mhurhangee/patent-ind-claim-en huggingface dataset:
A sweeping tool (100; 500), comprising: an elongated handle (102; 501) having a proximal end and a distal end ; a cleaning assembly (112; 502) comprising: a housing configured to hold a rotatable brush head (120; 514) and to collect debris swept up by the rotatable brush head (120; 514) when the cleaning assembly (112; 502) is in the second state, a broom head (110; 510) coupled to the housing, and a plurality of bristles (114; 508) coupled to the broom head (110; 510) and oriented substantially parallel with the elongated handle (102; 501) when the cleaning assembly (112; 502) is in the first state; characterized by a bracket (108; 506) coupled to the distal end of the elongated handle (102; 501); and wheels coupled to the rotatable brush head , the wheels configured to contact a floor surface when the cleaning assembly is in the second state; wherein the cleaning assembly (112; 502) is coupled to the bracket (108; 506) such that the cleaning assembly (112; 502) is configured to rotate about an axis passing through a portion of the bracket (108; 506) to move between a first state and a second state. an elongated handle (102; 501) having a proximal end and a distal end ; a cleaning assembly (112; 502) comprising: a housing configured to hold a rotatable brush head (120; 514) and to collect debris swept up by the rotatable brush head (120; 514) when the cleaning assembly (112; 502) is in the second state, a broom head (110; 510) coupled to the housing, and a plurality of bristles (114; 508) coupled to the broom head (110; 510) and oriented substantially parallel with the elongated handle (102; 501) when the cleaning assembly (112; 502) is in the first state; a housing configured to hold a rotatable brush head (120; 514) and to collect debris swept up by the rotatable brush head (120; 514) when the cleaning assembly (112; 502) is in the second state, a broom head (110; 510) coupled to the housing, and a plurality of bristles (114; 508) coupled to the broom head (110; 510) and oriented substantially parallel with the elongated handle (102; 501) when the cleaning assembly (112; 502) is in the first state; characterized by a bracket (108; 506) coupled to the distal end of the elongated handle (102; 501); and wheels coupled to the rotatable brush head , the wheels configured to contact a floor surface when the cleaning assembly is in the second state; wherein the cleaning assembly (112; 502) is coupled to the bracket (108; 506) such that the cleaning assembly (112; 502) is configured to rotate about an axis passing through a portion of the bracket (108; 506) to move between a first state and a second state.
A computing system (10; 150) comprising: a processor (11; 154); and memory coupled to the processor, the memory storing instructions which, when executed by the processor, cause the computing system to: scan program code, including a library function suitable for acceleration via an accelerator , to detect one or more of a library signature or an accelerator tag of the library function, wherein the library function is recognized by detection of the library signature or the accelerator tag; upon detection of the accelerator tag, substitute , in place of the library function, an accelerator call for the library function tagged with the accelerator tag; and upon detection of the library signature, substitute , in place of the library function, the accelerator call for the library function associated with the library signature, wherein, when the program code is executed, a call to the accelerator is made to perform the library function. a processor (11; 154); and memory coupled to the processor, the memory storing instructions which, when executed by the processor, cause the computing system to: scan program code, including a library function suitable for acceleration via an accelerator , to detect one or more of a library signature or an accelerator tag of the library function, wherein the library function is recognized by detection of the library signature or the accelerator tag; upon detection of the accelerator tag, substitute , in place of the library function, an accelerator call for the library function tagged with the accelerator tag; and upon detection of the library signature, substitute , in place of the library function, the accelerator call for the library function associated with the library signature, wherein, when the program code is executed, a call to the accelerator is made to perform the library function. scan program code, including a library function suitable for acceleration via an accelerator , to detect one or more of a library signature or an accelerator tag of the library function, wherein the library function is recognized by detection of the library signature or the accelerator tag; upon detection of the accelerator tag, substitute , in place of the library function, an accelerator call for the library function tagged with the accelerator tag; and upon detection of the library signature, substitute , in place of the library function, the accelerator call for the library function associated with the library signature, wherein, when the program code is executed, a call to the accelerator is made to perform the library function.
