mhurhangee/patent-ind-claim-en huggingface dataset:
A method for visually controlling a robot arm which is displaceable in a plurality of degrees of freedom, the robot arm carrying at least one displaceable reference point , the method comprising the steps of a) placing at least one camera so that a target point where the reference point is to be placed is contained in an image output by the camera ; b) displacing the robot arm so that the reference point is within the image; c) determining a vector (A') which, in the image, connects the reference point to the target point ; characterized in that the method further comprises the following steps: d) choosing (S1, S4) one of the degrees of freedom, moving (S2, S5) the robot arm by a predetermined standard distance (φ) in said degree of freedom and recording (S3, S6) a standard displacement (D az , D bxy ) of the reference point within the image resulting from the movement of the robot arm ; e) repeating step d) at least until the vector (A') can be decomposed (S9) into a sum (c az *D az + c bxy *D bxy ) of standard displacements (D az , D bxy ) times associated weighting factors (c az , c bxy ) ; f) moving (S10) the robot arm by the weighting factors (c az , c bxy ) times the standard distances (Φ) associated to the standard displacements of the sum. a) placing at least one camera so that a target point where the reference point is to be placed is contained in an image output by the camera ; b) displacing the robot arm so that the reference point is within the image; c) determining a vector (A') which, in the image, connects the reference point to the target point ; d) choosing (S1, S4) one of the degrees of freedom, moving (S2, S5) the robot arm by a predetermined standard distance (φ) in said degree of freedom and recording (S3, S6) a standard displacement (D az , D bxy ) of the reference point within the image resulting from the movement of the robot arm ; e) repeating step d) at least until the vector (A') can be decomposed (S9) into a sum (c az *D az + c bxy *D bxy ) of standard displacements (D az , D bxy ) times associated weighting factors (c az , c bxy ) ; f) moving (S10) the robot arm by the weighting factors (c az , c bxy ) times the standard distances (Φ) associated to the standard displacements of the sum.
A drumhead , comprising: a membrane , forming a striking surface of a percussion instrument ; and a plurality of frame bodies , connected to an outer edge of the membrane and aligned along the outer edge of the membrane , wherein the plurality of frame bodies is formed by a plurality of first frame bodies and a plurality of second frame bodies , wherein each second frame body is arranged between and adjacent to two first frame bodies , and two ends of each second frame body are overlapped with adjacent ones of the first frame bodies of the frame bodies , the drumhead being characterized in that in a case of being installed to the percussion instrument , each of the first frame bodies and of the second frame bodies is configured to be folded to be inserted into a holding space (S1) of the percussion instrument , and each of the second frame bodies is configured with a screw hole such that when a tension application member is screwed in the screw hole , the second frame body is pulled so that the first frame bodies are pressed against the second frame bodies and each of the plurality of frame bodies is pulled to apply tension to the membrane . a membrane , forming a striking surface of a percussion instrument ; and a plurality of frame bodies , connected to an outer edge of the membrane and aligned along the outer edge of the membrane , wherein the plurality of frame bodies is formed by a plurality of first frame bodies and a plurality of second frame bodies , wherein each second frame body is arranged between and adjacent to two first frame bodies , and two ends of each second frame body are overlapped with adjacent ones of the first frame bodies of the frame bodies , the drumhead being characterized in that in a case of being installed to the percussion instrument , each of the first frame bodies and of the second frame bodies is configured to be folded to be inserted into a holding space (S1) of the percussion instrument , and each of the second frame bodies is configured with a screw hole such that when a tension application member is screwed in the screw hole , the second frame body is pulled so that the first frame bodies are pressed against the second frame bodies and each of the plurality of frame bodies is pulled to apply tension to the membrane .
Composition in the form of an aqueous solution comprising hexyl 5-ALA ester (HAL) or a pharmaceutically acceptable salt thereof in a concentration of 0.1 to 5% by weight of the total weight of the composition for use in a method of photodynamic therapy for bladder cancer, wherein said composition is instilled into the bladder of a patient in need of such treatment and the inside of said bladder is exposed to blue light having a fluence rate of 1.5 to 12.5 mW/cm 2 and wherein the blue light is provided at a light dose of 0.2 to 15.0 J/cm 2 .
