mhurhangee/ep-ind-claims huggingface dataset:
A terminal assembly for a multi-fiber optical cable, comprising: a back post member configured to couple to the multi-fiber optical cable; a ferrule; an insert configured to align with the ferrule, the insert being one of a pin holder insert and a pin alignment insert; and a housing including a first housing component and a second housing component configured to couple to the first housing component so as to form at least one chamber (77a, 77b, 77c) therebetween for receiving at least the ferrule, each of the first and second housing components being further configured to couple to the back post member, characterized in that: the back post member includes one of a longitudinal slot or a longitudinal projection, and at least one of the first housing component and the second housing component includes the other of the longitudinal slot or the longitudinal projection, wherein the longitudinal projection is configured to engage the longitudinal slot, and the back post member includes one of a transverse slot or a transverse projection, and the at least one first housing component and the second housing component includes the other of the transverse slot and the transverse projection, wherein the transverse projection is configured to engage the transverse slot. a back post member configured to couple to the multi-fiber optical cable; a ferrule; an insert configured to align with the ferrule, the insert being one of a pin holder insert and a pin alignment insert; and a housing including a first housing component and a second housing component configured to couple to the first housing component so as to form at least one chamber (77a, 77b, 77c) therebetween for receiving at least the ferrule, each of the first and second housing components being further configured to couple to the back post member, characterized in that: the back post member includes one of a longitudinal slot or a longitudinal projection, and at least one of the first housing component and the second housing component includes the other of the longitudinal slot or the longitudinal projection, wherein the longitudinal projection is configured to engage the longitudinal slot, and the back post member includes one of a transverse slot or a transverse projection, and the at least one first housing component and the second housing component includes the other of the transverse slot and the transverse projection, wherein the transverse projection is configured to engage the transverse slot. the back post member includes one of a longitudinal slot or a longitudinal projection, and at least one of the first housing component and the second housing component includes the other of the longitudinal slot or the longitudinal projection, wherein the longitudinal projection is configured to engage the longitudinal slot, and the back post member includes one of a transverse slot or a transverse projection, and the at least one first housing component and the second housing component includes the other of the transverse slot and the transverse projection, wherein the transverse projection is configured to engage the transverse slot.
Method for determining the path of a rough milling tool used for preparing a workpiece prior to finishing using a finish milling tool, characterized in that it comprises the following steps: - determining a first roughed profile (Pb) of a workpiece defining a region (Zb) of material that is to be removed by the finish milling tool and taking into account the radius (Rf) of the finish milling tool used for finishing, at least a maximum value (m) for an engagement angle for said finish milling tool during machining and a trajectory (Tf) of the finish milling tool for the purpose of creating said first roughed profile (Pb); - determining a first trajectory of the rough milling tool for the purpose of creating said first roughed profile (Pb) of the workpiece; - determining at least one first region of said first roughed profile (Pb) that cannot be machined by the rough milling tool that follows said first trajectory taking into account the radius (Rs) of the rough milling tool; - determining a second trajectory of the rough milling tool for the purpose of creating a second roughed profile (Ps) of the workpiece taking into account the radius (Rs) of said rough milling tool, said at least first roughed profile (Pb) of the workpiece and a final profile (Pp) of the workpiece obtained after finishing. - determining a first roughed profile (Pb) of a workpiece defining a region (Zb) of material that is to be removed by the finish milling tool and taking into account the radius (Rf) of the finish milling tool used for finishing, at least a maximum value (m) for an engagement angle for said finish milling tool during machining and a trajectory (Tf) of the finish milling tool for the purpose of creating said first roughed profile (Pb); - determining a first trajectory of the rough milling tool for the purpose of creating said first roughed profile (Pb) of the workpiece; - determining at least one first region of said first roughed profile (Pb) that cannot be machined by the rough milling tool that follows said first trajectory taking into account the radius (Rs) of the rough milling tool; - determining a second trajectory of the rough milling tool for the purpose of creating a second roughed profile (Ps) of the workpiece taking into account the radius (Rs) of said rough milling tool, said at least first roughed profile (Pb) of the workpiece and a final profile (Pp) of the workpiece obtained after finishing.
