mhurhangee/patent-ind-claim-en huggingface dataset:
A soft material retractor , comprising: at least two soft actuators , each actuator comprising at least one pressurizable interior space, wherein the actuator comprises a first flexible resting state and a second stiffer pressurized state; and a flexible sheet spanning the actuators such that the actuators can be spaced apart from each other by a distance (D) selected to displace a volume of material of a body cavity, wherein the soft material retractor further comprises a flexible sleeve secured to the flexible sheet, characterised in that the at least two actuators are housed within the flexible sleeve . at least two soft actuators , each actuator comprising at least one pressurizable interior space, wherein the actuator comprises a first flexible resting state and a second stiffer pressurized state; and a flexible sheet spanning the actuators such that the actuators can be spaced apart from each other by a distance (D) selected to displace a volume of material of a body cavity,
A method for generating a diagnostic from detecting a deviation in a flow meter parameter of a Coriolis flow meter , comprising steps of: measuring a differential pressure across the Coriolis flow meter ; determining a measured flow rate by measuring a mass flow rate with the Coriolis flow meter; characterized by : calculating an expected fluid flow rate based on the differential pressure by characterizing the Coriolis flow meter as an orifice meter; and comparing the measured flow rate to the calculated fluid flow rate and detecting a deviation in the flow meter parameter if the difference between the measured flow rate and the calculated fluid flow rate exceeds a threshold limit; wherein the deviation in the flow meter parameter indicates the presence of a coating in the Coriolis flow meter . measuring a differential pressure across the Coriolis flow meter ; determining a measured flow rate by measuring a mass flow rate with the Coriolis flow meter; characterized by : calculating an expected fluid flow rate based on the differential pressure by characterizing the Coriolis flow meter as an orifice meter; and comparing the measured flow rate to the calculated fluid flow rate and detecting a deviation in the flow meter parameter if the difference between the measured flow rate and the calculated fluid flow rate exceeds a threshold limit; wherein the deviation in the flow meter parameter indicates the presence of a coating in the Coriolis flow meter . calculating an expected fluid flow rate based on the differential pressure by characterizing the Coriolis flow meter as an orifice meter; and comparing the measured flow rate to the calculated fluid flow rate and detecting a deviation in the flow meter parameter if the difference between the measured flow rate and the calculated fluid flow rate exceeds a threshold limit; wherein the deviation in the flow meter parameter indicates the presence of a coating in the Coriolis flow meter .
Apparatus for heating plastic preforms , with a transport device which transports the plastic preforms along a predefined transport path (P), wherein this transport device has a plurality of holding elements for holding the plastic preforms , and with at least one first heating section which is arranged along said transport path (P), and at least one second heating section which is arranged along said transport path (P) downstream of the first heating section , wherein the heating sections each comprise a plurality of independently controllable heating elements which allow heating of the plastic preforms in several heating zones, lying above each other in the longitudinal direction of the plastic preforms, with a temperature profile which changes in the longitudinal direction of the plastic preforms , wherein the apparatus comprises a control device for controlling these heating sections, wherein the apparatus has an input device via which a user can predefine a set value for the individual heating zones, and a control device is provided which automatically actuates the individual heating elements taking account of a set value of the lamp power and/or a set value which is characteristic of the lamp power, characterized in that the apparatus is set up in such a way that the user merely applies a temperature specification and the processor device then automatically calculates whether and how many heating elements , e.g. heating lamps, must be activated in which layers.
Method for controlling a wire electrical discharge machining (WEDM) process, in which the wire traveling speed (V W ) is adapted in-process, characterized in that the method comprises the following steps: a. determining the position (z Di , Z Li ) of a plurality of discharges along the engagement line of a wire and a work piece , b. determining the size of a crater provoked at the wire by said plurality of discharges, c. creating a real time wire wearing model based on i. the position of said plurality of discharges along the engagement line of the wire and the work piece, and ii. the size of the crater occurring at each said determined position along the engagement line of a wire and a work piece, and iii. the current wire traveling speed, d. continuously comparing the wire wearing model with one or more wire wearing limits, and e. adjusting the wire traveling speed according to the comparison of the actual wire wearing model and the one or more wire wearing limits. a. determining the position (z Di , Z Li ) of a plurality of discharges along the engagement line of a wire and a work piece , b. determining the size of a crater provoked at the wire by said plurality of discharges, c. creating a real time wire wearing model based on i. the position of said plurality of discharges along the engagement line of the wire and the work piece, and ii. the size of the crater occurring at each said determined position along the engagement line of a wire and a work piece, and iii. the current wire traveling speed, i. the position of said plurality of discharges along the engagement line of the wire and the work piece, and ii. the size of the crater occurring at each said determined position along the engagement line of a wire and a work piece, and iii. the current wire traveling speed, d. continuously comparing the wire wearing model with one or more wire wearing limits, and e. adjusting the wire traveling speed according to the comparison of the actual wire wearing model and the one or more wire wearing limits.
