mhurhangee/patent-ind-claim-en huggingface dataset:
Packaging transport device comprising a support unit which has a first support surface defining a first track portion and at least one second support surface defining a second track portion , which second support surface is tilted relative to the first support surface about a tilt axis extending in a transport direction , and comprising a drive means and carrier elements which are connected to the drive means and mounted so as to be movable about the tilt axis , the drive means being formed by a belt, in particular a toothed belt, the support unit having a bearing unit provided for mounting at least one of the support surfaces in an adjustable manner with respect to its tilt angle, characterized in that the parts of the support unit that form the support surfaces are connected via longitudinal elements which are mounted so as to be movable relative to one another, the longitudinal elements having a substantially greater extension in their longitudinal direction than in their transverse extension, the longitudinal direction of the longitudinal elements extending substantially in parallel with the transport direction , the longitudinal elements being arranged next to the drive means , when viewed transversely to the transport direction , and forming support surfaces for the product containers and the carrier elements .
A radiation sterilized hydrogel comprising: a hydrocolloid in an amount of below 6 wt%, the hydrocolloid comprising gellan gum, high acyl gellan gum, low acyl gellan gum or combinations thereof; a carboxylic acid in an amount of above 0.05 wt%, wherein the carboxylic acid comprises citric acid; and water in an amount above about 94 wt%. a hydrocolloid in an amount of below 6 wt%, the hydrocolloid comprising gellan gum, high acyl gellan gum, low acyl gellan gum or combinations thereof; a carboxylic acid in an amount of above 0.05 wt%, wherein the carboxylic acid comprises citric acid; and water in an amount above about 94 wt%.
A computer-implemented method to migrate application load from a data center to a separate target location, the method comprising: monitoring an application running on one or more computing resources in a datacenter to determine an ongoing application load; determining based on monitoring that a threshold for migrating the application to a cloud-based computing resource has been reached; identifying a cloud-based target computing resource to which to migrate at least some of the running application's load; identifying one or more applications to migrate; migrating at least some application load of the identified applications to the cloud-based identified target computing resource; wherein the method further comprises migrating application load back to the data center following a reduction in load of the data center, wherein a duration below threshold is set and the application load is migrated back only after expiry of the duration below threshold; and wherein the preceding steps are performed by at least one processor. monitoring an application running on one or more computing resources in a datacenter to determine an ongoing application load; determining based on monitoring that a threshold for migrating the application to a cloud-based computing resource has been reached; identifying a cloud-based target computing resource to which to migrate at least some of the running application's load; identifying one or more applications to migrate; migrating at least some application load of the identified applications to the cloud-based identified target computing resource; wherein the method further comprises migrating application load back to the data center following a reduction in load of the data center, wherein a duration below threshold is set and the application load is migrated back only after expiry of the duration below threshold; and wherein the preceding steps are performed by at least one processor.
Hydraulic binder that comprises - a clinker in particulate form, the clinker comprising as main phases, as a % expressed by mass with respect to the total mass of clinker: (i) from 70% to 95% belite phase having a particle size such that the Dv50 is between 5 and 15 μm; (ii) from 5% to 30% calcium aluminoferrite phase; and (iii) less than 5% minor phases; the clinker having an Al 2 O 3 /Fe 2 O 3 ratio by mass of less than 1.5; and the clinker comprising less than 5% alite phase and less than 5% calcium sulphoaluminate phase the clinker comprising 0 to 1% by weight sodium, expressed as sodium oxide the clinker comprising 0 to 1% by weight potassium, expressed as potassium oxide - and at least 0.5% by dry mass an activator based on calcium sulphate, as a percentage by mass with respect to the total mass of phases (i) to (iii). - a clinker in particulate form, the clinker comprising as main phases, as a % expressed by mass with respect to the total mass of clinker: (i) from 70% to 95% belite phase having a particle size such that the Dv50 is between 5 and 15 μm; (ii) from 5% to 30% calcium aluminoferrite phase; and (iii) less than 5% minor phases; the clinker having an Al 2 O 3 /Fe 2 O 3 ratio by mass of less than 1.5; and the clinker comprising less than 5% alite phase and less than 5% calcium sulphoaluminate phase the clinker comprising 0 to 1% by weight sodium, expressed as sodium oxide the clinker comprising 0 to 1% by weight potassium, expressed as potassium oxide (i) from 70% to 95% belite phase having a particle size such that the Dv50 is between 5 and 15 μm; (ii) from 5% to 30% calcium aluminoferrite phase; and (iii) less than 5% minor phases; - and at least 0.5% by dry mass an activator based on calcium sulphate, as a percentage by mass with respect to the total mass of phases (i) to (iii).
