mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing apparatus , comprising: a control circuity configured to: control communication with another information processing apparatus using a first communication mode; control communication with the another information processing apparatus using a second communication mode; establish a first connection with the another information processing apparatus using the first communication mode; and prompt the another processing apparatus to execute a process through the first connection after establishing the first connection with the another information processing apparatus but prior to completing, through the first connection, a second connection with the another information processing apparatus using the second communication mode, wherein the process comprises transmission of live-view image data to the information processing apparatus through the first connection. control communication with another information processing apparatus using a first communication mode; control communication with the another information processing apparatus using a second communication mode; establish a first connection with the another information processing apparatus using the first communication mode; and prompt the another processing apparatus to execute a process through the first connection after establishing the first connection with the another information processing apparatus but prior to completing, through the first connection, a second connection with the another information processing apparatus using the second communication mode, wherein the process comprises transmission of live-view image data to the information processing apparatus through the first connection.
A suspension ring for a multistrand lifting tackle, the suspension ring comprising two parallel rectilinear legs , the respective ends thereof are connected to one another by arcuate connecting legs , wherein the lower connecting leg is formed symmetrically with respect to the longitudinal center line (M-M) of the suspension ring , and extends as a curve shaped in form of a segment of a circle, both in the central region of the lower connecting leg extent and in the two transition regions in which the lower connecting leg transits into the respective one of the two legs , and wherein on the inside of the suspension ring the radii (r 1 , r 2 ) of the curves are greater than half the diameter (d) of the legs and the radii (r 2 ) of the curves at the transitions of the lower connecting leg into the two legs are smaller than half the internal width (B) of the suspension ring , characterized in that on the inside of the suspension ring the radius (r 1 ) of the segment of circle shaped central region is equally less than half the internal width (B) of the suspension ring , and, at each of its ends, the central region is connected to the respective transitional region , which is segment of circle shaped and transits into the adjacent leg there, via a rectilinear intermediate segment of the connecting leg , which intermediate segment is angled to the longitudinal center line (M-M) of the suspension ring at an angle ( δ ) in a range of from 50° to 75°.
A method for charging a battery, comprising: performing (S510), by a charging device, user authentication ; when the authentication is successfully complete, obtaining (S530), by the charging device, a meter identifier identifying which electricity meter performs charging, the electricity meter measuring power consumed in a charging station provided with power, thus identifying which electricity meter performs charging; transmitting (S540), by the charging device, a charging initiation request including the meter identifier and the charging identifier to a server; receiving (S550), by the charging device, a charging initiation response in response to the charging initiation request from the server; after receiving the charging initiation response, connecting (S560), by the charging device, the charging station with the battery to perform charging; upon completion of the charging, transmitting (S570), by the charging device, a charging completion message indicating power consumed for the charging to the server, the charging completion message including the charging identifier and the meter identifier; and receiving, (S580) by the charging device, charging information indicating billing information according to the charging of the battery from the server. performing (S510), by a charging device, user authentication ; when the authentication is successfully complete, obtaining (S530), by the charging device, a meter identifier identifying which electricity meter performs charging, the electricity meter measuring power consumed in a charging station provided with power, thus identifying which electricity meter performs charging; transmitting (S540), by the charging device, a charging initiation request including the meter identifier and the charging identifier to a server; receiving (S550), by the charging device, a charging initiation response in response to the charging initiation request from the server; after receiving the charging initiation response, connecting (S560), by the charging device, the charging station with the battery to perform charging; upon completion of the charging, transmitting (S570), by the charging device, a charging completion message indicating power consumed for the charging to the server, the charging completion message including the charging identifier and the meter identifier; and receiving, (S580) by the charging device, charging information indicating billing information according to the charging of the battery from the server.
