mhurhangee/patent-ind-claim-en huggingface dataset:
A method for sterilizing a blow molding machine, comprising: filling a liquid sterilizer into preforms , supplying to a heating unit of a blow molding machine the preforms into which the liquid sterilizer is filled that are of at least a same number as a number of spindles that hold the preforms that travel through the heating unit of the blow molding machine, activating and diffusing some of the liquid sterilizer in the heating unit , sterilizing locations that the diffused liquid sterilizer contacts, blasting blow air into the heated preforms in a state in which the liquid sterilizer remains in the preforms , causing the liquid sterilizer to diffuse inside a molding unit of the blow molding machine, molding the preforms into bottles , and discharging the bottles that are molded.
A compact radio-frequency quadrupole 'RFQ' accelerator for accelerating charged particles, the RFQ accelerator comprising: a bunching section configured to have a narrow radio-frequency 'rf' acceptance such that only a portion of an unbunched particle beam incident on the bunching section is captured, and wherein the bunching section bunches the portion of the particle beam; an accelerating section for accelerating the bunched portion of the particle beam to an output energy; and, a means for supplying radio-frequency power ; wherein the narrow rf acceptance is caused by an input of the bunching section having a synchronous phase of greater than -50 degrees; characterised in that the means for supplying radio-frequency power is configured to supply power at a frequency of greater than 500 MHz. a bunching section configured to have a narrow radio-frequency 'rf' acceptance such that only a portion of an unbunched particle beam incident on the bunching section is captured, and wherein the bunching section bunches the portion of the particle beam; an accelerating section for accelerating the bunched portion of the particle beam to an output energy; and, a means for supplying radio-frequency power ; wherein the narrow rf acceptance is caused by an input of the bunching section having a synchronous phase of greater than -50 degrees; characterised in that the means for supplying radio-frequency power is configured to supply power at a frequency of greater than 500 MHz.
Rudder blade , in particular for a semi-balanced rudder or a full-spade rudder, for watercrafts, in particular ships, comprising a leading edge , a trailing edge , a first side wall and a second side wall located opposite the first side wall , and a rudder blade hub arranged in a connection space for connecting a rudder stock, wherein the rudder blade hub has a hub body , wherein the hub body has an inner bore for receiving a rudder stock and an outer hub surface running in the circumferential direction, wherein the connection space is provided inside the rudder blade , characterized in that the outer hub surface is completely spaced apart from an inner side of the first side wall and from an inner side of the second side wall .
A method of updating an application on a device comprising: storing a current version of personalization data from a current edition of an application installed on the device, the current version of personalization data being stored within a secure element of the device; deleting the current edition of the application after the current version of personalization data is stored; installing a migration application on the secure element of the device after deleting the current edition of the application, the migration application occupying at least a portion of the memory space freed by deleting the current edition of the application, wherein the migration application has a matrix of conversions from a plurality of past editions of the application to a next edition of the application ; updating, via the migration application, the current version of personalization data to a next version of personalization data to meet a requirement of the next edition of the application to be installed on the device; deleting the migration application from the secure element after the migration application completes updating the current version of personalization data to the next version of personalization data; installing the next edition of the application, the next edition of the application occupying at least a portion of the memory space freed by deleting the migration application; and importing the next version of personalization data to the next edition of the application. storing a current version of personalization data from a current edition of an application installed on the device, the current version of personalization data being stored within a secure element of the device; deleting the current edition of the application after the current version of personalization data is stored; installing a migration application on the secure element of the device after deleting the current edition of the application, the migration application occupying at least a portion of the memory space freed by deleting the current edition of the application, wherein the migration application has a matrix of conversions from a plurality of past editions of the application to a next edition of the application ; updating, via the migration application, the current version of personalization data to a next version of personalization data to meet a requirement of the next edition of the application to be installed on the device; deleting the migration application from the secure element after the migration application completes updating the current version of personalization data to the next version of personalization data; installing the next edition of the application, the next edition of the application occupying at least a portion of the memory space freed by deleting the migration application; and importing the next version of personalization data to the next edition of the application.
A printable recording media comprising: a. a composite base substrate that contains, at least, two constituent material layers, that are fiber layers, and that are laminated together with a flame resistant adhesion layer, containing an adhesive compound and up to 50 % of a flame retardant agent by total weight of the flame resistant adhesion layer; b. and an image receiving layer that is coated on one side of the composite supporting substrate. a. a composite base substrate that contains, at least, two constituent material layers, that are fiber layers, and that are laminated together with a flame resistant adhesion layer, containing an adhesive compound and up to 50 % of a flame retardant agent by total weight of the flame resistant adhesion layer; b. and an image receiving layer that is coated on one side of the composite supporting substrate.