A photodiode emulator circuit , comprising: a first current source circuit; first and second transistors (M4, M5) having sources connected together and connected to an output of the first current source circuit, a drain of the second transistor connected to a first node; a third transistor (M7) connected between a drain of the first transistor and a replica load circuit; a second current source circuit (M3, M6) connected to the first node; a capacitor (C1) connected between the first node and electrical ground; and a fourth transistor (M8) having a source connected to the first node and a drain that supplies an output current; wherein a gate of the first transistor receives a first logic signal, a gate of the second transistor receives a second logic signal, and the first and second logic signals are logical complements of each other. a first current source circuit; first and second transistors (M4, M5) having sources connected together and connected to an output of the first current source circuit, a drain of the second transistor connected to a first node; a third transistor (M7) connected between a drain of the first transistor and a replica load circuit; a second current source circuit (M3, M6) connected to the first node; a capacitor (C1) connected between the first node and electrical ground; and a fourth transistor (M8) having a source connected to the first node and a drain that supplies an output current; wherein a gate of the first transistor receives a first logic signal, a gate of the second transistor receives a second logic signal, and the first and second logic signals are logical complements of each other.
Iron complex of a porphyrin of formula (I): wherein R 1 to Rs and R 1 ' to R 8 ' are independently selected from the group consisting of H, OH, F and C 1 -C 6 -alkyl, provided that at least 2 of R 1 -R 4 are H, at least 2 of R 1' -R 4' are H, at least 2 of R 5 -R 8 are H, and at least 2 of R 5' -R 8' are H, and R 9 , R 10 and R 11 are independently selected from a C 1 -C 4 -alkyl group, or atropisomers thereof, and salts thereof. wherein R 1 to Rs and R 1 ' to R 8 ' are independently selected from the group consisting of H, OH, F and C 1 -C 6 -alkyl, provided that at least 2 of R 1 -R 4 are H, at least 2 of R 1' -R 4' are H, at least 2 of R 5 -R 8 are H, and at least 2 of R 5' -R 8' are H, and R 9 , R 10 and R 11 are independently selected from a C 1 -C 4 -alkyl group,
A signal processing apparatus attachable to a body portion of a user , the signal processing apparatus comprising: a microphone (102; 110) configured to acquire a first sound signal based on an aerodynamic sound generated by a motion of the body portion and a sound of the user ; a control unit coupled to the microphone and configured to execute effect processing for the first sound signal being output from the microphone to generate a second sound signal for aurally representing the motion of the body portion of the user; and a sound output unit configured to output a sound based on the second signal output from the control unit , the signal processing apparatus being characterised by comprising a semispherical case having honeycomb holes, the semispherical case covering the microphone . a microphone (102; 110) configured to acquire a first sound signal based on an aerodynamic sound generated by a motion of the body portion and a sound of the user ; a control unit coupled to the microphone and configured to execute effect processing for the first sound signal being output from the microphone to generate a second sound signal for aurally representing the motion of the body portion of the user; and a sound output unit configured to output a sound based on the second signal output from the control unit ,
A battery module comprising: battery terminals configured to be coupled to at least one power device : one or more battery cells configured to store energy; a charger ; and a battery-management system configured to: determine whether a command to operate with the at least one power device has been received; charge, in a charge mode of operation responsive to receiving a wake-up signal from a first power device that the battery module is not configured to operate with by not receiving a system start-up signal, the one or more battery cells to a first state of charge with power derived from the first power device , and charge, in a normal mode of operation responsive to receiving a wake-up signal from a second power device and a system start-up signal from the second power device indicating that the battery module is configured to operate with the second power device , the one or more battery cells to a second state of charge with power derived from the second power device, the second state of charge being greater than the first state of charge. one or more battery cells configured to store energy; a charger ; and a battery-management system configured to: determine whether a command to operate with the at least one power device has been received; charge, in a charge mode of operation responsive to receiving a wake-up signal from a first power device that the battery module is not configured to operate with by not receiving a system start-up signal, the one or more battery cells to a first state of charge with power derived from the first power device , and charge, in a normal mode of operation responsive to receiving a wake-up signal from a second power device and a system start-up signal from the second power device indicating that the battery module is configured to operate with the second power device , the one or more battery cells to a second state of charge with power derived from the second power device, the second state of charge being greater than the first state of charge. determine whether a command to operate with the at least one power device has been received; charge, in a charge mode of operation responsive to receiving a wake-up signal from a first power device that the battery module is not configured to operate with by not receiving a system start-up signal, the one or more battery cells to a first state of charge with power derived from the first power device , and charge, in a normal mode of operation responsive to receiving a wake-up signal from a second power device and a system start-up signal from the second power device indicating that the battery module is configured to operate with the second power device , the one or more battery cells to a second state of charge with power derived from the second power device, the second state of charge being greater than the first state of charge.