A method for wireless communications performed by a user equipment, UE , comprising: identifying a first uplink transmission parameter associated with an uplink transmission timeline for an upcoming uplink communication to a base station , the first uplink transmission parameter associated with an amount of data to be transmitted in the upcoming uplink communication; initiating processing of the uplink transmission prior to receiving an uplink grant from the base station based on the identified first uplink transmission parameter; receiving the uplink grant from the base station; transmitting , responsive to receiving the uplink grant, the uplink communication to the base station according to the uplink transmission timeline; receiving a feedback communication from the base station that indicates the uplink communication was unsuccessfully received at the base station and receiving a retransmission uplink grant from the base station, the retransmission uplink grant having a second uplink transmission parameter associated with a second uplink transmission timeline, the second uplink transmission timeline being reduced relative to the uplink transmission timeline; preparing a retransmission of the uplink communication responsive to the feedback communication; and retransmitting , responsive to receiving the uplink retransmission grant, a retransmission of the uplink communication according to the second uplink transmission timeline, wherein the transmission and retransmission of the uplink communication are completed within a predetermined latency budget. identifying a first uplink transmission parameter associated with an uplink transmission timeline for an upcoming uplink communication to a base station , the first uplink transmission parameter associated with an amount of data to be transmitted in the upcoming uplink communication; initiating processing of the uplink transmission prior to receiving an uplink grant from the base station based on the identified first uplink transmission parameter; receiving the uplink grant from the base station; transmitting , responsive to receiving the uplink grant, the uplink communication to the base station according to the uplink transmission timeline; receiving a feedback communication from the base station that indicates the uplink communication was unsuccessfully received at the base station and receiving a retransmission uplink grant from the base station, the retransmission uplink grant having a second uplink transmission parameter associated with a second uplink transmission timeline, the second uplink transmission timeline being reduced relative to the uplink transmission timeline; preparing a retransmission of the uplink communication responsive to the feedback communication; and retransmitting , responsive to receiving the uplink retransmission grant, a retransmission of the uplink communication according to the second uplink transmission timeline, wherein the transmission and retransmission of the uplink communication are completed within a predetermined latency budget.
A method comprising: receiving, at a user device, from a server, one or more firmware update packets, wherein the one or more firmware update packets are encrypted by a lock key; transmitting, by the user device, a user profile to a locking device comprising a physical locking component and circuitry configured to control locking and unlocking of the physical locking component, wherein the user profile comprises a user key; decrypting, by the locking device, the user profile to generate a decrypted user profile, where the user profile is decrypted using the lock key; generating, by the user device, an encrypted firmware update command, the encrypted firmware update command encrypted using the user key of the user profile; transmitting, by the user device, the encrypted firmware update command and the encrypted firmware update packets to the locking device; decrypting, by the locking device, the encrypted firmware command using the user key and the encrypted firmware update packets using the lock key; and installing, by the locking device, the decrypted firmware update responsive to successfully decrypting the encrypted firmware update command and the encrypted firmware update packets. receiving, at a user device, from a server, one or more firmware update packets, wherein the one or more firmware update packets are encrypted by a lock key; transmitting, by the user device, a user profile to a locking device comprising a physical locking component and circuitry configured to control locking and unlocking of the physical locking component, wherein the user profile comprises a user key; decrypting, by the locking device, the user profile to generate a decrypted user profile, where the user profile is decrypted using the lock key; generating, by the user device, an encrypted firmware update command, the encrypted firmware update command encrypted using the user key of the user profile; transmitting, by the user device, the encrypted firmware update command and the encrypted firmware update packets to the locking device; decrypting, by the locking device, the encrypted firmware command using the user key and the encrypted firmware update packets using the lock key; and installing, by the locking device, the decrypted firmware update responsive to successfully decrypting the encrypted firmware update command and the encrypted firmware update packets.
