in the initial state, the expandable object is accommodated in the container while being folded into layers including at least - a first layer configured by arranging the expandable object to be positioned at a predetermined position of the columnar member with one end of the expandable object as a starting end from a state in which the expandable object is collected into an elongated shape, extending the expandable object on the columnar member along a peripheral surface of the columnar member from the starting end to the one end of the expandable object by one round, and forming a terminal end, and - a second layer configured by folding back the expandable object from the terminal end of the first layer to overlap an outer side of the first layer, further extending the expandable object around the first layer along a peripheral surface of the first layer by one round to reach the one end of the first layer, and layering the expandable object on the first layer in a radial direction. - an expandable object configured to hold air inside during expansion; - a container (18; 21) that accommodates the expandable object in an initial state; - a hat-shaped member provided in the container and including a columnar member and a flange provided at one end of the columnar member; and - an ejection apparatus (10; 17) that ejects the hat-shaped member and the expandable object from inside of the container to outside of the container at time of operation, characterized in that in the initial state, the expandable object is accommodated in the container while being folded into layers including at least - a first layer configured by arranging the expandable object to be positioned at a predetermined position of the columnar member with one end of the expandable object as a starting end from a state in which the expandable object is collected into an elongated shape, extending the expandable object on the columnar member along a peripheral surface of the columnar member from the starting end to the one end of the expandable object by one round, and forming a terminal end, and - a second layer configured by folding back the expandable object from the terminal end of the first layer to overlap an outer side of the first layer, further extending the expandable object around the first layer along a peripheral surface of the first layer by one round to reach the one end of the first layer, and layering the expandable object on the first layer in a radial direction.
A method for producing an amide compound from a nitrile compound using a biocatalyst in a reactor, wherein the nitrile compound is reacted with the biocatalyst to produce the amide compound under such stirring conditions that the stirring power requirement is in the range of 0.08 to 0.7 kW/m 3 and the stirring is performed with the Froude number of 0.05 to 0.20 and a tip speed of 4.0 m/s or less, and wherein the biocatalyst is selected from a bacterial cell containing nitrile hydratase or treated products thereof.
Splitter nose (22; 122; 322; 422; 522) of an axial turbomachine designed to separate an annular flow into the turbomachine into a primary flow (18; 118; 318; 418; 518) and a secondary flow (20; 120; 320; 420; 520), the nose comprising: - an annular leading edge (44; 144; 344; 444; 544), - guide walls (28, 34; 128, 134; 328, 334; 428, 434; 528, 534) for the primary and secondary flows, extending from the leading edge; - a leading edge de-icing channel (40; 140; 340; 440; 540) extending annularly along the said edge, the channel being designed to conduct a fluid and comprising a wall (42; 142; 342; 442; 542) with a cross-section having a closed contour; characterized in that the wall (42; 142; 342; 442; 542) of the channel (40; 140; 340; 440; 540) forms the leading edge (44; 144; 344; 444; 544), the guide walls of the primary and secondary flows being attached to the said wall. - an annular leading edge (44; 144; 344; 444; 544), - guide walls (28, 34; 128, 134; 328, 334; 428, 434; 528, 534) for the primary and secondary flows, extending from the leading edge; - a leading edge de-icing channel (40; 140; 340; 440; 540) extending annularly along the said edge, the channel being designed to conduct a fluid and comprising a wall (42; 142; 342; 442; 542) with a cross-section having a closed contour;
Rotating nozzle for a high-pressure cleaning device comprising a nozzle house provided with a fluid exit opening comprising a seat co-operating with a first end portion of a nozzle member such that the nozzle member can undergo a pivotal and rotational movement relative to a longitudinal axis through the nozzle house, at least one fluid inlet to the nozzle house providing a rotational movement of the fluid in said nozzle house, characterised in that said nozzle house comprising a frusto-conical wall section and said nozzle member comprising a rolling surface, said rolling surface of the nozzle member rolling on said frusto-conical wall section and resting with line contact on the latter along its generatrix.
A cell status changing method, wherein cells belonging to a master base station and cells belonging to a secondary base station are aggregated, the master base station and the secondary base station serving a user equipment, UE, and the method comprising: generating, by the master base station, a first media access control, MAC, control element, CE; numbering, by the master base station, cell indexes for service cells of the master base station and the secondary base station such that the cell indexes of all cells of the master base station and the secondary base station are different; transmitting, by the master base station, the first MAC CE to the UE, so that the UE is able to determine that the first MAC CE is sent from the master base station, activate or deactivate a first service cell of the master base station according to a first bit in a bit map of the first MAC CE wherein the first bit corresponds to the cell index of the first service cell of the master base station, and ignore a second bit in the bit map of the first MAC CE wherein the second bit corresponds to the cell index of second service cell of the secondary base station. generating, by the master base station, a first media access control, MAC, control element, CE; numbering, by the master base station, cell indexes for service cells of the master base station and the secondary base station such that the cell indexes of all cells of the master base station and the secondary base station are different; transmitting, by the master base station, the first MAC CE to the UE, so that the UE is able to determine that the first MAC CE is sent from the master base station, activate or deactivate a first service cell of the master base station according to a first bit in a bit map of the first MAC CE wherein the first bit corresponds to the cell index of the first service cell of the master base station, and ignore a second bit in the bit map of the first MAC CE wherein the second bit corresponds to the cell index of second service cell of the secondary base station.
