mhurhangee/patent-ind-claim-en huggingface dataset:
A variable chamber baler comprising: • a bale chamber ; • a feed mechanism that feeds bale material into the bale chamber ; • at least one belt that defines a bale forming zone within the bale chamber , wherein bale material is rotated and compressed by the belt within the bale forming zone to form a bale; • a belt tensioner that controls tension within the belt ; • a control device connected to the belt tensioner and configured to control operation of the belt tensioner to adjust the tension of the belt during formation of a bale, and • a moisture sensor that senses moisture content of the bale material; • wherein the control device receives a moisture content signal from the moisture sensor ; • characterised in that the control device comprises a plurality of predetermined belt tension regimes that define alternative relationships between the belt tension and the size of the bale in the bale forming zone during formation of a bale and selects and implements one of the predetermined belt tension regimes according to the received moisture content signal. • a bale chamber ; • a feed mechanism that feeds bale material into the bale chamber ; • at least one belt that defines a bale forming zone within the bale chamber , wherein bale material is rotated and compressed by the belt within the bale forming zone to form a bale; • a belt tensioner that controls tension within the belt ; • a control device connected to the belt tensioner and configured to control operation of the belt tensioner to adjust the tension of the belt during formation of a bale, and • a moisture sensor that senses moisture content of the bale material; • wherein the control device receives a moisture content signal from the moisture sensor ; • characterised in that the control device comprises a plurality of predetermined belt tension regimes that define alternative relationships between the belt tension and the size of the bale in the bale forming zone during formation of a bale and selects and implements one of the predetermined belt tension regimes according to the received moisture content signal.
A method for ex vivo expansion of a total nucleated cells and/or a subset of a CD45+CD34+ hematopoietic stem cells and progenitor cells component of an umbilical cord blood, bone marrow or mobilized peripheral blood sample comprising the steps of: (i) culturing a total nucleated cells or a mononucleated cell fraction or CD45+CD34+ hematopoietic stem cells and progenitor cells component of the sample in media; and (ii) contacting the cell(s) of step (i) with a composition comprising at least one azole-based small molecule, wherein the at least one azole based small molecule is represented by formula (I), wherein: X represents NR 4 or O, where R 4 is H or methyl; R 1 represents phenyl or pyridinyl (which are unsubstituted or substituted with one or more substituents selected from CI, Br, F and methyl, (which latter group is unsubstituted or substituted with F)); R 2 represents phenyl, pyridyl or dihydropyranyl (which are unsubstituted or substituted with one or more substituents selected from CI, Br, F and methyl (which latter group is unsubstituted or substituted with F)); R 3 represents H, or naphthyl which is unsubstituted or substituted with one or more groups selected from CI, F and OR 5 where R 5 is H or methyl, or salts and solvates thereof. (i) culturing a total nucleated cells or a mononucleated cell fraction or CD45+CD34+ hematopoietic stem cells and progenitor cells component of the sample in media; and (ii) contacting the cell(s) of step (i) with a composition comprising at least one azole-based small molecule, wherein the at least one azole based small molecule is represented by formula (I), wherein: X represents NR 4 or O, where R 4 is H or methyl; R 1 represents phenyl or pyridinyl (which are unsubstituted or substituted with one or more substituents selected from CI, Br, F and methyl, (which latter group is unsubstituted or substituted with F)); R 2 represents phenyl, pyridyl or dihydropyranyl (which are unsubstituted or substituted with one or more substituents selected from CI, Br, F and methyl (which latter group is unsubstituted or substituted with F)); R 3 represents H, or naphthyl which is unsubstituted or substituted with one or more groups selected from CI, F and OR 5 where R 5 is H or methyl, or salts and solvates thereof. X represents NR 4 or O, where R 4 is H or methyl; R 1 represents phenyl or pyridinyl (which are unsubstituted or substituted with one or more substituents selected from CI, Br, F and methyl, (which latter group is unsubstituted or substituted with F)); R 2 represents phenyl, pyridyl or dihydropyranyl (which are unsubstituted or substituted with one or more substituents selected from CI, Br, F and methyl (which latter group is unsubstituted or substituted with F)); R 3 represents H, or naphthyl which is unsubstituted or substituted with one or more groups selected from CI, F and OR 5 where R 5 is H or methyl, or salts and solvates thereof.