A light emitting device comprising: a first support member having an opening ; a second support member disposed in the opening of the first support member ; an adhesive member disposed between the first and second support members ; a first lead electrode disposed on the second support member ; a second lead electrode disposed on the second support member ; a light emitting chip disposed on the first lead electrode , the light emitting chip being electrically connected to the second lead electrode ; and a conductive layer disposed under the second support member , wherein the first support member comprises a resin material, the second support member comprises a ceramic material, the first lead electrode is disposed between the light emitting chip and the second support member , wherein a portion of the first lead electrode extends on a second region of the first support member , wherein the first lead electrode is vertically overlapped with the second support member , the adhesive member and the second region of the first support member , wherein a portion of the second lead electrode is disposed on a first region of the first support member , wherein the second lead electrode is disposed on the second support member , the adhesive member and the first region of the first support member , and wherein the first and second regions of the first support member are different regions from each other. a first support member having an opening ; a second support member disposed in the opening of the first support member ; an adhesive member disposed between the first and second support members ; a first lead electrode disposed on the second support member ; a second lead electrode disposed on the second support member ; a light emitting chip disposed on the first lead electrode , the light emitting chip being electrically connected to the second lead electrode ; and a conductive layer disposed under the second support member , wherein the first support member comprises a resin material, the second support member comprises a ceramic material, the first lead electrode is disposed between the light emitting chip and the second support member , wherein a portion of the first lead electrode extends on a second region of the first support member , wherein the first lead electrode is vertically overlapped with the second support member , the adhesive member and the second region of the first support member , wherein a portion of the second lead electrode is disposed on a first region of the first support member , wherein the second lead electrode is disposed on the second support member , the adhesive member and the first region of the first support member , and wherein the first and second regions of the first support member are different regions from each other.
A control apparatus (100; 100-2) comprising: a device controller configured to generate a command for controlling operation of an intended device (300; 300-2); a calculator configured to calculate an estimated value of an operation delay time according to classification information representing at least one of a type of the command and a type of a state transition of the device (300; 300-2) according to the command, the operation delay time being a length of time from when the device receives the command to when the device completes a state transition according to the command; and a communication controller configured to transmit, at time adjusted in accordance with the estimated value, the command to the device (300; 300-2) so that the device completes the state transition according to the command at designated time. a device controller configured to generate a command for controlling operation of an intended device (300; 300-2); a calculator configured to calculate an estimated value of an operation delay time according to classification information representing at least one of a type of the command and a type of a state transition of the device (300; 300-2) according to the command, the operation delay time being a length of time from when the device receives the command to when the device completes a state transition according to the command; and a communication controller configured to transmit, at time adjusted in accordance with the estimated value, the command to the device (300; 300-2) so that the device completes the state transition according to the command at designated time.
Elongated smoking article , comprising: a cylindrical smoking body with a combustible material; a hollow element downstream to the cylindrical smoking body and comprising a first base area facing the smoking body and a second base area opposite the first base area and a hollow bore extending from the first base area to the second base area ; and a filter membrane arranged between the smoking body and the hollow element , comprising at least one filter aperture aligned with the hollow bore , permeable for vapor emitted by the heated smoking body , characterized in that the at least one filter aperture has an effective size between 0.5 μm and 1.5 mm, and in that the filter membrane is configured as second heating element when the smoking body is heated by a primary heat source of a heating device so that the filter membrane distributes heat emitted by the heated smoking body and/or generated by a device for heating the smoking body . a cylindrical smoking body with a combustible material; a hollow element downstream to the cylindrical smoking body and comprising a first base area facing the smoking body and a second base area opposite the first base area and a hollow bore extending from the first base area to the second base area ; and a filter membrane arranged between the smoking body and the hollow element , comprising at least one filter aperture aligned with the hollow bore , permeable for vapor emitted by the heated smoking body , characterized in that the at least one filter aperture has an effective size between 0.5 μm and 1.5 mm, and in that the filter membrane is configured as second heating element when the smoking body is heated by a primary heat source of a heating device so that the filter membrane distributes heat emitted by the heated smoking body and/or generated by a device for heating the smoking body .