Motor/pump assembly, in particular for a motor vehicle braking device, including: - a motor having a pot-shaped motor housing and a brush plate that is provided in the motor housing and - a pump having a pump housing, wherein - the motor is fastened axially to an end face of the pump housing, - the brush plate forms the terminating surface of the motor facing the pump housing - the edge region of the pot-shaped motor housing that is facing the pump housing comprises a seal receiving shoulder, - the region of the brush plate that is radially adjacent to edge region of the motor housing likewise comprises a seal receiving shoulder and - a seal is inserted into these seal receiving shoulders (la, 11a), said seal being axially pressed together by means of fastening the pump housing to the motor. - a motor having a pot-shaped motor housing and a brush plate that is provided in the motor housing and - a pump having a pump housing, wherein - the motor is fastened axially to an end face of the pump housing, - the brush plate forms the terminating surface of the motor facing the pump housing - the edge region of the pot-shaped motor housing that is facing the pump housing comprises a seal receiving shoulder, - the region of the brush plate that is radially adjacent to edge region of the motor housing likewise comprises a seal receiving shoulder and - a seal is inserted into these seal receiving shoulders (la, 11a), said seal being axially pressed together by means of fastening the pump housing to the motor.
A battery charge indication method comprising: first determining a state of charge of a battery at a first moment in time using a first method; second determining a state of charge of the battery at a second moment in time using a second method different than the first method; and providing information regarding the state of charge of the battery at the first and second moments in time using information of the first and second determinings; characterized in that the method further comprises switching between the first method and the second method responsive to the state of charge of the battery. first determining a state of charge of a battery at a first moment in time using a first method; second determining a state of charge of the battery at a second moment in time using a second method different than the first method; and providing information regarding the state of charge of the battery at the first and second moments in time using information of the first and second determinings;
Computer-implemented method for providing a control signal (136, 138) for a production process, the production process having a first sub-process by that a production unit processes a chemical substance (1, 2, 3, 4, 5, 6) at a production site, and having a second sub-process by that a physical sample of the chemical substance is analyzed by an analytical instrument at a laboratory site, the physical sample being a limited quantity of the chemical substance (1, 2, 3, 4, 5, 6), the method with operating a first connector module and a second connector module that enable the communication between production systems being computer systems (120, 130) at the production site and laboratory systems being computer systems (220, 230) at the laboratory site, the method comprising: by the first connector module, receiving first type data from a process control system at the production site and second type data from a manufacturing system at the production site, with first type data comprising an identifier to a particular physical sample, wherein the identifier is a reference for the production systems and the laboratory systems to access data that relates to the particular physical sample, and with second type data comprising data required to derive the control signal (136, 138) to control the operation of the production unit after a point in time when the physical sample has been analyzed by the analytical instrument; by the first connector module, composing a message with first type data and with second type data; by the first connector module, transmitting the message to the second connector module; by the second connector module, receiving the message; by the second connector module, sending first type data through at least one of the computer systems (201, 230, 220) at the laboratory site to the analytical instrument, causing the analytical instrument to analyze the physical sample and to obtain laboratory data; by the second connector module, sending second type data to a control signal module; and by the control signal module, deriving the control signal (136, 138) for controlling the operation of the production unit at the production site, by using laboratory data and second type data. by the first connector module, composing a message with first type data and with second type data; by the first connector module, transmitting the message to the second connector module; by the second connector module, receiving the message; by the second connector module, sending first type data through at least one of the computer systems (201, 230, 220) at the laboratory site to the analytical instrument, causing the analytical instrument to analyze the physical sample and to obtain laboratory data; by the second connector module, sending second type data to a control signal module; and by the control signal module, deriving the control signal (136, 138) for controlling the operation of the production unit at the production site, by using laboratory data and second type data.