Method for manufacturing a gas sensor, comprising the steps of - integrating a processing circuit in a gas sensor chip or arranging a processing circuit together with a gas sensor chip , on a substrate , - integrating a heater in the gas sensor chip , - applying a sensitive material to the gas sensor chip, for building a layer sensitive to gas, - mounting multiple gas sensor chips onto a carrier , which carrier is a common carrier configured to accept the multiple gas sensor chips , wherein the common carrier comprises sets of contact pads (22-27), wherein each set of contact pads electrically contacts one of the multiple gas sensor chips , wherein one of the contact pads (22-27) out of each set is a supply contact pad , for supplying electrical current to the processing circuit of the corresponding gas sensor chip , - electrically interconnecting a set of supply contact pads by electrical interconnectors , - applying a current to at least one of the supply contact pads out of the set and via the interconnectors to all supply contact pads of the set , for supplying current to the corresponding processing circuits , - in response to applying the current, controlling a power controller, which is integrated in the corresponding gas sensor chip, by the corresponding processing circuit , and - in response to controlling the power controller, enabling a supply of current to the heater , for annealing the corresponding sensitive layer . - integrating a processing circuit in a gas sensor chip or arranging a processing circuit together with a gas sensor chip , on a substrate , - integrating a heater in the gas sensor chip , - applying a sensitive material to the gas sensor chip, for building a layer sensitive to gas, - mounting multiple gas sensor chips onto a carrier , which carrier is a common carrier configured to accept the multiple gas sensor chips , wherein the common carrier comprises sets of contact pads (22-27), wherein each set of contact pads electrically contacts one of the multiple gas sensor chips , wherein one of the contact pads (22-27) out of each set is a supply contact pad , for supplying electrical current to the processing circuit of the corresponding gas sensor chip , - electrically interconnecting a set of supply contact pads by electrical interconnectors , - applying a current to at least one of the supply contact pads out of the set and via the interconnectors to all supply contact pads of the set , for supplying current to the corresponding processing circuits , - in response to applying the current, controlling a power controller, which is integrated in the corresponding gas sensor chip, by the corresponding processing circuit , and - in response to controlling the power controller, enabling a supply of current to the heater , for annealing the corresponding sensitive layer .
An information processing device for providing modeling information for performing a three-dimensional object modeling process using a three-dimensional modeled object as a copy source, the information processing device comprising: an accumulation unit configured to accumulate a plurality of three-dimensional object information sets, each of which defines a structure of a three-dimensional modeled object and each including corresponding surface shape information, wherein the information processing device is configured to receive surface shape information generated by a scanning unit ; a searching unit configured to, based on the generated surface shape information, search the accumulation unit for a three-dimensional object information set to be used for modeling; and an extraction unit configured to extract a modeling condition used in the modeling of the copy source from the generated surface shape information, wherein the information processing device is configured to transmit to a modeling unit the three-dimensional object information set found by the searching unit and the extracted modeling condition to cause the modeling unit to model a three-dimensional object as a copy of the copy source. an accumulation unit configured to accumulate a plurality of three-dimensional object information sets, each of which defines a structure of a three-dimensional modeled object and each including corresponding surface shape information, wherein the information processing device is configured to receive surface shape information generated by a scanning unit ; a searching unit configured to, based on the generated surface shape information, search the accumulation unit for a three-dimensional object information set to be used for modeling; and an extraction unit configured to extract a modeling condition used in the modeling of the copy source from the generated surface shape information, wherein the information processing device is configured to transmit to a modeling unit the three-dimensional object information set found by the searching unit and the extracted modeling condition to cause the modeling unit to model a three-dimensional object as a copy of the copy source.
A capturing system , configured for capturing a target object (T) in a space, the capturing system comprising: a plate-like body that is configured to be attached to the target object (T) prior to being launched into space; and an aerospace vehicle comprising a magnetic force generating portion for generating magnetic force for attracting the plate-like body , wherein the plate-like body comprises: a portion containing a magnetic material; and a marker for approach navigation of the aerospace vehicle , wherein the marker comprises a material capable of reflecting light and is configured to reflect light emitted from the aerospace vehicle towards the aerospace vehicle , wherein the aerospace vehicle comprises: a body ; and a rod-shaped member projectably and retractably provided to the body , wherein the rod-shaped member is configured to perform a reciprocating motion, and wherein the magnetic force generating portion is attached to a tip of the rod-shaped member . a plate-like body that is configured to be attached to the target object (T) prior to being launched into space; and an aerospace vehicle comprising a magnetic force generating portion for generating magnetic force for attracting the plate-like body , wherein the plate-like body comprises: a portion containing a magnetic material; and a marker for approach navigation of the aerospace vehicle , wherein the marker comprises a material capable of reflecting light and is configured to reflect light emitted from the aerospace vehicle towards the aerospace vehicle , wherein the aerospace vehicle comprises: a body ; and a rod-shaped member projectably and retractably provided to the body , wherein the rod-shaped member is configured to perform a reciprocating motion, and wherein the magnetic force generating portion is attached to a tip of the rod-shaped member .