An acetal cylinder test object for assessing and evaluating an image producing x-ray computed tomography system, comprising: at least one metal annular device; two acetal cylinder forming sections , each of which is configured to interconnect with another, wherein each section has a threaded connector configured for connecting with another threaded connector; and wherein at least a portion on one of the two acetal cylinder forming sections comprises a cylindrical undercut configured to receive the at least one metal annular device and to limit positioning of the at least one metal annular device on the two acetal cylinder forming sections. at least one metal annular device; two acetal cylinder forming sections , each of which is configured to interconnect with another, wherein each section has a threaded connector configured for connecting with another threaded connector; and wherein at least a portion on one of the two acetal cylinder forming sections comprises a cylindrical undercut configured to receive the at least one metal annular device and to limit positioning of the at least one metal annular device on the two acetal cylinder forming sections.
Impact device for inactivating insects in a pourable feed or foodstuff, having a housing which respectively comprises at least one inlet opening and one outlet opening for the material to be treated, and having a drum which is arranged in the housing such that it can rotate about an axis of rotation , a plurality of blade elements of the first type having an impact surface being arranged between two end parts of the drum and extending approximately parallel to the axis of rotation , characterized in that the drum is partially surrounded circumferentially by a wall of the housing , the at least one inlet opening and the at least one outlet opening being formed in the wall .
A wireless communication method, comprising: selectively operating , based on an inconsistency condition, a base station in one of a first mode or a second mode, wherein, upon detection of an absence of the inconsistency condition , the base station transmits in the first mode in which the base station transmits transmission resources for interference assessment on a same time unit as that used for data or control transmissions, wherein, upon detection of the inconsistency condition , the base station transmits in the second mode in which the transmission resources for interference assessment are transmitted on different time units than that used for data or control transmissions, and wherein the inconsistency condition indicates that the base station cannot accurately determine a modulation and coding scheme, MCS, based on a channel quality indicator, CQI received from a wireless device . selectively operating , based on an inconsistency condition, a base station in one of a first mode or a second mode, wherein, upon detection of an absence of the inconsistency condition , the base station transmits in the first mode in which the base station transmits transmission resources for interference assessment on a same time unit as that used for data or control transmissions, wherein, upon detection of the inconsistency condition , the base station transmits in the second mode in which the transmission resources for interference assessment are transmitted on different time units than that used for data or control transmissions, and wherein the inconsistency condition indicates that the base station cannot accurately determine a modulation and coding scheme, MCS, based on a channel quality indicator, CQI received from a wireless device .
Sealing apparatus comprising: a moveable seal holder ; charaterised by a cavity in the seal holder; and a seal assembly disposed at least partially in the cavity and comprising: a resilient seal member including a fluid-facing end with a fluid-facing end surface ; a first actuator plate configured to reciprocate between a first and a second position relative to a first protective plate , plate, the first actuator plate comprising a fluid-facing end surface and a first camming surface ; and the first protective plate disposed between the seal member and the first actuator plate; wherein the first actuator plate is configured to compress the seal member and to move the fluid-facing end surface of the seal member outward from a resting position when the first actuator plate is in the second position. a moveable seal holder ; charaterised by a cavity in the seal holder; and a seal assembly disposed at least partially in the cavity and comprising: a resilient seal member including a fluid-facing end with a fluid-facing end surface ; a first actuator plate configured to reciprocate between a first and a second position relative to a first protective plate , plate, the first actuator plate comprising a fluid-facing end surface and a first camming surface ; and the first protective plate disposed between the seal member and the first actuator plate; a resilient seal member including a fluid-facing end with a fluid-facing end surface ; a first actuator plate configured to reciprocate between a first and a second position relative to a first protective plate , plate, the first actuator plate comprising a fluid-facing end surface and a first camming surface ; and the first protective plate disposed between the seal member and the first actuator plate; wherein the first actuator plate is configured to compress the seal member and to move the fluid-facing end surface of the seal member outward from a resting position when the first actuator plate is in the second position.
An in-vehicle system comprising: a reading unit provided in a vehicle (V), and configured to read identification information capable of identifying a person; a communication unit that transmits the identification information read by the reading unit to an external device outside the vehicle (V), and that receives retrieval result information retrieved on the basis of the identification information by the external device ; a getting-on-and-off authorization processor capable of executing a process of authorizing a getting on and off of a person specified by the identification information on the vehicle (V) on the basis of the retrieval result information received by the communication unit ; and an output device that outputs a message indicating that the getting on and off of the person is not authorized. a reading unit provided in a vehicle (V), and configured to read identification information capable of identifying a person; a communication unit that transmits the identification information read by the reading unit to an external device outside the vehicle (V), and that receives retrieval result information retrieved on the basis of the identification information by the external device ; a getting-on-and-off authorization processor capable of executing a process of authorizing a getting on and off of a person specified by the identification information on the vehicle (V) on the basis of the retrieval result information received by the communication unit ; and an output device that outputs a message indicating that the getting on and off of the person is not authorized.