Connecting device for connecting a screw machine to a gear mechanism, comprising - a housing, -- which at least in regions delimits an interior for arrangement of at least one shaft connection (35, 36) between at least one gearbox shaft (20, 21) and at least one screw shaft (11, 12), -- which comprises at least one gear-side housing opening (32, 33) for insertion of the at least one gear shaft (20, 21) and at least one machine-side housing opening (29, 30) for insertion of the at least one screw shaft (11, 12) into the interior, characterized by at least one cleaning element for cleaning contaminants from the interior and from an inner wall delimiting the interior. - a housing, -- which at least in regions delimits an interior for arrangement of at least one shaft connection (35, 36) between at least one gearbox shaft (20, 21) and at least one screw shaft (11, 12), -- which comprises at least one gear-side housing opening (32, 33) for insertion of the at least one gear shaft (20, 21) and at least one machine-side housing opening (29, 30) for insertion of the at least one screw shaft (11, 12) into the interior, characterized by at least one cleaning element for cleaning contaminants from the interior and from an inner wall delimiting the interior. -- which at least in regions delimits an interior for arrangement of at least one shaft connection (35, 36) between at least one gearbox shaft (20, 21) and at least one screw shaft (11, 12), -- which comprises at least one gear-side housing opening (32, 33) for insertion of the at least one gear shaft (20, 21) and at least one machine-side housing opening (29, 30) for insertion of the at least one screw shaft (11, 12) into the interior,
An aluminium alloy having good electrical conductivity and good thermal conductivity for producing die-cast components, characterized in that the alloy contains from 8.0 to 9.0% by weight of silicon from 0.5 to 0.7% by weight of iron not more than 0.010% by weight of copper not more than 0.010% by weight of magnesium not more than 0.010% by weight of manganese not more than 0.001% by weight of chromium not more than 0.020% by weight of titanium not more than 0.020% by weight of vanadium from 0.010 to 0.030% by weight of strontium and aluminium as balance with production-related impurities of not more than 0.05% by weight each, in total not more than 0.2% by weight.
A display device comprising: a display module having a first non-foldable area, a foldable area, and a second non-foldable area, which are arranged in a first direction in a unfolded state; a first support layer disposed under the display module and having a lattice pattern including a plurality of first holes and a plurality of second holes overlapping the foldable area, wherein the first holes are arranged in the first direction and a second direction intersecting the first direction, wherein the second holes are arranged in the first direction and the second direction and disposed between the first holes adjacent to each other in the first direction, wherein:each of the first holes has a first width in the second direction and a second width in the first direction, the first width is in a range from 2,000 μm to 9,000 μm, the second width is in a range from 100 μm to 250 μm, a width of each second hole in the second direction is smaller than the first width of each first hole in the second direction, and the first holes are arranged in a zigzag form along the first direction. a display module having a first non-foldable area, a foldable area, and a second non-foldable area, which are arranged in a first direction in a unfolded state; a first support layer disposed under the display module and having a lattice pattern including a plurality of first holes and a plurality of second holes overlapping the foldable area, wherein the first holes are arranged in the first direction and a second direction intersecting the first direction, wherein the second holes are arranged in the first direction and the second direction and disposed between the first holes adjacent to each other in the first direction, wherein:each of the first holes has a first width in the second direction and a second width in the first direction, the first width is in a range from 2,000 μm to 9,000 μm, the second width is in a range from 100 μm to 250 μm, a width of each second hole in the second direction is smaller than the first width of each first hole in the second direction, and the first holes are arranged in a zigzag form along the first direction.