Rechargeable battery comprising an enclosure containing an electrode assembly , the electrode assembly comprising a first electrode and a second electrode , wherein an electrode lead tab is electrically connected to the first electrode and includes an external portion protruding from the enclosure , a temperature protection element for cutting current flow through the temperature protection element depending on temperature is affixed to an external surface of the enclosure and in that a connection tab is connected to said external portion via the temperature protection element , said electrode lead tab being electrically insulated from the enclosure , wherein the temperature protection element includes: a first connection portion 31 connected to the positive electrode lead tab , a transmission portion connected to the first connection portion , and a second connection portion connected to the transmission portion , characterised in that the external portion of the electrode lead tab and the temperature protection element are connected through an extension portion winding around an end of the electrode lead tab and coupled to the first connection portion .
Centrifugal pump with an electric motor that drives it and an electronics housing , mounted on a motor housing of the electric motor, having a trough-shaped lower section to hold at least one heat-generating component, in particular power electronics components of a frequency converter, and an upper section covering the lower section , in which the lower section has a floor and side walls extending from there in the direction of the upper section , and at least the floor is made of a thermally conductive material, with cooling fins on the back of the lower section facing away from the upper section formed in one piece with the floor and extending parallel to the motor axis, characterised by the cooling fins, at least in part, running at an angle (α, β) between 30° and 60° to an extension direction of the back , in which the cooling fins have at least one bend in the direction of their end terminating at a side wall in order to terminate perpendicular to the respective side wall .
A hearing device (HD), e.g. a hearing aid, comprising • an input transducer (IT) for providing an electric input signal (IN) representative of a sound in the environment of the hearing device, • an output transducer (OT) for providing an output sound representative of said electric input signal (IN), and • a signal processor (SPU) operationally connected to the input and output transducers, and forming part of an electric forward path for processing said electric input signal and providing a processed electric output signal (ENHS), • a feedback detector (FBD) for providing first and second indications (FBDetl, FBDet2) of current feedback in an external - acoustic and/or mechanical - feedback path from said output transducer (OT) to said input transducer (IT), wherein the feedback detector (FBD) comprises first and second detectors for providing said first and second indications (FBDetl, FBDet2) of current feedback, respectively, based on said electric input signal (IN) or a processed version thereof, and wherein said first and second indications (FBDetl, FBDet2) of current feedback are generated with first and second time constants, respectively, and where the first time constant is larger than the second time constant, CHARACTERIZED IN THAT the hearing device (HD) is configured to provide that a detection of feedback by the second detector triggers activation of the first detector . • an input transducer (IT) for providing an electric input signal (IN) representative of a sound in the environment of the hearing device, • an output transducer (OT) for providing an output sound representative of said electric input signal (IN), and • a signal processor (SPU) operationally connected to the input and output transducers, and forming part of an electric forward path for processing said electric input signal and providing a processed electric output signal (ENHS), • a feedback detector (FBD) for providing first and second indications (FBDetl, FBDet2) of current feedback in an external - acoustic and/or mechanical - feedback path from said output transducer (OT) to said input transducer (IT),
A method of wireless communication performed by a first wireless communication device , comprising: iterating (310; 510) a value of a channel access counter, CAC, based at least in part on a configured value of the CAC; determining (320; 520) that the value of the CAC satisfies a trigger value; utilizing (330; 530) a channel access mechanism to select a set of time-frequency resources for a transmission of a packet based at least in part on the value of the CAC satisfying the trigger value; and transmitting (340; 540) the packet to a second wireless communication device via the selected set of time-frequency resources; wherein iterating (310; 510) the value of the CAC comprises: iterating the value of the CAC by an amount equal to: a quantity of elapsed candidate resources available in a slot or a quantity of elapsed available slots associated with a transmission window, or a combination of the quantity of elapsed candidate resources available in a slot and the quantity of elapsed available slots; or iterating the value of the CAC by a fractional value of a quantity of time-frequency resources available in a slot or by a multiple of the factional value. iterating (310; 510) a value of a channel access counter, CAC, based at least in part on a configured value of the CAC; determining (320; 520) that the value of the CAC satisfies a trigger value; utilizing (330; 530) a channel access mechanism to select a set of time-frequency resources for a transmission of a packet based at least in part on the value of the CAC satisfying the trigger