System comprising: a lid for closing an enclosure; a non-conductive cover; a shielded self-latching locking assembly for securely closing the lid on the enclosure, the locking assembly comprising a spring-biased slide member positioned within the non-conductive cover on an underside of the lid; and an L-bolt having a leg portion thereof coupled to the slide member; the L-bolt having an elongated shaft portion thereof rotatable in a slotted housing that securely retains the L-bolt under the lid; the slide member having a latch thereof adapted to engage a rim or other abutment on an inside of the enclosure when the lid is forced down over an opening in the enclosure, such downward force on the lid progressively causing the latch to retract against the spring-bias, from contact with the rim or abutment, and then snap the latch into a spring-biased locking position under the rim or abutment; the shaft portion of the L-bolt accessible from the exterior of the lid for rotating the L-bolt to retract the latch against the spring-bias and from its locking position sufficiently for removing the lid from the enclosure, the non-conductive cover having a channel for receipt of and guiding travel of the spring-biased slide member, wherein the cover is positioned over the locking assembly to cover all conductive components of the locking assembly and wherein the cover shields contact from any conductive components of the locking assembly. a lid for closing an enclosure; a non-conductive cover; a shielded self-latching locking assembly for securely closing the lid on the enclosure, the locking assembly comprising a spring-biased slide member positioned within the non-conductive cover on an underside of the lid; and an L-bolt having a leg portion thereof coupled to the slide member; the L-bolt having an elongated shaft portion thereof rotatable in a slotted housing that securely retains the L-bolt under the lid; the slide member having a latch thereof adapted to engage a rim or other abutment on an inside of the enclosure when the lid is forced down over an opening in the enclosure, such downward force on the lid progressively causing the latch to retract against the spring-bias, from contact with the rim or abutment, and then snap the latch into a spring-biased locking position under the rim or abutment; the shaft portion of the L-bolt accessible from the exterior of the lid for rotating the L-bolt to retract the latch against the spring-bias and from its locking position sufficiently for removing the lid from the enclosure, the non-conductive cover having a channel for receipt of and guiding travel of the spring-biased slide member, wherein the cover is positioned over the locking assembly to cover all conductive components of the locking assembly and wherein the cover shields contact from any conductive components of the locking assembly.
A method of operating a network node to distribute media across an IP network, the network node having multicast and peer-to-peer ingress interfaces, and unicast and peer-to-peer egress interfaces, the method being characterised by comprising: at the network node, selecting one of a multicast and peer-to-peer ingress interface and receiving media packets at the selected interface; for each media packet received at the node, determining from information conveyed in the packet or associated packets whether that packet can be cached at the node and caching the packet if permitted; and at the node, selecting one of a unicast and peer-to-peer egress interface and forwarding packets to one or more further nodes over that interface wherein media packets received at an ingress interface that uses one media distribution mechanism may be forwarded over an egress interface that uses a different media distribution mechanism. at the network node, selecting one of a multicast and peer-to-peer ingress interface and receiving media packets at the selected interface; for each media packet received at the node, determining from information conveyed in the packet or associated packets whether that packet can be cached at the node and caching the packet if permitted; and at the node, selecting one of a unicast and peer-to-peer egress interface and forwarding packets to one or more further nodes over that interface wherein media packets received at an ingress interface that uses one media distribution mechanism may be forwarded over an egress interface that uses a different media distribution mechanism.
A Physical Unclonable Function, PUF, apparatus for generating a persistent random PUF output, the PUF apparatus comprising: a pair of devices for generating a random value based on a comparison of a physical characteristic of the pair of devices against at least one threshold, wherein the physical characteristic is indicative of a random manufacturing variation between the pair of devices, and wherein the persistent random value is for use in generating the persistent random PUF output; and a determination unit configured to: measure the physical characteristic of the pair of devices; determine a difference between the measured physical characteristic and the at least one threshold, wherein the difference is indicative of a reliability of the pair of devices to generate a random value that is persistent; characterized in that the determination unit is further configured to: generate a status report, based at least in part on a magnitude of the difference between the measured physical characteristic and the at least one threshold, wherein the status report is indicative of a likelihood of the PUF apparatus generating a persistent PUF output; and output the status report. a pair of devices for generating a random value based on a comparison of a physical characteristic of the pair of devices against at least one threshold, wherein the physical characteristic is indicative of a random manufacturing variation between the pair of devices, and wherein the persistent random value is for use in generating the persistent random PUF output; and a determination unit configured to: measure the physical characteristic of the pair of devices; determine a difference between the measured physical characteristic and the at least one threshold, wherein the difference is indicative of a reliability of the pair of devices to generate a random value that is persistent; characterized in that the determination unit is further configured to: generate a status report, based at least in part on a magnitude of the difference between the measured physical characteristic and the at least one threshold, wherein the status report is indicative of a likelihood of the PUF apparatus generating a persistent PUF output; and output the status report. measure the physical characteristic of the pair of devices; determine a difference between the measured physical characteristic and the at least one threshold, wherein the difference is indicative of a reliability of the pair of devices to generate a random value that is persistent; characterized in that the determination unit is further configured to: generate a status report, based at least in part on a magnitude of the difference between the measured physical characteristic and the at least one threshold, wherein the status report is indicative of a likelihood of the PUF apparatus generating a persistent PUF output; and output the status report.