mhurhangee/patent-ind-claim-en huggingface dataset:
A gear shaping machine for machining the teeth of workpieces, comprising: a spindle for receiving a machining tool , a device, by means of which the spindle can perform a reciprocating stroke motion, a drive , by means of which the spindle can be driven so as to rotate around its spindle axis (C1), and an arrangement for effecting the adjustment of the stroke position of the machine, wherein upon actuation of said stroke position adjustment arrangement the axial relative position of the spindle with respect to the spindle axis is changed by means of a spindle rotation caused by the drive and the stroke position adjustment arrangement comprises a first part which, upon said actuation, is connected to the spindle for conjoint rotation, characterised in that the first part comprises an axial cut-out in which an axially movable coupling part is guided, which coupling part is connected to the first part for conjoint rotation and the movement of which coupling part creates the connection of the first part to the spindle for conjoint rotation, wherein the stroke position adjustment arrangement comprises a second part , the connection of the latter to the first part for conjoint rotation being released upon said actuation, and wherein the first and the second part are functional elements of the device by means of which the spindle can perform a reciprocating motion. a spindle for receiving a machining tool , a device, by means of which the spindle can perform a reciprocating stroke motion, a drive , by means of which the spindle can be driven so as to rotate around its spindle axis (C1), and an arrangement for effecting the adjustment of the stroke position of the machine, wherein upon actuation of said stroke position adjustment arrangement the axial relative position of the spindle with respect to the spindle axis is changed by means of a spindle rotation caused by the drive and the stroke position adjustment arrangement comprises a first part which, upon said actuation, is connected to the spindle for conjoint rotation, characterised in that the first part comprises an axial cut-out in which an axially movable coupling part is guided, which coupling part is connected to the first part for conjoint rotation and the movement of which coupling part creates the connection of the first part to the spindle for conjoint rotation, wherein the stroke position adjustment arrangement comprises a second part , the connection of the latter to the first part for conjoint rotation being released upon said actuation, and wherein the first and the second part are functional elements of the device by means of which the spindle can perform a reciprocating motion.
An internal combustion engine system comprising - at least one combustor , - a compressor arranged to compress air, - an air guide arranged to guide compressed air from the compressor to at least one of the at least one combustor , - an expander arranged to expand exhaust gases from at least one of the at least one combustor and to extract energy from the expanded exhaust gases, and - an exhaust guide arranged to guide exhaust gases from at least one of the at least one combustor to the expander , - the exhaust guide being at least partly integrated with the air guide , - wherein the exhaust guide comprises an integrated portion which is located within the air guide , characterized in that the integrated portion presents a wall delimiting the integrated portion , and that the integrated portion comprises an insulation layer located inside the wall. - at least one combustor , - a compressor arranged to compress air, - an air guide arranged to guide compressed air from the compressor to at least one of the at least one combustor , - an expander arranged to expand exhaust gases from at least one of the at least one combustor and to extract energy from the expanded exhaust gases, and - an exhaust guide arranged to guide exhaust gases from at least one of the at least one combustor to the expander , - the exhaust guide being at least partly integrated with the air guide , - wherein the exhaust guide comprises an integrated portion which is located within the air guide , characterized in that the integrated portion presents a wall delimiting the integrated portion , and that the integrated portion comprises an insulation layer located inside the wall.
Heat resistant composition comprising: - a polysulfide, - an epoxy resin, - a compound selected from compounds having a secondary and/or a tertiary amine group, and compounds having an amide group, - a phosphonate containing -C-PO(OR) 2 groups (where R= alkyl or aryl), - fibres, and - less than 1 wt.% of a polysiloxane, wherein the wt.% is relative to the weight of the composition after evaporation of any solvent that is present in the composition. - a polysulfide, - an epoxy resin, - a compound selected from compounds having a secondary and/or a tertiary amine group, and compounds having an amide group, - a phosphonate containing -C-PO(OR) 2 groups (where R= alkyl or aryl), - fibres, and - less than 1 wt.% of a polysiloxane,
A security system to restrict unauthorized removal of an article from an area, said security system comprising: a security tag assembly comprising a tag component structured for attachment to the article and including a housing ; an RFID component comprising an RFID label secured in overlying, substantially conforming relation to an interior surface of said housing ; said tag component including a cover member disposed in overlying relation to said RFID label and in at least partially covering relation to said interior surface of said housing ; characterized in that said cover member comprises one or more slots configured to provide snap-fit or like attachment to said RFID label , and in that said security tag assembly further comprises a base removably connectable to said housing , each of said base and said housing cooperatively structured for removable attachment to the article when connected to one another. a security tag assembly comprising a tag component structured for attachment to the article and including a housing ; an RFID component comprising an RFID label secured in overlying, substantially conforming relation to an interior surface of said housing ; said tag component including a cover member disposed in overlying relation to said RFID label and in at least partially covering relation to said interior surface of said housing ; characterized in that said cover member comprises one or more slots configured to provide snap-fit or like attachment to said RFID label , and in that said security tag assembly further comprises a base removably connectable to said housing , each of said base and said housing cooperatively structured for removable attachment to the article when connected to one another.