A gripper, comprising: - a mechanical coupling with which the gripper is connectable to a pipetting tube , - at least one fluid channel which extends from the coupling and with which a negative pressure can be transmitted, wherein the gripper comprises at least one suction cup which is connected to the coupling through the at least one fluid channel , whereby the negative pressure can be transmitted from the coupling to the at least one suction cup , characterized in that the at least one suction cup is aligned in such a way that a rim of a suction bell of the at least one suction cup , in the intended position of use of the gripper, is aligned in a substantially vertical plane. - a mechanical coupling with which the gripper is connectable to a pipetting tube , - at least one fluid channel which extends from the coupling and with which a negative pressure can be transmitted,
An ultrasonic fluid level sensor, comprising an acoustic waveguide , at one end of which an electroacoustic transducer is arranged, and at the other end of which an acoustic resonator is arranged, characterized in that the acoustic waveguide comprising a flexible metal rod , to each end of which a cylindrical waveguide is rigidly connected via a conical acoustic concentrator , one cylindrical waveguide being connected to the electroacoustic transducer and the other cylindrical waveguide being connected to the acoustic resonator , wherein the outer surface of at least one cylindrical waveguide is adapted to be rigidly attached in a barrier through which the waveguide is to pass. the acoustic waveguide comprising a flexible metal rod , to each end of which a cylindrical waveguide is rigidly connected via a conical acoustic concentrator , one cylindrical waveguide being connected to the electroacoustic transducer and the other cylindrical waveguide being connected to the acoustic resonator , wherein the outer surface of at least one cylindrical waveguide is adapted to be rigidly attached in a barrier through which the waveguide is to pass.
A split collet of which the central opening designed to receive a balance staff is noncircular, the balance staff having a circular cross-section, wherein the contour of the central opening comprises a limited number greater than two of bearing portions designed to interact with said balance staff, wherein at least two bearing portion (4, 5 or 14, 15) are situated on arms (6, 7 or 27, 28) and wherein the arms are symmetric relative to a straight line (R) passing through the split of the collet.
A tire comprising a tread portion provided with a plurality of circumferential grooves extending in the tire circumferential direction, wherein ground contact lengths (L) of a ground contacting patch measured in the tire circumferential direction at axial positions (P) of the respective grooves , and groove depths (d) of the respective grooves are in a relationship in which the groove depth (d) increases or decreases as the ground contact length (L) increases or decreases, wherein the ground contacting patch is that of the tread portion when the tire in its standard state is placed on a flat horizontal surface at a camber angle of zero, and loaded with a standard tire load, and the standard state is such that the tire is mounted on a standard wheel rim and inflated to a standard tire pressure, characterized in that , when each circumferential groove is a target groove, the groove depth (d) of each target groove is set to be equal to the value of r0 × L / {L + α (L0-L)}, when L is the ground contact length of the ground contacting patch measured at the axial position of the target groove, r0 is a given value for the depth of a circumferential groove disposed on the tire equator (c) or most adjacently to the tire equator (c) among the circumferential grooves , L0 is the ground contact length of the ground contacting patch measured at the tire equator (c), and α is a coefficient between 0.5 to 1.0. ground contact lengths (L) of a ground contacting patch measured in the tire circumferential direction at axial positions (P) of the respective grooves , and groove depths (d) of the respective grooves are in a relationship in which the groove depth (d) increases or decreases as the ground contact length (L) increases or decreases, wherein the ground contacting patch is that of the tread portion when the tire in its standard state is placed on a flat horizontal surface at a camber angle of zero, and loaded with a standard tire load, and the standard state is such that the tire is mounted on a standard wheel rim and inflated to a standard tire pressure, characterized in that , when each circumferential groove is a target groove, the groove depth (d) of each target groove is set to be equal to the value of r0 × L / {L + α (L0-L)}, when L is the ground contact length of the ground contacting patch measured at the axial position of the target groove, r0 is a given value for the depth of a circumferential groove disposed on the tire equator (c) or most adjacently to the tire equator (c) among the circumferential grooves , L0 is the ground contact length of the ground contacting patch measured at the tire equator (c), and α is a coefficient between 0.5 to 1.0.
A modified Sendai virus vector derived from Sendai virus Z strain, wherein an NP gene, P gene or L gene of the virus is modified such that a target sequence of a microRNA is added consecutively to the C-terminus region of the coding region or to 3'-noncoding region of the P gene, 5'-noncoding region of the NP gene, or 3'-noncoding region of the L gene, wherein expression of the vector in which the target sequence of the microRNA is added to the NP gene or P gene is negativelycontrolled, and expression of the vector in which the target sequence of the microRNA is added to the L gene is positively-controlled, in a cell expressing the microRNA, wherein the sequences of the Sendai virus Z strain occupy 90% or higher proportion among the sequences derived from minus-strand RNA viruses comprised in the genome of the vector.