A spacer for positioning a rehabilitating pipe that renovates an existing pipe , and for being inserted into a space between the existing pipe and the rehabilitating pipe and adjusting a position of the rehabilitating pipe with respect to the existing pipe , characterized by the spacer having an elongated shape with both end portions in a longitudinal direction cut off at an oblique angle (θ 1 , θ 2 ), the spacer having a transverse width increasing gradually from an upper surface portion to a bottom surface portion and a space formed in the bottom surface portion to correspond to a shape of the upper surface portion , thereby allowing a plurality of the spacers to be stacked on one another in a thickness direction thereof, the upper surface portion having a flat-plate shape with a flat rectangular surface region.
A method performed by a wireless communication device (312; 1400), the method comprising: receiving , from a network node (302; 306; 1100), a channel access mode indication, the channel access mode indication being an indication of whether the wireless communication device (312; 1400) is to operate in a Frame-Based Equipment, FBE, channel access mode or a Load-Based Equipment, LBE, channel access mode; determining a channel access mode in which to operate based on the channel access mode indication; and operating in the determined channel access mode, wherein the determined channel access mode is the FBE channel access mode, and operating in the determined channel access mode comprises operating as a responding node by: determining whether a Downlink, DL, transmission is received during a particular Fixed Frame Period, FFP, and upon determining (700, YES) that the DL transmission is received during the particular FFP, transmitting an Uplink, UL, transmission in said particular FFP. receiving , from a network node (302; 306; 1100), a channel access mode indication, the channel access mode indication being an indication of whether the wireless communication device (312; 1400) is to operate in a Frame-Based Equipment, FBE, channel access mode or a Load-Based Equipment, LBE, channel access mode; determining a channel access mode in which to operate based on the channel access mode indication; and operating in the determined channel access mode, wherein the determined channel access mode is the FBE channel access mode, and operating in the determined channel access mode comprises operating as a responding node by: determining whether a Downlink, DL, transmission is received during a particular Fixed Frame Period, FFP, and upon determining (700, YES) that the DL transmission is received during the particular FFP, transmitting an Uplink, UL, transmission in said particular FFP.
A process for preparation of a solid organomagnesium precursor having formula {Mg(OR')X}.a{MgX 2 }.b{Mg(OR') 2 }.c{R'OH}, wherein R' is selected from a hydrocarbon group, X is selected from a halide group, and a:b:c is in range of 0.01-0.5 : 0.01 - 0.5 : 0.01 - 5, said process comprising contacting a magnesium source with a solvating agent, an organohalide and an alcohol to obtain the solid organomagnesium precursor, wherein the solvating agent is selected from a group comprising of dimethyl ether, diethyl ether, dipropyl ether, diisopropyl ether, ethylmethyl ether, n-butylmethyl ether, n-butylethyl ether, di-n-butyl ether, di-isobutyl ether, isobutylmethyl ether, and isobutylethyl ether, dioxane, tetrahydrofuran, 2-methyl tetrahydrofuran, tetrahydropyran and combination thereof.
A method for manufacturing a brush head , the method comprising the steps, in order, of: providing a plurality of nylon bristle tufts , each comprising a proximal end ; applying heat to each bristle tuft proximal end at a temperature sufficient to at least partially melt the bristle tuft proximal end and create a proximal head portion ; providing a polypropylene bristle tuft retention ring having a non-circular exterior wall around the proximal end of each respective bristle tuft adjacent to the proximal head portion ; positioning a platen portion of a neck of the brush head in relation to the proximal head portions, wherein the positioning of the platen portion of the neck defines a space in relation to the proximal head portions for injection of a thermoplastic elastomer; and injecting the thermoplastic elastomer into the space to create an elastomeric matrix that at least partially encompasses the platen and the proximal head portions. providing a plurality of nylon bristle tufts , each comprising a proximal end ; applying heat to each bristle tuft proximal end at a temperature sufficient to at least partially melt the bristle tuft proximal end and create a proximal head portion ; providing a polypropylene bristle tuft retention ring having a non-circular exterior wall around the proximal end of each respective bristle tuft adjacent to the proximal head portion ; positioning a platen portion of a neck of the brush head in relation to the proximal head portions, wherein the positioning of the platen portion of the neck defines a space in relation to the proximal head portions for injection of a thermoplastic elastomer; and injecting the thermoplastic elastomer into the space to create an elastomeric matrix that at least partially encompasses the platen and the proximal head portions.