A system for preoperative planning, comprising: an input data receiving unit, configured for receiving input data acquired with respect to a part of a patient, wherein the part corresponds to an organ of the patient to be operated on and includes one or more lesions to be removed during an operation; an anatomic 3D model generating unit, configured for generating an anatomic 3D model of the part; a plan obtaining unit, configured for obtaining a preoperative plan for linear-cutting stapler resection of the one or more lesions from the organ to be carried out during the operation based on the generated anatomic 3D model; and a plan visualizing unit, configured for: estimating a stapler cartridge size and a staple length based on the obtained preoperative plan, and visualizing a resection based on the obtained preoperative plan. an input data receiving unit, configured for receiving input data acquired with respect to a part of a patient, wherein the part corresponds to an organ of the patient to be operated on and includes one or more lesions to be removed during an operation; an anatomic 3D model generating unit, configured for generating an anatomic 3D model of the part; a plan obtaining unit, configured for obtaining a preoperative plan for linear-cutting stapler resection of the one or more lesions from the organ to be carried out during the operation based on the generated anatomic 3D model; and a plan visualizing unit, configured for: estimating a stapler cartridge size and a staple length based on the obtained preoperative plan, and visualizing a resection based on the obtained preoperative plan. estimating a stapler cartridge size and a staple length based on the obtained preoperative plan, and visualizing a resection based on the obtained preoperative plan.
A computing device for attesting itself to a communication partner that is a separate device from the computing device, the computing device comprising: a communication port configured to receive an attestation request from the communication partner ; and an application-specific integrated circuit ASIC configured to: receive the attestation request from the communication port, the attestation request including a nonce generated at the communication partner ; generate a verification value, the verification value being a computation result of a predefined function performed N iterations taking the nonce as an input value; capture data comprising two or more intermediate results of computation of the predefined function on the ASIC ; and send the verification value and the captured data to the communication port to be transmitted back to the communication partner , wherein the verification value and the captured data are configured to cause the communication partner to perform the predefined function taking the captured data as an input value and to perform the predefined function taking the nonce as an input value to determine whether the received verification value is equal to an expected value. a communication port configured to receive an attestation request from the communication partner ; and an application-specific integrated circuit ASIC configured to: receive the attestation request from the communication port, the attestation request including a nonce generated at the communication partner ; generate a verification value, the verification value being a computation result of a predefined function performed N iterations taking the nonce as an input value; capture data comprising two or more intermediate results of computation of the predefined function on the ASIC ; and send the verification value and the captured data to the communication port to be transmitted back to the communication partner , wherein the verification value and the captured data are configured to cause the communication partner to perform the predefined function taking the captured data as an input value and to perform the predefined function taking the nonce as an input value to determine whether the received verification value is equal to an expected value. receive the attestation request from the communication port, the attestation request including a nonce generated at the communication partner ; generate a verification value, the verification value being a computation result of a predefined function performed N iterations taking the nonce as an input value; capture data comprising two or more intermediate results of computation of the predefined function on the ASIC ; and send the verification value and the captured data to the communication port to be transmitted back to the communication partner , wherein the verification value and the captured data are configured to cause the communication partner to perform the predefined function taking the captured data as an input value and to perform the predefined function taking the nonce as an input value to determine whether the received verification value is equal to an expected value.