A leadless cardiac pacemaker (LCP) configured to sense cardiac activity and to deliver pacing therapy to a patient's heart, the LCP comprising: a housing ; a first electrode secured relative to the housing and exposed to the environment outside of the housing ; a second electrode secured relative to the housing and responsive to the environment outside of the housing ; a sensing module disposed within the housing and exposed to the environment outside of the housing , the sensing module configured to detect one or more atrial fiducials that are indicative of an atrial contraction; a control module operatively coupled to the first electrode , the second electrode , and the sensing module, the control module is configured to: track the one or more detected atrial fiducials that are indicative of an atrial contraction over a plurality of cardiac cycles; deliver a plurality of different ventricular pacing therapies to the patient's heart via the first electrode and the second electrode , wherein the control module selects which ventricular pacing therapy to deliver based, at least in part, on one or more of the tracked atrial fiducials. a housing ; a first electrode secured relative to the housing and exposed to the environment outside of the housing ; a second electrode secured relative to the housing and responsive to the environment outside of the housing ; a sensing module disposed within the housing and exposed to the environment outside of the housing , the sensing module configured to detect one or more atrial fiducials that are indicative of an atrial contraction; a control module operatively coupled to the first electrode , the second electrode , and the sensing module, the control module is configured to: track the one or more detected atrial fiducials that are indicative of an atrial contraction over a plurality of cardiac cycles; deliver a plurality of different ventricular pacing therapies to the patient's heart via the first electrode and the second electrode , wherein the control module selects which ventricular pacing therapy to deliver based, at least in part, on one or more of the tracked atrial fiducials. track the one or more detected atrial fiducials that are indicative of an atrial contraction over a plurality of cardiac cycles; deliver a plurality of different ventricular pacing therapies to the patient's heart via the first electrode and the second electrode , wherein the control module selects which ventricular pacing therapy to deliver based, at least in part, on one or more of the tracked atrial fiducials.
A method for transmitting data sent from at least one connected object (11 to 14) to an addressee (21 to 23) via a transmission architecture consisting of at least one low-rate network , access to which is governed by metadata, and comprising the following successive steps of processing said data in bottom transmission layers of the architecture : encoding of the data as messages (B; B i , B i+1 ) and division of each message (B; B i , B i+1 ) into segments (C; Cu; C1 to C5; C1, ..., Ci, ..., Cz) including a first segment (C1, Cu) followed, where applicable, by at least one intermediate segment (C2 to C4; Ci), and by a last segment (C2; Cz); encapsulation of each segment (C; C1 to C5; C1, ..., Ci, ..., Cz) in a packet (D; D1 to D5) provided with a header (D0); routeing of the packets (D; D1 to D5) via base stations in at least one network in the architecture , and reconstruction of each message (B; B i , B i+1 ) from the packets (D; D1 to D5) received and then transmission of each reconstituted message to the addressee (21 to 23) from this control server , this method being characterised in that the reconstitution of each message (B; B i , B i+1 ) is based on a modulation of the sending of the packets (D; D1 to D5) of this message (B; B i , B i+1 ) at successive time intervals defined by no more than four sending periods of specific durations, wherein said four sending periods of specific durations are a period (dT0) dedicated to the sending of a last segment (Cz) in the case of the division of a message into two segments (C1, Cz), a first period (dT1) between the first segment (C1) and the first (C2) or only intermediate segment (Ci) in the case of the division of a message (B) into more than two segments, a second period between an intermediate segment (C2; C3) and the intermediate segment (C3; C4) that follows it in the case of division into more than three segments, and a third period between one of the intermediate segments (C4) or the only intermediate segment (Ci) and the last segment (C5; Cz) in the case of the division of a message into more than two segments, or wherein in place of the dedicated period (dT0) and the first sending period (dT1) of specific durations, the header (D0) of each packet (D; D1 to D5) includes a bit (I D ) for distinguishing between the first segment (C1) and the other segments (C2 to C5; C2, ..., Ci, ..., Cz) in order to identify this first segment (C1), the number of periods of specific duration then being reduced to two, namely the second (dT2) and third periods (dT3).