A method of manufacturing electrochemical biosensors of the same model, the biosensors each having an electrical pattern comprising a working electrode including several adjustment fingers which extend into a sample receiving chamber and which can be individually disconnected from or connected to the electrical pattern to adjust the effective area of the working electrode that is exposed in the sample receiving chamber whereby in said effective area a reagent film or layer is present in at least a portion of the sample receiving chamber at least in contact with the working electrode, the method comprising: (a) producing first and second biosensors; (b) determining the dose-response curve of the first biosensor; (c) selecting an effective area of the electrical pattern of the second biosensor as a function of the dose-response curve of the first biosensor; and (d) connecting or disconnecting at least one of the several adjustment fingers of the second biosensor to achieve the selected effective area, wherein the dose-response curve of the second biosensor falls within a desired predetermined range. (a) producing first and second biosensors; (b) determining the dose-response curve of the first biosensor; (c) selecting an effective area of the electrical pattern of the second biosensor as a function of the dose-response curve of the first biosensor; and (d) connecting or disconnecting at least one of the several adjustment fingers of the second biosensor to achieve the selected effective area, wherein the dose-response curve of the second biosensor falls within a desired predetermined range.
A method for determining a frequency, comprising: receiving (S210), by a terminal device, Doppler shift assistance information from a network device; and determining (S220), by the terminal device using the Doppler shift assistance information, an actual frequency to be measured, wherein the receiving (S210), by the terminal device, Doppler shift assistance information from the network device comprises: receiving, by the terminal device, Radio Resource Control, RRC, measurement configuration information, wherein the RRC measurement configuration information comprises following information: a SSB frequency to be measured; at least one piece of Synchronization Signal/Physical Broadcast Channel, SS/PBCH, Block, SSB, Measurement Timing Configuration, SMTC, information corresponding to the SSB frequency to be measured; and Doppler shift assistance information corresponding to each of the at least one piece of the SMTC information. receiving (S210), by a terminal device, Doppler shift assistance information from a network device; and determining (S220), by the terminal device using the Doppler shift assistance information, an actual frequency to be measured, wherein the receiving (S210), by the terminal device, Doppler shift assistance information from the network device comprises: receiving, by the terminal device, Radio Resource Control, RRC, measurement configuration information, wherein the RRC measurement configuration information comprises following information: a SSB frequency to be measured; at least one piece of Synchronization Signal/Physical Broadcast Channel, SS/PBCH, Block, SSB, Measurement Timing Configuration, SMTC, information corresponding to the SSB frequency to be measured; and Doppler shift assistance information corresponding to each of the at least one piece of the SMTC information. a SSB frequency to be measured; at least one piece of Synchronization Signal/Physical Broadcast Channel, SS/PBCH, Block, SSB, Measurement Timing Configuration, SMTC, information corresponding to the SSB frequency to be measured; and Doppler shift assistance information corresponding to each of the at least one piece of the SMTC information.
A refrigerator oil composition comprising a mixed refrigerant and a refrigerator oil, the mixed refrigerant comprising less than 40% by mass of an unsaturated fluorinated hydrocarbon compound, HFO, on a basis of the whole amount of the mixed refrigerant, more than 40% by mass of at least one selected from the group consisting of 1,1,1,2,2-pentafluoroethane, R125, and 1,1,1,2-tetrafluoroethane, R134a, on a basis of the whole amount of the mixed refrigerant, and difluoromethane, R32, wherein the unsaturated fluorinated hydrocarbon compound, HFO, is at least one selected from the group consisting of 2,3,3,3-tetrafluoropropene, R1234yf, and 1,3,3,3-tetrafluoropropene, R1234ze, the refrigerator oil comprising a base oil (P) including at least one selected from the group consisting of a polyvinyl ether (PVE) and a polyol ester, POE, with a hydroxy value of the base oil (P) being 15 mgKOH/g or less, measured through neutralization titration in conformity with JIS K0070:1992, and wherein the total content of at least one selected from the group consisting of PVE and POE is 50% by mass or more and 100% by mass or less of the whole amount of the base oil (P), and wherein the content of the base oil (P) is 90% by mass or more and 100% by mass or less on a basis of the whole amount of the refrigerator oil. the mixed refrigerant comprising less than 40% by mass of an unsaturated fluorinated hydrocarbon compound, HFO, on a basis of the whole amount of the mixed refrigerant, more than 40% by mass of at least one selected from the group consisting of 1,1,1,2,2-pentafluoroethane, R125, and 1,1,1,2-tetrafluoroethane, R134a, on a basis of the whole amount of the mixed refrigerant, and difluoromethane, R32, wherein the unsaturated fluorinated hydrocarbon compound, HFO, is at least one selected from the group consisting of 2,3,3,3-tetrafluoropropene, R1234yf, and 1,3,3,3-tetrafluoropropene, R1234ze, the refrigerator oil comprising a base oil (P) including at least one selected from the group consisting of a polyvinyl ether (PVE) and a polyol ester, POE, with a hydroxy value of the base oil (P) being 15 mgKOH/g or less, measured through neutralization titration in conformity with JIS K0070:1992, and wherein the total content of at least one selected from the group consisting of PVE and POE is 50% by mass or more and 100% by mass or less of the whole amount of the base oil (P), and wherein the content of the base oil (P) is 90% by mass or more and 100% by mass or less on a basis of the whole amount of the refrigerator oil.