An optical inspection machine for the quality control of parts, in particular gaskets, comprising a rotary table on which parts to be inspected are placed and, above said rotary table, at least one viewing unit suitable for inspecting one or more outer and/or inner surfaces of a part, a first part ejection station that is activatable to eject a part from the rotary table to a first external conveyor for compliant parts, and a second part ejection station that is activatable to eject a part from the rotary table to a second external conveyor for rejected parts, wherein said viewing unit and said first and second part ejection stations are positioned on the rotary table with an angular distance between them, wherein each viewing unit and each part ejection station is connected to a central mounting member that is coaxial to the axis of the rotary table , the machine being characterized in that the central mounting member is movable vertically with respect to the rotary table .
A current device readout system comprising: a tunable resonator having a resonant frequency that is associated with a current state of a current device, the tunable resonator being configured to receive a tone signal having a predetermined frequency from a feedline (FL) to determine the current state of the current device; and an isolation device configured as a quantum flux parametron, QFP, inductively interconnecting the tunable resonator and the current device , the QFP being tunable based on a static flux to set a threshold to facilitate amplification of the current state of the current device, wherein the QFP is configured to isolate the current device in a first state and the tunable resonator and is configured to provide an amplified current state of the current device in a second state to the tunable resonator to facilitate the determination of the current state of the current device in the second state. a tunable resonator having a resonant frequency that is associated with a current state of a current device, the tunable resonator being configured to receive a tone signal having a predetermined frequency from a feedline (FL) to determine the current state of the current device; and an isolation device configured as a quantum flux parametron, QFP, inductively interconnecting the tunable resonator and the current device , the QFP being tunable based on a static flux to set a threshold to facilitate amplification of the current state of the current device, wherein the QFP is configured to isolate the current device in a first state and the tunable resonator and is configured to provide an amplified current state of the current device in a second state to the tunable resonator to facilitate the determination of the current state of the current device in the second state.
A work vehicle comprising: - a vehicle body; - front wheels with a front wheel shaft ; - rear wheels with a rear wheel shaft ; - an obstacle detection module configured to detect presence or absence of an obstacle; - a travel regulation control unit configured to control travel of the vehicle body upon the obstacle detection module detecting an obstacle; and - an electronic control system comprising the obstacle detection module and the travel regulation control unit and configured for automated driving that automatically drives the vehicle body, wherein the obstacle detection module includes an obstacle detector that is configured to detect an obstacle present in a Z r planar J Z detection-target area Z (X) located on a front side and a lateral side of a main part of the vehicle body; and wherein the obstacle detector is located - between, in at least one of a right direction and a left direction, an outer end of a hood and an outermost position (M) of a rearview mirror , and - between the front wheel shaft of the front wheels and the rear wheel shaft of the rear wheels in a front-rear direction of the work vehicle; characterized in that the obstacle detector is, in an up-down direction, located between an upper end portion of the hood and an upper end portion of the front wheel , and the planar detection-target area (X) is inclined downward toward the front of the vehicle body and downward from a laterally inner side of the vehicle body to a laterally outer side of the vehicle body. - a vehicle body; - front wheels with a front wheel shaft ; - rear wheels with a rear wheel shaft ; - an obstacle detection module configured to detect presence or absence of an obstacle; - a travel regulation control unit configured to control travel of the vehicle body upon the obstacle detection module detecting an obstacle; and - an electronic control system comprising the obstacle detection module and the travel regulation control unit and configured for automated driving that automatically drives the vehicle body, wherein the obstacle detection module includes an obstacle detector that is configured to detect an obstacle present in a Z r planar J Z detection-target area Z (X) located on a front side and a lateral side of a main part of the vehicle body; and wherein the obstacle detector is located wherein the obstacle detection module includes an obstacle detector that is configured to detect an obstacle present in a Z r planar J Z detection-target area Z (X) located on a front side and a lateral side of a main part of the vehicle body; and wherein the obstacle detector is located - between, in at least one of a right direction and a left direction, an outer end of a hood and an outermost position (M) of a rearview mirror , and - between the front wheel shaft of the front wheels and the rear wheel shaft of the rear wheels in a front-rear direction of the work vehicle;