Method for the batch bio-treatment of organic waste by means of larval stadium insects, which is provided with the following steps: - placing a first waste layer inside a container , - placing insect new-born larvae or eggs of one or more diptera species on said waste; - adding at prefixed time intervals a further waste layer to be treated on the yet treated waste layer, - inducing a spontaneous migration of the larvae towards suitable collecting areas by means of temperature and humidity control, and collecting the same larvae, - removing the treated waste from said container . characterized in that said prefixed time intervals are determined according to the larvae development stadium and their consequent need of daily nutrition and in that compost obtained from said first layer and from said further waste layers is removed from said tank at the end of the treatment. - placing a first waste layer inside a container , - placing insect new-born larvae or eggs of one or more diptera species on said waste; - adding at prefixed time intervals a further waste layer to be treated on the yet treated waste layer, - inducing a spontaneous migration of the larvae towards suitable collecting areas by means of temperature and humidity control, and collecting the same larvae, - removing the treated waste from said container .
A method of operating a user equipment, UE, for preventing a potential erroneous operation of the UE in a wireless communication system, the method comprising: transmitting an EPS Mobility Management, EMM, request message to a network entity; starting a timer along with the transmission of the EMM request message; receiving a first integrity non-protected EMM response message; waiting for an additional EMM response message while operating the timer without terminating the timer; and based on a first integrity protected EMM response message being received while the timer operates, processing the first integrity protected EMM response message; based on a second integrity non-protected EMM response message being received while the timer operates, processing at least one EMM response message among the first integrity non-protected EMM response message and the second integrity non-protected EMM response message; and based on expiration of the timer, processing the first integrity non-protected EMM response message. transmitting an EPS Mobility Management, EMM, request message to a network entity; starting a timer along with the transmission of the EMM request message; receiving a first integrity non-protected EMM response message; waiting for an additional EMM response message while operating the timer without terminating the timer; and based on a first integrity protected EMM response message being received while the timer operates, processing the first integrity protected EMM response message; based on a second integrity non-protected EMM response message being received while the timer operates, processing at least one EMM response message among the first integrity non-protected EMM response message and the second integrity non-protected EMM response message; and based on expiration of the timer, processing the first integrity non-protected EMM response message.
Process for preparing acrylic acid, including a step of oxidizing acrolein, wherein the reaction mixture obtained in this oxidation is contacted with water as quenching agent in an apparatus, and wherein the apparatus comprises the following features: a feed arranged below the middle of the apparatus, a quenching agent inlet arranged above the feed, an outlet arranged below the feed and a draw arranged above the quenching agent inlet, wherein the apparatus has, between the quenching agent inlet and the feed, a region provided with one or more packing elements, wherein at least one means which forms a liquid layer having a height of at least 1 cm is present between the quenching agent inlet and a packing element present between the quenching agent inlet and feed, wherein the liquid layer is arranged in the apparatus such that gaseous substances which pass through the feed into the apparatus pass through the liquid layer in order to get into the top of the apparatus, wherein the means is a ripple tray or a sieve tray.
Method for calibrating a gas chromatograph , which comprises a dosing device , a separating device , a detector device and an evaluation device , which are arranged and embodied to dose a sample of a mixture of materials to be analysed, to route the dosed sample in order to separate components contained in the mixture of materials by means of the separating device , to detect selected separated components at the end thereof and to quantitatively determine their concentrations in the mixture of materials on the basis of detector responses supplied by the detector device and response factors (RF, RRF) stored in the evaluation device , wherein the determination of the concentration of at least one first component of the mixture of materials is carried out as a function of the detector response to this component, the determined or known concentration of a second component of the mixture of materials and a relative response factor (RRF), - wherein with the calibration one or more samples of one or more calibration mixtures , which contain the components in known concentrations, is analysed in the gaschromatograph and the relative response factors (RRF) are determined on the basis of the obtained detector responses and the known concentrations and are stored in the evaluation device , characterised in that - with the calibration, the determined relative response factors (RRF) in the evaluation device are compared with universal relative response factors (uRRF) typical of the detector device , and - that an error message is generated and output by the evaluation device , if the relative response factors (RRF) determined during the calibration deviate beyond a predetermined degree from the universal relative response factors (uRRF), wherein the universal relative response factors (uRRF) are unchangeable. - wherein with the calibration one or more samples of one or more calibration mixtures , which contain the components in known concentrations, is analysed in the gaschromatograph and the relative response factors (RRF) are determined on the basis of the obtained detector responses and the known concentrations and are stored in the evaluation device , - with the calibration, the determined relative response factors (RRF) in the evaluation device are compared with universal relative response factors (uRRF) typical of the detector device , and - that an error message is generated and output by the evaluation device , if the relative response factors (RRF) determined during the calibration deviate beyond a predetermined degree from the universal relative response factors (uRRF),