A system comprising: a charging circuit; a converter network; and a voltage regulator that couples the charging circuit to the converter network; the system being configured to operate in a charging mode and a communication mode, when the system is in the communication mode, the voltage regulator is configured to limit an amount of voltage discharge from the charging circuit, and the charging circuit is configured to power the converter network to (i) receive a serial communication signal (ii) convert the serial communication signal to a second signal having a second type, the second type having a different communication protocol than the serial communication signal, and (iii) transmit the second signal to a remote device; when the system is in the charging mode, the charging circuit is configured to receive the serial communication signal to charge the charging circuit; and the charging circuit is implemented by a battery-less circuit. a charging circuit; a converter network; and a voltage regulator that couples the charging circuit to the converter network; the system being configured to operate in a charging mode and a communication mode, when the system is in the communication mode, the voltage regulator is configured to limit an amount of voltage discharge from the charging circuit, and the charging circuit is configured to power the converter network to (i) receive a serial communication signal (ii) convert the serial communication signal to a second signal having a second type, the second type having a different communication protocol than the serial communication signal, and (iii) transmit the second signal to a remote device; when the system is in the charging mode, the charging circuit is configured to receive the serial communication signal to charge the charging circuit; and the charging circuit is implemented by a battery-less circuit. when the system is in the communication mode, the voltage regulator is configured to limit an amount of voltage discharge from the charging circuit, and the charging circuit is configured to power the converter network to (i) receive a serial communication signal (ii) convert the serial communication signal to a second signal having a second type, the second type having a different communication protocol than the serial communication signal, and (iii) transmit the second signal to a remote device; when the system is in the charging mode, the charging circuit is configured to receive the serial communication signal to charge the charging circuit; and the charging circuit is implemented by a battery-less circuit.
An interface structure for detachably interfacing a surgical robot arm to a surgical instrument, the interface structure comprising: a main body, the main body comprising an aperture (816, 817, 818) defining a linear path; and a cover covering a portion of the main body comprising the aperture, the cover comprising a slot (726, 727, 728) communicating with the aperture, the main body and the cover defining therebetween a channel; a drive transfer element (706, 707, 708) being movable relative to the main body along the linear path and within the channel so as to enable transfer of linear drive between the surgical robot arm and the surgical instrument, the drive transfer element comprising: a drive transfer element recess being releasably engageable with an interface protrusion (401, 402, 403, 930); and a drive transfer element protrusion being releasably engageable with an interface recess; the drive transfer element protrusion comprising a cavity in communication with the drive transfer element recess so as to enable the interface protrusion engageable with the drive transfer element recess to project into the cavity, wherein the drive transfer element comprises a central portion which comprises the drive transfer element protrusion and the drive transfer element recess, and an extending portion which extends from the central portion and is movable within said channel, the drive transfer element recess being provided to a first side of the extending portion and the drive transfer element protrusion being provided to a second side of the extending portion, the drive transfer element permitting the interface protrusion engageable therewith to project from the first side through to the second side. a main body, the main body comprising an aperture (816, 817, 818) defining a linear path; and a cover covering a portion of the main body comprising the aperture, the cover comprising a slot (726, 727, 728) communicating with the aperture, the main body and the cover defining therebetween a channel; a drive transfer element (706, 707, 708) being movable relative to the main body along the linear path and within the channel so as to enable transfer of linear drive between the surgical robot arm and the surgical instrument, the drive transfer element comprising: a drive transfer element recess being releasably engageable with an interface protrusion (401, 402, 403, 930); and a drive transfer element protrusion being releasably engageable with an interface recess; the drive transfer element protrusion comprising a cavity in communication with the drive transfer element recess so as to enable the interface protrusion engageable with the drive transfer element recess to project into the cavity, a drive transfer element recess being releasably engageable with an interface protrusion (401, 402, 403, 930); and a drive transfer element protrusion being releasably engageable with an interface recess; the drive transfer element protrusion comprising a cavity in communication with the drive transfer element recess so as to enable the interface protrusion engageable with the drive transfer element recess to project into the cavity,
A hairdryer (200, 670) comprising a handle (204, 206, 676, 677); a body (202, 670) comprising a central duct; a second fluid flow path (280, 680) extending through the central duct and from a second fluid inlet (270, 681) through which an entrained fluid flow enters the hairdryer to a second fluid outlet for emitting the entrained fluid flow from a front end, of the body; a primary fluid flow path (260,671) extending at least partially through the body from a primary fluid inlet (220, 674) through which a primary fluid flow enters the hairdryer to a primary fluid outlet (230, 675); a fan unit (250, 672) for drawing the primary fluid flow through the primary fluid inlet, and wherein the entrained fluid flow is drawn through the second fluid flow path by fluid emitted from the primary fluid outlet, and an attachment (10, 100, 190,600,800,850) for adjusting at least one parameter of fluid emitted from the hairdryer, the attachment being attachable to the hairdryer so that the attachment protrudes from the front end of the body wherein the attachment (10, 100, 190,600,800,850) is in the form of a nozzle defining a nozzle fluid flow path (60, 160, 660,854) extending from a nozzle fluid inlet (20, 120, 620,820,853) through which the primary fluid flow enters the nozzle to a nozzle fluid outlet (30, 130, 630,855,950) for emitting the primary fluid flow, and characterised in that the central duct extends through the body of the hairdryer between the second fluid inlet and the second fluid outlet, and the attachment is configured to inhibit the generation of the entrained fluid flow.