A cast-in-place anchor assembly (100; 300) for anchoring objects to a concrete structure after concrete pouring and concrete setting, the objects fastened to an elongated load bearing member which is connected to the anchor assembly, the cast-in-place anchor assembly (100; 300) comprising: an anchor housing (120;320), the anchor housing (120; 320) including an opening (119; 319) therein along a longitudinal axis thereof for receiving the elongate load bearing member, the anchor housing (120; 320) also including a jaw assembly housed in the anchor housing (120; 320), the jaw assembly for lockingly engaging and axially constraining the elongate load bearing member relative to the anchor housing (120; 320), the jaw assembly including separable jaws (160; 360) and a bias member for biasing the jaws (160; 360) toward each other, the jaws (160; 360) including a lock structure, the jaw assembly further including a lock member (150; 350), characterised in that , in a first anchor assembly configuration, the lock member (150; 350) has a first configuration that allows the jaws (160; 360) to move relative to the anchor housing (120; 320) and in a second anchor assembly configuration, the lock member (150; 350) has a second configuration wherein the jaws (160; 360) are prevented from axial movement relative to the anchor housing (120; 320) in a direction opposite to a load bearing direction. an anchor housing (120;320), the anchor housing (120; 320) including an opening (119; 319) therein along a longitudinal axis thereof for receiving the elongate load bearing member, the anchor housing (120; 320) also including a jaw assembly housed in the anchor housing (120; 320), the jaw assembly for lockingly engaging and axially constraining the elongate load bearing member relative to the anchor housing (120; 320), the jaw assembly including separable jaws (160; 360) and a bias member for biasing the jaws (160; 360) toward each other, the jaws (160; 360) including a lock structure, the jaw assembly further including a lock member (150; 350), characterised in that , in a first anchor assembly configuration, the lock member (150; 350) has a first configuration that allows the jaws (160; 360) to move relative to the anchor housing (120; 320) and in a second anchor assembly configuration, the lock member (150; 350) has a second configuration wherein the jaws (160; 360) are prevented from axial movement relative to the anchor housing (120; 320) in a direction opposite to a load bearing direction.
A dust container of a vacuum cleaner comprising a first compartment provided with an air intake and a filter , a second compartment provided with a dirt outlet , wherein the first compartment and the second compartment are separated by a partition wall provided with openings characterized in that the dust container has a dust compression unit comprising a conveyor belt , a driving shaft and a pulley , wherein the conveyor belt has at least two flaps for dust distribution.
A voice control method for an information capturing device , comprising the steps of: receiving a sound signal (S01); confirming the sound signal according to a voiceprint datum (S02), wherein the voiceprint datum is recorded beforehand by one or more users and is a predetermined sound spectrum corresponding to each operating command; analyzing, by a voice recognition unit , the sound signal and thus creating an input sound spectrum; discerning and comparing, by the voice recognition unit , features of the input sound spectrum with features of the predetermined sound spectrum of the voiceprint datum to therefore perform identity authentication on a user, thereby identifying whether the sound is attributed to the user's voice; performing the voice recognition on the sound signal only if the sound signal matches the voiceprint datum to obtain an actual voice content (S03); and not performing the voice recognition on the sound signal but discarding the sound signal if the sound signal does not match the voiceprint datum (S021), confirming at least a command voice content according to the actual voice content (S05); obtaining an operating command corresponding to the command voice content if the actual voice content corresponds to any of the command voice content (S07); and performing, in response to the operating command, an operation corresponding to the operating command (S09). receiving a sound signal (S01); confirming the sound signal according to a voiceprint datum (S02), wherein the voiceprint datum is recorded beforehand by one or more users and is a predetermined sound spectrum corresponding to each operating command; analyzing, by a voice recognition unit , the sound signal and thus creating an input sound spectrum; discerning and comparing, by the voice recognition unit , features of the input sound spectrum with features of the predetermined sound spectrum of the voiceprint datum to therefore perform identity authentication on a user, thereby identifying whether the sound is attributed to the user's voice; performing the voice recognition on the sound signal only if the sound signal matches the voiceprint datum to obtain an actual voice content (S03); and not performing the voice recognition on the sound signal but discarding the sound signal if the sound signal does not match the voiceprint datum (S021), confirming at least a command voice content according to the actual voice content (S05); obtaining an operating command corresponding to the command voice content if the actual voice content corresponds to any of the command voice content (S07); and performing, in response to the operating command, an operation corresponding to the operating command (S09).