A solid state power controller comprising: a plurality of pairs of FETs connected in parallel, each pair comprising a first, forward-facing FET (M1, M2, M6) and a second, backward-facing FET (M3, M4, M5) connected by their respective sources; gate drive means for switching said FETs on and off; characterised in that the gate drive means are further configured to cause the plurality of pairs of FETs to clamp the voltage across the plurality of pairs of FETs; wherein the solid state power controller further comprises means (R2, R3, R4, R5) for connecting the gate drive means and isolating the sources of the backwards-facing FETs of the plurality of pairs of FETs from each other and wherein the gate drive means are further configured to operate the backwards-facing FETs in 3 rd quadrant operation mode as a resistance while the plurality of pairs of FETs clamps the voltage. a plurality of pairs of FETs connected in parallel, each pair comprising a first, forward-facing FET (M1, M2, M6) and a second, backward-facing FET (M3, M4, M5) connected by their respective sources; gate drive means for switching said FETs on and off; characterised in that the gate drive means are further configured to cause the plurality of pairs of FETs to clamp the voltage across the plurality of pairs of FETs; wherein the solid state power controller further comprises means (R2, R3, R4, R5) for connecting the gate drive means and isolating the sources of the backwards-facing FETs of the plurality of pairs of FETs from each other and wherein the gate drive means are further configured to operate the backwards-facing FETs in 3 rd quadrant operation mode as a resistance while the plurality of pairs of FETs clamps the voltage.
A haptic feedback system including: a plurality of remote transmitters that are remote from a location of interest on a surface of the system; and a signal generator arranged to generate a corresponding haptic feedback signal for each of the remote transmitters , wherein the remote transmitters propagate the corresponding feedback haptic signals through a medium of the surface and the haptic feedback signals interfere at the location of interest such that a localized disturbance is generated at the location of interest, and generating the corresponding haptic feedback signals includes modifying location based signal parameters using one or more calibration factors; wherein at least one of the remote transmitters is configured to transmit an ultrasonic touch location signal and the ultrasonic touch location signal is allowed to freely propagate through the medium of the surface of the system; and a receiver that is configured to receive a signal including the ultrasonic touch location signal that has been propagated through the medium of the surface and disturbed by a touch input on the surface, wherein the system is arranged to process the received signal to determine a location of the touch input on the surface and wherein the receiver utilized to determine the location of the touch input is utilized to determine the one or more calibration factors utilized in generating the haptic feedback signals. a plurality of remote transmitters that are remote from a location of interest on a surface of the system; and a signal generator arranged to generate a corresponding haptic feedback signal for each of the remote transmitters , wherein the remote transmitters propagate the corresponding feedback haptic signals through a medium of the surface and the haptic feedback signals interfere at the location of interest such that a localized disturbance is generated at the location of interest, and generating the corresponding haptic feedback signals includes modifying location based signal parameters using one or more calibration factors; wherein at least one of the remote transmitters is configured to transmit an ultrasonic touch location signal and the ultrasonic touch location signal is allowed to freely propagate through the medium of the surface of the system; and a receiver that is configured to receive a signal including the ultrasonic touch location signal that has been propagated through the medium of the surface and disturbed by a touch input on the surface, wherein the system is arranged to process the received signal to determine a location of the touch input on the surface and wherein the receiver utilized to determine the location of the touch input is utilized to determine the one or more calibration factors utilized in generating the haptic feedback signals.
Head-up display having a light source , a display element , at least one mirror , a photodiode and a mirror element , wherein the head-up display furthermore has an illumination homogenization element arranged between the light source and the mirror , characterized in that the at least one mirror has a mirror surface which has a hole at at least one location and the photodiode is arranged in the beam path of the light that is coming from the light source and passing through the hole .
A cap suitable for a can container having a mouth portion with a jaw portion , a male screw portion , and a curl portion on an outer peripheral surface thereof from the bottom surface side of the can container toward the end portion, the cap comprising: a cap body including a disk-shaped top plate portion and a cylindrical skirt portion provided at a peripheral edge portion of the top plate portion ; and a disk-shaped sealing member including a sliding layer and a sealing layer , the sliding layer disposed on the top plate portion side and having a thin portion thinner than at least a center side provided on an outer peripheral edge side, and the sealing layer provided on a main surface opposite to the top plate portion side of the sliding layer and sealing a mouth portion of the can container , wherein the skirt portion includes a plurality of knurl portions , characterized in that the thin portion is provided at a position facing a base point of deformation of the top plate portion when a corner portion of the cap body is being drawn, and an outer diameter of the sliding layer is smaller than an inner diameter of the skirt portion , larger than the inscribed circle of the plurality of the knurl portions , and larger than the outer diameter of the curl portion of the mouth portion . a cap body including a disk-shaped top plate portion and a cylindrical skirt portion provided at a peripheral edge portion of the top plate portion ; and a disk-shaped sealing member including a sliding layer and a sealing layer , the sliding layer disposed on the top plate portion side and having a thin portion thinner than at least a center side provided on an outer peripheral edge side, and the sealing layer provided on a main surface opposite to the top plate portion side of the sliding layer and sealing a mouth portion of the can container , wherein the skirt portion includes a plurality of knurl portions , characterized in that the thin portion is provided at a position facing a base point of deformation of the top plate portion when a corner portion of the cap body is being drawn, and an outer diameter of the sliding layer is smaller than an inner diameter of the skirt portion , larger than the inscribed circle of the plurality of the knurl portions , and larger than the outer diameter of the curl portion of the mouth portion .