Food-forming-apparatus comprising: a rotating drum which comprises product cavities in which a food product is formed from a food mass and a food mass feed member, which comprises a manifold and an infeed channel and at least one upstream sealing area and/or a downstream sealing area and a flexible pressure plate which is pressed against the outer surface of the drum and thereby provides a seal between the food mass member and the drum , wherein the apparatus further it comprises a multitude of pressure means (50 -55) to adjust the local pressure of the manifold relative to the drum, characterized in, that the pressure means are located side by side parallel to axis of rotation of the drum, wherein the pressure means are piston/cylinder arrangements. a rotating drum which comprises product cavities in which a food product is formed from a food mass and a food mass feed member, which comprises a manifold and an infeed channel and at least one upstream sealing area and/or a downstream sealing area and a flexible pressure plate which is pressed against the outer surface of the drum and thereby provides a seal between the food mass member and the drum , wherein the apparatus further it comprises a multitude of pressure means (50 -55) to adjust the local pressure of the manifold relative to the drum, characterized in, that the pressure means are located side by side parallel to axis of rotation of the drum, wherein the pressure means are piston/cylinder arrangements.
A variable area fan nozzle having a nozzle area control system and comprising: a plurality of petals comprising supported petal ends and free petal ends , wherein the supported petal ends are pivotably coupled to a fan duct , wherein the free ends form at least a reference portion of a nozzle circumference , and wherein the nozzle circumference is associated with a nozzle area of the variable area fan nozzle ; a cable comprising a first end and a second end , wherein the first end of the cable is connected to a first petal of the plurality of petals , and wherein a reference portion of the cable extends across the plurality of petals substantially parallel to the nozzle circumference ; and a linear displacement measuring device connected to the second end of the cable and measuring a position of the second end of the cable relative to an attachment point of the linear displacement measuring device . a plurality of petals comprising supported petal ends and free petal ends , wherein the supported petal ends are pivotably coupled to a fan duct , wherein the free ends form at least a reference portion of a nozzle circumference , and wherein the supported petal ends are pivotably coupled to a fan duct , wherein the free ends form at least a reference portion of a nozzle circumference , and wherein the nozzle circumference is associated with a nozzle area of the variable area fan nozzle ; a cable comprising a first end and a second end , wherein the first end of the cable is connected to a first petal of the plurality of petals , and wherein a reference portion of the cable extends across the plurality of petals substantially parallel to the nozzle circumference ; and wherein the first end of the cable is connected to a first petal of the plurality of petals , and wherein a reference portion of the cable extends across the plurality of petals substantially parallel to the nozzle circumference ; and a linear displacement measuring device connected to the second end of the cable and measuring a position of the second end of the cable relative to an attachment point of the linear displacement measuring device .
An isolated recombinant nucleic acid molecule encoding a T-cell receptor (TCR) fusion protein (TFP) comprising (a) a TCR subunit comprising (i) at least a portion of a TCR extracellular domain of a CD3 epsilon TCR subunit, (ii) a transmembrane domain of a CD3 epsilon TCR subunit, and (iii) an intracellular domain of a CD3 epsilon TCR subunit including its signaling domain; and (b) a human or humanized scFv or sdAb comprising an anti-mesothelin binding domain; wherein the TCR subunit and the anti-mesothelin binding domain are operatively linked, and wherein the TFP molecule is capable of functionally interacting with an endogenous TCR complex and/or at least one endogenous TCR polypeptide, wherein the encoded anti-mesothelin binding domain is connected to the encoded TCR extracellular domain by an encoded linker sequence. (a) a TCR subunit comprising (i) at least a portion of a TCR extracellular domain of a CD3 epsilon TCR subunit, (ii) a transmembrane domain of a CD3 epsilon TCR subunit, and (iii) an intracellular domain of a CD3 epsilon TCR subunit including its signaling domain; and (i) at least a portion of a TCR extracellular domain of a CD3 epsilon TCR subunit, (ii) a transmembrane domain of a CD3 epsilon TCR subunit, and (iii) an intracellular domain of a CD3 epsilon TCR subunit including its signaling domain; and (b) a human or humanized scFv or sdAb comprising an anti-mesothelin binding domain; wherein the TCR subunit and the anti-mesothelin binding domain are operatively linked, and wherein the TFP molecule is capable of functionally interacting with an endogenous TCR complex and/or at least one endogenous TCR polypeptide, wherein the encoded anti-mesothelin binding domain is connected to the encoded TCR extracellular domain by an encoded linker sequence.