A pod assembly (302; 402; 502) for an e-vapor apparatus , comprising: a first cap (304; 404) and an opposing second cap (314; 414), the second cap (314; 414) being wider or longer than the first cap (304; 404), the first cap (304; 404) and the second cap (314; 414) being transparent; a pod trim (310; 410) arranged between the first (304; 404) and the second (314; 414) cap, wherein the pod trim (310; 410) slants outwards from the first (304; 404) to the second cap (314; 414); a vapor precursor compartment configured to hold a vapor precursor therein; a device compartment in fluidic communication with the vapor precursor compartment; and a vapor channel (308; 408) extending from the device compartment and through the vapor precursor compartment such that the vapor precursor compartment surrounds the vapor channel (308; 408). a first cap (304; 404) and an opposing second cap (314; 414), the second cap (314; 414) being wider or longer than the first cap (304; 404), the first cap (304; 404) and the second cap (314; 414) being transparent; a pod trim (310; 410) arranged between the first (304; 404) and the second (314; 414) cap, wherein the pod trim (310; 410) slants outwards from the first (304; 404) to the second cap (314; 414); a vapor precursor compartment configured to hold a vapor precursor therein; a device compartment in fluidic communication with the vapor precursor compartment; and a vapor channel (308; 408) extending from the device compartment and through the vapor precursor compartment such that the vapor precursor compartment surrounds the vapor channel (308; 408).
A system for laparoscopic placement of a cuff around a target biological structure, the system comprising: a guidewire configured to be insertable through an incision in a patient underneath an exterior surface of the target biological structure; a ramp device configured to be guided over the guidewire, the ramp device having a curvature with respect to a long axis of the guidewire and being configured to partly support the target biological structure; and a cuff deployment tool configured to be guided over the guidewire to engage the ramp device, the cuff deployment tool comprising an interior volume and a cuff positioned within the interior volume, wherein the cuff deployment tool is operable to move the cuff from within the interior volume to an extended position, in which at least part of the cuff extends along the curvature of the ramp device onto the target biological structure. a guidewire configured to be insertable through an incision in a patient underneath an exterior surface of the target biological structure; a ramp device configured to be guided over the guidewire, the ramp device having a curvature with respect to a long axis of the guidewire and being configured to partly support the target biological structure; and a cuff deployment tool configured to be guided over the guidewire to engage the ramp device, the cuff deployment tool comprising an interior volume and a cuff positioned within the interior volume, wherein the cuff deployment tool is operable to move the cuff from within the interior volume to an extended position, in which at least part of the cuff extends along the curvature of the ramp device onto the target biological structure.
A printer dryer device , comprising: a first drying unit (12 1 , 12 2 , ...12 k ), wherein the first drying unit (12 1 , 122, ...12 k ) comprises a first plurality of energy emitting elements (L nk ) to dry a printing substance on a printing medium ; wherein the first plurality of energy emitting elements (L nk ) are electrically connected in series in the first drying unit (12 1 , 12 2 , ...12 k ); and a second drying unit (12' 1 , 12' 2 , ...12' k ), wherein the second drying unit (12' 1 , 12' 2 , ...12' k ) comprises a second plurality of energy emitting elements (L' nk ) to dry the printing substance on the printing medium ; wherein the second drying unit (12' 1 , 12' 2 , ...12' k ) is arranged downstream from the first drying unit (12' 1 , 12' 2 , ...12' k ) in a medium transport direction (X) of the printing medium ; wherein the second plurality of energy emitting elements (L' nk ) are electrically connected in series in the second drying unit (12' 1 , 12' 2 , ...12' k ); and characterized in that the first drying unit (12 1 , 12 2 , ...12 k ) and the second drying unit (12' 1 , 12' 2 , ...12' k ) are electrically connected in parallel between a common voltage source (V cc ) and a driver unit . a first drying unit (12 1 , 12 2 , ...12 k ), wherein the first drying unit (12 1 , 122, ...12 k ) comprises a first plurality of energy emitting elements (L nk ) to dry a printing substance on a printing medium ; wherein the first plurality of energy emitting elements (L nk ) are electrically connected in series in the first drying unit (12 1 , 12 2 , ...12 k ); and a second drying unit (12' 1 , 12' 2 , ...12' k ), wherein the second drying unit (12' 1 , 12' 2 , ...12' k ) comprises a second plurality of energy emitting elements (L' nk ) to dry the printing substance on the printing medium ; wherein the second drying unit (12' 1 , 12' 2 , ...12' k ) is arranged downstream from the first drying unit (12' 1 , 12' 2 , ...12' k ) in a medium transport direction (X) of the printing medium ; wherein the second plurality of energy emitting elements (L' nk ) are electrically connected in series in the second drying unit (12' 1 , 12' 2 , ...12' k ); and characterized in that the first drying unit (12 1 , 12 2 , ...12 k ) and the second drying unit (12' 1 , 12' 2 , ...12' k ) are electrically connected in parallel between a common voltage source (V cc ) and a driver unit .