value; and transmitting (340; 540) the packet to a second wireless communication device via the selected set of time-frequency resources; wherein iterating (310; 510) the value of the CAC comprises: iterating the value of the CAC by an amount equal to: a quantity of elapsed candidate resources available in a slot or a quantity of elapsed available slots associated with a transmission window, or a combination of the quantity of elapsed candidate resources available in a slot and the quantity of elapsed available slots; or iterating the value of the CAC by a fractional value of a quantity of time-frequency resources available in a slot or by a multiple of the factional value. iterating the value of the CAC by an amount equal to: a quantity of elapsed candidate resources available in a slot or a quantity of elapsed available slots associated with a transmission window, or a combination of the quantity of elapsed candidate resources available in a slot and the quantity of elapsed available slots; or a quantity of elapsed candidate resources available in a slot or a quantity of elapsed available slots associated with a transmission window, or a combination of the quantity of elapsed candidate resources available in a slot and the quantity of elapsed available slots; or iterating the value of the CAC by a fractional value of a quantity of time-frequency resources available in a slot or by a multiple of the factional value.
A data processing method, comprising: receiving , by an edge control plane entity , first non-access stratum messages of different radio access technology, RAT, types having different standards sent by user equipment , UE, the edge control plane entity includes at least two types of interfaces, and each type of interface is used to receive a first non-access stratum message of one RAT type; converting , by the edge control plane entity , the first non-access stratum messages in each case directly into a respective non-access stratum message in a first format based on the RAT type of the corresponding first non-access stratum message, wherein the first format is a non-access stratum message transmission format supported between an aggregation node and a core-network control plane entity , the edge control plane entity , instead of the core-network control plane , implementing a function of parsing the first non-access stratum messages based on the RAT types; and sending , by the edge control plane entity , the non-access stratum message in the first format to the core-network control plane entity . receiving , by an edge control plane entity , first non-access stratum messages of different radio access technology, RAT, types having different standards sent by user equipment , UE, the edge control plane entity includes at least two types of interfaces, and each type of interface is used to receive a first non-access stratum message of one RAT type; converting , by the edge control plane entity , the first non-access stratum messages in each case directly into a respective non-access stratum message in a first format based on the RAT type of the corresponding first non-access stratum message, wherein the first format is a non-access stratum message transmission format supported between an aggregation node and a core-network control plane entity , the edge control plane entity , instead of the core-network control plane , implementing a function of parsing the first non-access stratum messages based on the RAT types; and sending , by the edge control plane entity , the non-access stratum message in the first format to the core-network control plane entity .
A pneumatic system for a truck (TW), for a trailer connection, having a trailer air pressure supply line and a trailer service brake line and a first pair of couplers, typically gladhand couplers and a second pair of couplers, typically gladhand couplers, with only one pair used at a time for coupling a trailer, the system comprising: - a first selector valve and a second selector valve , each having a rest state in which the trailer air pressure supply line and the trailer service brake line are respectively connected to the first pair of couplers, and having an energized state in which the trailer air pressure supply line and the trailer service brake line are respectively connected to the second pair of couplers, - a pneumatic control line for switching the first selector valve and the second selector valve from the rest state to the energized state, - a solenoid valve which has a non-activated state in which the pneumatic control line is not pressurized and an activated state in which the pneumatic control line is pressurized and makes the first and second selector valves switch from the rest state into the energized state. - a first selector valve and a second selector valve , each having a rest state in which the trailer air pressure supply line and the trailer service brake line are respectively connected to the first pair of couplers, and having an energized state in which the trailer air pressure supply line and the trailer service brake line are respectively connected to the second pair of couplers, - a pneumatic control line for switching the first selector valve and the second selector valve from the rest state to the energized state, - a solenoid valve which has a non-activated state in which the pneumatic control line is not pressurized and an activated state in which the pneumatic control line is pressurized and makes the first and second selector valves switch from the rest state into the energized state.
Use of a fluoride sintered body, consisting of MgF 2 of a compact polycrystalline structure having a bulk density of 2.90g/cm 3 or more and having a bending strength of 10MPa or more and a Vickers hardness of 71 or more as regards mechanical strengths, as a neutron moderator.