A method, comprising: obtaining, by a computing device, a history information of an electric vehicle, EV, charging station; calculating, by the computing device, a first reliability index based on the history information, wherein the first reliability index corresponds to reliability of the EV charging station during a first time period; calculating, by the computing device, a second reliability index based on the history information, wherein the second reliability index corresponds to reliability of the EV charging station during a second time period; calculating, by the computing device, a third reliability index based on the first reliability index and the second reliability index; and providing, by the computing device, the third reliability index to a user; wherein the calculating the first/second reliability index based on the history information comprises: assigning points to at least one reliability indicator based on the history information; and calculating the first/second reliability index based on the assigned points; wherein the at least one reliability indicator comprises at least a number of charges performed using the EV charging station shorter than a preconfigured minimum time threshold. obtaining, by a computing device, a history information of an electric vehicle, EV, charging station; calculating, by the computing device, a first reliability index based on the history information, wherein the first reliability index corresponds to reliability of the EV charging station during a first time period; calculating, by the computing device, a second reliability index based on the history information, wherein the second reliability index corresponds to reliability of the EV charging station during a second time period; calculating, by the computing device, a third reliability index based on the first reliability index and the second reliability index; and providing, by the computing device, the third reliability index to a user; wherein the calculating the first/second reliability index based on the history information comprises: assigning points to at least one reliability indicator based on the history information; and calculating the first/second reliability index based on the assigned points; wherein the at least one reliability indicator comprises at least a number of charges performed using the EV charging station shorter than a preconfigured minimum time threshold. assigning points to at least one reliability indicator based on the history information; and calculating the first/second reliability index based on the assigned points; wherein the at least one reliability indicator comprises at least a number of charges performed using the EV charging station shorter than a preconfigured minimum time threshold.
A data transmission method, applied to a data transmitting end, comprising: establishing a Service Data Adaptation Protocol, SDAP, entity in advance, according to configuration information which is configured by a network or pre-defined; wherein the configuration information comprises at least one of a network slice identifier, a Data Radio Bearer, DRB, identifier, a flow identifier, a session identifier, or association relationship indication information; and, indicating corresponding relationship information of the SDAP entity to an upper layer; wherein the corresponding relationship information comprises at least one of the network slice identifier, the DRB identifier, the flow identifier, the session identifier or an SDAP identifier; transmitting, by the upper layer, a data packet to the corresponding SDAP entity, according to at least one of the network slice identifier, the SDAP identifier, the flow identifier or the session identifier. establishing a Service Data Adaptation Protocol, SDAP, entity in advance, according to configuration information which is configured by a network or pre-defined; wherein the configuration information comprises at least one of a network slice identifier, a Data Radio Bearer, DRB, identifier, a flow identifier, a session identifier, or association relationship indication information; and, indicating corresponding relationship information of the SDAP entity to an upper layer; wherein the corresponding relationship information comprises at least one of the network slice identifier, the DRB identifier, the flow identifier, the session identifier or an SDAP identifier; transmitting, by the upper layer, a data packet to the corresponding SDAP entity, according to at least one of the network slice identifier, the SDAP identifier, the flow identifier or the session identifier.