A timepiece comprising a case containing a movement, at least one device for generating vibrations intended to produce at least one sound, at least one device for amplifying the vibrations generated by said vibration-generating device, said device for amplifying the vibrations comprising a lever linked to a support by an articulation about a single axis of rotation , said lever being arranged to be actuated by a transmission member cooperating with the vibration-generating device to transmit the vibrations to said lever in order to make said lever pivot with respect to its support according to a vibration movement around its axis of rotation , the device for amplifying the vibrations comprising at least one plate arranged to cooperate with the lever in order to be displaced according to a vibration movement, the timepiece being characterized in that said plate is housed in the case so as to form a free space on the periphery of said plate over at least 70%, preferably at least 80%, of the perimeter of said plate .
Device holder cup for electrical installation devices with in each case at least one protrusion on opposite end walls of the device holder cup , wherein the protrusions are provided for inserting the device holder cup in mounting openings of click ladders of an underfloor cassette, characterized in that on at least one end wall of the device holder cup in the vicinity of the at least one protrusion is provided a lever rotatable relative to the device holder cup for locking the device holder cup on click ladders , wherein a locking section of the lever in a first release position is disposed flush to the at least one protrusion , and the locking section of the lever in an intermediate position is still disposed flush between the protrusions , however, between said locking section and the end wall an intermediate space is formed and in a second locking position said locking position is disposed obliquely or perpendicular to the protrusion , in order to engage behind the mounting opening of the underfloor cassette.
Method of operating an electric arc furnace , the method comprising: - capturing a heated metallurgical gas comprising water and carbon monoxide, from at least one facility of a steel mill ; - conducting said metallurgical gas to a reactor through a reactor supply line ; - transforming the carbon monoxide and water into hydrogen and carbon dioxide according to a water-gas shift reaction, by a treatment of said metallurgical gas within said reactor , and subsequently - separating said hydrogen by a separation device ; characterized in that said method further comprises: - providing an iron-bearing material, which comprises iron mainly in the form of iron oxide, to the electric arc furnace ; - at least partially melting the iron-bearing material to obtain a molten bath; - conducting said hydrogen through a furnace supply line to the electric arc furnace , which is arranged downstream of the furnace supply line ; and - injecting said hydrogen into the molten bath in said electric arc furnace by means of a plurality of hydrogen injection devices such that said hydrogen acts as a reducing agent for reducing iron oxide in the molten bath during a smelting operation of the electric arc furnace . - capturing a heated metallurgical gas comprising water and carbon monoxide, from at least one facility of a steel mill ; - conducting said metallurgical gas to a reactor through a reactor supply line ; - transforming the carbon monoxide and water into hydrogen and carbon dioxide according to a water-gas shift reaction, by a treatment of said metallurgical gas within said reactor , and subsequently - separating said hydrogen by a separation device ; - providing an iron-bearing material, which comprises iron mainly in the form of iron oxide, to the electric arc furnace ; - at least partially melting the iron-bearing material to obtain a molten bath; - conducting said hydrogen through a furnace supply line to the electric arc furnace , which is arranged downstream of the furnace supply line ; and - injecting said hydrogen into the molten bath in said electric arc furnace by means of a plurality of hydrogen injection devices such that said hydrogen acts as a reducing agent for reducing iron oxide in the molten bath during a smelting operation of the electric arc furnace .