A twisting device (15; 215) for twisting or stranding electrical or optical cables (16; 216), comprising - a first twisting head device with a first twisting rotor , wherein the first twisting rotor is arranged rotatably on the first twisting head device , - a clamping device , wherein the first twisting head device (20; 220, 240) and the clamping device are spaced apart from one another, - a stranding shuttle , which can be moved at least from a first position into a further position along a direction between the first twisting head device and the clamping device , - a control device (60; 260) for controlling at least the first twisting head device (20; 220, 240), characterised in that the twisting device (15; 215) comprises at least a first sensor device for detecting the position of the stranding shuttle (65; 265) and for determining a stranding position, wherein the stranding shuttle is positioned between the cables to be stranded, or an idle position, wherein the stranding shuttle is not positioned between the cables to be stranded, of the stranding shuttle (65; 265), wherein the first sensor device is connected in particular to the control device (60; 260) for the exchange of sensor data. - a first twisting head device with a first twisting rotor , wherein the first twisting rotor is arranged rotatably on the first twisting head device , - a clamping device , wherein the first twisting head device (20; 220, 240) and the clamping device are spaced apart from one another, - a stranding shuttle , which can be moved at least from a first position into a further position along a direction between the first twisting head device and the clamping device , - a control device (60; 260) for controlling at least the first twisting head device (20; 220, 240),
Process for sampling a headspace, comprising the steps of: (i) preparing a container containing a substance in the liquid phase , a substance in the gaseous phase , a substance to be analyzed initially at least partially contained in the substance in the liquid phase , wherein the substance in the liquid phase has a contact surface (S) contacting the substance in the gaseous phase; (ii) constraining said container to a supporting element rotatable around a rotation axis (A1); (iii) rotating said supporting element at an angular velocity such as to tilt said contact surface (S) by an angle (α) of at least 20 degrees with respect to a plane (H) parallel to the bearing surface of the supporting element ; (iv) stopping the rotation of said supporting element ; (v) collecting a sample of the substance to be analyzed, in the gaseous phase, wherein the container has a longitudinal axis (A2) substantially parallel to the rotation axis (A1), said rotation axis (A1) and said longitudinal axis (A2) being substantially perpendicular to said plane (H) parallel to the bearing surface of the supporting element , or perpendicular to a plane parallel to the horizontal line; wherein the rotation axis of the supporting element does not cross said container ; wherein, in said step (iii), the supporting element is rotated for at least 1 second; wherein, in said step (iii), the angular velocity of said supporting element exceeds 1 revolution per second. (i) preparing a container containing a substance in the liquid phase , a substance in the gaseous phase , a substance to be analyzed initially at least partially contained in the substance in the liquid phase , wherein the substance in the liquid phase has a contact surface (S) contacting the substance in the gaseous phase; (ii) constraining said container to a supporting element rotatable around a rotation axis (A1); (iii) rotating said supporting element at an angular velocity such as to tilt said contact surface (S) by an angle (α) of at least 20 degrees with respect to a plane (H) parallel to the bearing surface of the supporting element ; (iv) stopping the rotation of said supporting element ; (v) collecting a sample of the substance to be analyzed, in the gaseous phase, wherein the container has a longitudinal axis (A2) substantially parallel to the rotation axis (A1), said rotation axis (A1) and said longitudinal axis (A2) being substantially perpendicular to said plane (H) parallel to the bearing surface of the supporting element , or perpendicular to a plane parallel to the horizontal line; wherein the rotation axis of the supporting element does not cross said container ; wherein, in said step (iii), the supporting element is rotated for at least 1 second; wherein, in said step (iii), the angular velocity of said supporting element exceeds 1 revolution per second.