An optical line terminal OLT device virtualization method, comprising: creating (S501) a plurality of virtual OLT systems on an optical line terminal OLT device; and determining (S502) system resources of each of the plurality of virtual OLT systems according to a preset rule, wherein the system resources comprise a physical resource and a logical resource, and physical resources and logical resources of the plurality of virtual OLT systems are different from each other, wherein the preset rule comprises: service boards that are on the OLT device and that are allocated to the plurality of virtual OLT systems are different, thereby providing different system resources to be allocated; optical network units ONUs that are on the OLT device and that are allocated to the plurality of virtual OLT systems provide different user management functions; and service flows corresponding to the plurality of virtual OLT systems provide different service types. creating (S501) a plurality of virtual OLT systems on an optical line terminal OLT device; and determining (S502) system resources of each of the plurality of virtual OLT systems according to a preset rule, wherein the system resources comprise a physical resource and a logical resource, and physical resources and logical resources of the plurality of virtual OLT systems are different from each other, wherein the preset rule comprises: service boards that are on the OLT device and that are allocated to the plurality of virtual OLT systems are different, thereby providing different system resources to be allocated; optical network units ONUs that are on the OLT device and that are allocated to the plurality of virtual OLT systems provide different user management functions; and service flows corresponding to the plurality of virtual OLT systems provide different service types. service boards that are on the OLT device and that are allocated to the plurality of virtual OLT systems are different, thereby providing different system resources to be allocated; optical network units ONUs that are on the OLT device and that are allocated to the plurality of virtual OLT systems provide different user management functions; and service flows corresponding to the plurality of virtual OLT systems provide different service types.
A dispersion comprising cellulose fibers dispersed in a mixture of an ionic liquid and a protic antisolvent for cellulose, said ionic liquid being selected from the group of protic salts of organic superbases capable of dissolving cellulose and said dispersion being stable at room temperature for at least 24 hours, wherein the dispersion is a colloidal dispersion, wherein less than 20 % of the dispersed cellulose fibers by weight, calculated from the total amount of dispersed matter in the dispersion, will settle out of the dispersion over a time period of 24 hours upon standing at room temperature, wherein the molar ratio between the protic antisolvent for cellulose to the ionic liquid is about 1:50 to 50:1, and wherein at least 90 % by weight of the cellulose fibers are present in undissolved form in the mixture of the ionic liquid and the protic antisolvent for cellulose. wherein the molar ratio between the protic antisolvent for cellulose to the ionic liquid is about 1:50 to 50:1, and wherein at least 90 % by weight of the cellulose fibers are present in undissolved form in the mixture of the ionic liquid and the protic antisolvent for cellulose.
A composition comprising: a polycarbonate; 1 to 5 wt% based on a total weight of the composition of a nanosilica having a D 50 particle size by volume of 5 to 50 nanometers determined in accordance with ISO-22412-17; wherein the nanosilica has a hydrophobic coating; and a siloxane domain having repeat units of the formula 10; wherein each R is independently a C 1-13 monovalent organic group; wherein the composition comprises a polycarbonate-polysiloxane copolymer, wherein the polysiloxane portion of the polycarbonate-polysiloxane copolymer constitutes at least a portion of the siloxane domain, the nanosilica is present in an amount of 2 to 5 wt%, and the value of E of formula is 40 to 80, wherein the polycarbonate-polysiloxane copolymer can be the same or different as the polycarbonate. a polycarbonate; 1 to 5 wt% based on a total weight of the composition of a nanosilica having a D 50 particle size by volume of 5 to 50 nanometers determined in accordance with ISO-22412-17; wherein the nanosilica has a hydrophobic coating; and a siloxane domain having repeat units of the formula 10; wherein each R is independently a C 1-13 monovalent organic group; wherein the composition comprises a polycarbonate-polysiloxane copolymer, wherein the polysiloxane portion of the polycarbonate-polysiloxane copolymer constitutes at least a portion of the siloxane domain, the nanosilica is present in an amount of 2 to 5 wt%, and the value of E of formula is 40 to 80, wherein the polycarbonate-polysiloxane copolymer can be the same or different as the polycarbonate.
Sensor apparatus comprising: - a sensor capsule - inside which one or more sensors are arranged, - a holder for fastening the sensor capsule to a traffic infrastructure, wherein - a processor is arranged in the sensor capsule and is designed to detect an impermissible application of force to the sensor capsule on the basis of sensor data from one or more of the one or more sensors , - also comprising a communication interface which is designed, if an impermissible application of force is detected, to emit a message informing of the impermissible application of force and sensor data from the one or more sensors , - wherein the communication interface and/or the processor is/are designed, in the event of an impermissible application of force, to provide the message to be emitted and/or the sensor data to be emitted with a time stamp. - a sensor capsule - inside which one or more sensors are arranged, - a holder for fastening the sensor capsule to a traffic infrastructure, wherein - a processor is arranged in the sensor capsule and is designed to detect an impermissible application of force to the sensor capsule on the basis of sensor data from one or more of the one or more sensors , - also comprising a communication interface which is designed, if an impermissible application of force is detected, to emit a message informing of the impermissible application of force and sensor data from the one or more sensors , - wherein the communication interface and/or the processor is/are designed, in the event of an impermissible application of force, to provide the message to be emitted and/or the sensor data to be emitted with a time stamp.