Method for deciding on an engagement operation of a starter pinion of a ring gear connected to a drive shaft of a decelerating internal combustion engine , comprising: ascertaining a first rotational speed (nc1, n01, n11) of the drive shaft at a first past time (tc1, t01, t11) and a second rotational speed (nc2, n02, n12) of the drive shaft at a second past time (tc2, t02, t12) later than the first past time; determining a gradient (m1, m2, mc1) from the first rotational speed (nc1, n01, n11) at the first past time (tc1, t01, t11) and the second rotational speed (nc2, n02, n12) at the second past time (tc2, t02, t12); predicting, based on the second past time (tc2, t02, t12) and the determined gradient (m1, m2, mc1), a theoretical future rotational speed (nT0, nT1, nT2) at a future time (tT1, tT2, tT2) characterized by verifying that the actual rotational speed of the drive shaft has reached the value of the theoretical rotational speed (nT0, nT1, nT2) before or after the future time (tTO, tT1, tT2); and deciding, depending on the result of the verification, whether engaging the starter pinion in the ring gear connected to the drive shaft is reasonable or not. ascertaining a first rotational speed (nc1, n01, n11) of the drive shaft at a first past time (tc1, t01, t11) and a second rotational speed (nc2, n02, n12) of the drive shaft at a second past time (tc2, t02, t12) later than the first past time; determining a gradient (m1, m2, mc1) from the first rotational speed (nc1, n01, n11) at the first past time (tc1, t01, t11) and the second rotational speed (nc2, n02, n12) at the second past time (tc2, t02, t12); predicting, based on the second past time (tc2, t02, t12) and the determined gradient (m1, m2, mc1), a theoretical future rotational speed (nT0, nT1, nT2) at a future time (tT1, tT2, tT2) characterized by verifying that the actual rotational speed of the drive shaft has reached the value of the theoretical rotational speed (nT0, nT1, nT2) before or after the future time (tTO, tT1, tT2); and deciding, depending on the result of the verification, whether engaging the starter pinion in the ring gear connected to the drive shaft is reasonable or not.
Method for migrating a virtualized function (VNF1 61, VNF2 62, VNF3 63) installed on a first server (VM 51, VM 52) in a data centre of a communication architecture, implemented in an administration entity (NFVI TE 10, VIM 40) for administering said first server, said entity being able to transmit, to a management entity (VNFM 70) for managing the virtualized function (VNF1 61, VNF2 62, VNF3 63), data relating to the installation of the virtualized function, the method comprising at least receiving a notification message (Notif) comprising at least one item of data of a technical environment parameter (Air 91, Elec 92, Detec 93) relating to the first server (VM51, VM 52), determining (Det) an action to safeguard the virtualized function (VNF1 61, VNF2 62, VNF3 63) if the at least one item of data crosses a predefined threshold, sending, to the management entity (VNFM 70), a message (Migr) to migrate the virtualized function (VNF1 61, VNF2 62, VNF3 63) to a second server, and receiving, from the management entity, an information message comprising an identifier of the second server to which the virtualized function has been migrated, the information message being designed to update a correspondence table indicating the servers on which the various virtualized functions are installed, said correspondence table being used so that the administration entity receives the notification messages concerning the servers actually present in said table.
A case assembly for a gas turbine engine , comprising: a forward case section ; an aft case section ; and a cast case section welded between and to the forward case section and the aft case section , wherein the forward case section, the aft case section and the cast case section are configured to extend around an engine axis (A), said forward case section is configured for containment of a high pressure turbine rotor stage and said aft case section is configured for containment of a low pressure turbine rotor stage of the gas turbine engine ; wherein said forward case section and said aft case section are forged. a forward case section ; an aft case section ; and a cast case section welded between and to the forward case section and the aft case section , wherein the forward case section, the aft case section and the cast case section are configured to extend around an engine axis (A), said forward case section is configured for containment of a high pressure turbine rotor stage and said aft case section is configured for containment of a low pressure turbine rotor stage of the gas turbine engine ; wherein aft case section , wherein the forward case section, the aft case section and the cast case section are configured to extend around an engine axis (A), said forward case section is configured for containment of a high pressure turbine rotor stage and said aft case section is configured for containment of a low pressure turbine rotor stage of the gas turbine engine ; wherein said forward case section and said aft case section are forged.