A sound capture device comprising two nonconcentric rings of directional microphone capsules, each ring defining a plane that is oriented at an angle of at least 70 degrees relative to a notional reference axis passing through the centres of the two nonconcentric rings, and each location that is off the reference axis having an azimuthal angle around the reference axis, wherein the device has a notional equatorial plane that lies symmetrically between the two rings of capsules, and the equatorial plane intersects the reference axis at a central point; wherein the centre-to-centre distance of each microphone capsule to its nearest neighbour capsule within the same ring is less than one wavelength at an audio frequency of 4 kHz; wherein each of the two rings contains n directional microphone capsules, with n ≥ 3; and, wherein each microphone capsule is intrinsically responsive to both pressure and velocity and has a direction of maximum intrinsic sensitivity that forms a nonzero angle with a vector from the central point to that capsule and that also forms an acute angle with a vector from the respective ring centre to that capsule, characterised in that each directional microphone capsule is tilted such that its direction of maximum intrinsic sensitivity points towards the equatorial plane. wherein the device has a notional equatorial plane that lies symmetrically between the two rings of capsules, and the equatorial plane intersects the reference axis at a central point; wherein the centre-to-centre distance of each microphone capsule to its nearest neighbour capsule within the same ring is less than one wavelength at an audio frequency of 4 kHz; wherein each of the two rings contains n directional microphone capsules, with n ≥ 3; and, wherein each microphone capsule is intrinsically responsive to both pressure and velocity and has a direction of maximum intrinsic sensitivity that forms a nonzero angle with a vector from the central point to that capsule and that also forms an acute angle with a vector from the respective ring centre to that capsule, characterised in that each directional microphone capsule is tilted such that its direction of maximum intrinsic sensitivity points towards the equatorial plane.
A system for obtaining a blood glucose (BG) measurement of a patient, comprising, a glucose measurement device configured to provide a readout; an insulin delivery device configured to provide said insulin delivery information; and a processor , wherein said processor is configured to provide: a first intermediary computation that provides an output of said first intermediary computation using said readout (CGS(t)) from said glucose measurement device of a subject and said insulin delivery information ( J ctrl ( t )) , wherein said output of said first intermediary computation provides a metabolic state estimate ( x̂ ( t- τ)) and a second intermediary computation that provides an output of said second intermediary computation ( BG ( t | t - τ )) using said output of said first intermediary computation ( x̂ ( t-τ )), wherein BG(t|t-τ) is the predicted blood glucose; wherein said processor is further configured to provide a third computation to reach an estimate of the blood glucose ( BGest(t) ) of the subject by applying a weighting scheme to said readout from the glucose measurement device and said output of said second intermediary computation, wherein said weighting scheme further comprises: an application of a first weighting coefficient ( w 1 ) to said readout (CGS(t)) from the glucose measurement device and applying a second weighting coefficient ( w 2 ) to said output of said second intermediary computation. a first intermediary computation that provides an output of said first intermediary computation using said readout (CGS(t)) from said glucose measurement device of a subject and said insulin delivery information ( J ctrl ( t )) , wherein said output of said first intermediary computation provides a metabolic state estimate ( x̂ ( t- τ)) and a second intermediary computation that provides an output of said second intermediary computation ( BG ( t | t - τ )) using said output of said first intermediary computation ( x̂ ( t-τ )), wherein BG(t|t-τ) is the predicted blood glucose; wherein said processor is further configured to provide a third computation to reach an estimate of the blood glucose ( BGest(t) ) of the subject by applying a weighting scheme to said readout from the glucose measurement device and said output of said second intermediary computation, wherein said weighting scheme further comprises: an application of a first weighting coefficient ( w 1 ) to said readout (CGS(t)) from the glucose measurement device and applying a second weighting coefficient ( w 2 ) to said output of said second intermediary computation.
A branch lumen stent suitable for implantation into a main body lumen stent , comprising a tube body and a skirt arranged on the tube body with the skirt surrounding the tube body , the tube body having an outer surface, wherein the skirt comprises a flexible connecting section and a stent graft , the flexible connecting section having a distal end and a proximal end, and the stent graft having a proximal end, wherein the proximal end of the flexible connecting section is connected with the stent graft , and the distal end of the flexible connecting section is sealed and connected with the outer surface of the tube body , and wherein the proximal end of the stent graft is suspended and provided with a first radial support structure , wherein when implanted, the flexible connecting section actuates the stent graft to bend under radial compression of the branch lumen so that the first radial support structure is approximately perpendicular relative to the axial direction of the tube body , and can be adhered to the inner tube wall of the main body lumen stent . wherein the proximal end of the flexible connecting section is connected with the stent graft , and the distal end of the flexible connecting section is sealed and connected with the outer surface of the tube body , and wherein the proximal end of the stent graft is suspended and provided with a first radial support structure , wherein when implanted, the flexible connecting section actuates the stent graft to bend under radial compression of the branch lumen so that the first radial support structure is approximately perpendicular relative to the axial direction of the tube body , and can be adhered to the inner tube wall of the main body lumen stent .