A cover for providing a seal over a tissue site, the cover comprising: a polyurethane layer ; an acrylic adhesive coupled to and coextensive with the polyurethane layer ; a silicone adhesive coupled to and coextensive with the acrylic adhesive ; a plurality of openings extending through the silicone adhesive , each opening having a first diameter opposite the acrylic adhesive and a second diameter adjacent the acrylic adhesive ; and wherein the acrylic adhesive extends at least partially through the plurality of openings , wherein the second diameter is larger than the first diameter. a polyurethane layer ; an acrylic adhesive coupled to and coextensive with the polyurethane layer ; a silicone adhesive coupled to and coextensive with the acrylic adhesive ; a plurality of openings extending through the silicone adhesive , each opening having a first diameter opposite the acrylic adhesive and a second diameter adjacent the acrylic adhesive ; and wherein the acrylic adhesive extends at least partially through the plurality of openings , wherein the second diameter is larger than the first diameter.
Handle assembly intended to be secured on an opening leaf , comprising at least: - a first handle comprising at least one recess , - a square spindle extending along a longitudinal axis and configured to be housed at least partially in the recess of the first handle , in an initial configuration, the first handle is configured to slide freely along the longitudinal axis of the square spindle over a given distance, said handle assembly being characterized in that the first handle is configured to pass from the initial configuration to a securing configuration in which the first handle is immobilized in translation and in at least one direction of rotation with respect to the square spindle , by at least one displacement in rotation of the first handle about the longitudinal axis of the square spindle by an angle strictly less than 360°. - a first handle comprising at least one recess , - a square spindle extending along a longitudinal axis and configured to be housed at least partially in the recess of the first handle ,
A method for use of a wireless terminal device comprising: transmitting a Probe request frame by using a quasi-omni antenna pattern if beam-forming training with a wireless base station device is not completed; selecting the wireless base station device as a connection destination if a Probe response frame corresponding to the Probe request frame is received from the wireless base station device , characterized by performing the beam-forming training with the wireless base station device if the Probe response frame is not received from the wireless base station device. transmitting a Probe request frame by using a quasi-omni antenna pattern if beam-forming training with a wireless base station device is not completed; selecting the wireless base station device as a connection destination if a Probe response frame corresponding to the Probe request frame is received from the wireless base station device , characterized by performing the beam-forming training with the wireless base station device if the Probe response frame is not received from the wireless base station device.
A co-located ePDG and PGW network node , comprising: an Evolved Packet Data Gateway, ePDG, functionality module ; a Packet Data Network, PDN, Gateway, PGW, functionality module co-located with the ePDG functionality module ; the ePDG functionality module having an SWn interface configured for interfacing with an untrusted non-3GPP network; and the ePDG functionality module having an interface toward the PGW functionality module configured for transporting IP packet data without encapsulation, characterized in that the ePDG functionality module includes an S2b-C' interface toward the PGW functionality module for transporting control plane signaling data according to one of GPRS Tunneling Protocol-Control Plane, GTP-C, and Proxy Mobile IPv6, PMIPv6, protocol.
A shaker bottle comprising a vessel for retaining a liquid volume having a bottom and an open top; a lid for closing said vessel at the open top; and a container for storing a powder supplement, wherein the container has a cylindrical shape with a bottom and an open top that is closed by a lower surface of the lid when the container is arranged to means fixed to said lower surface and is releasably arranged to said means; and the container comprises a protrusion integrally made with said bottom , which faces said lower surface of the lid ; and the lid comprises a webbing , which is arranged in abutment with the protrusion of the container when the container is arranged to the means of the lid , and a button that is arranged on the webbing and is protruding upwardly through a bore of the lid , the container being released when the button is pressed; and the vessel is foldable for providing a folded state of the shaker bottle , wherein the container is received by the bottom of the vessel in the folded state when arranged to said means .