mhurhangee/patent-ind-claim-en huggingface dataset:
Copper paste for joining, comprising: metal particles; and a dispersion medium, wherein the metal particles include sub-micro copper particles having a volume-average particle size of 0.12 μm to 0.8 μm, and flake-shaped micro copper particles having a maximum particle size of 1 μm to 20 μm, and an aspect ratio of 4 or greater, and the amount of the micro copper particles contained, which are included in the metal particles and have a maximum particle size of 1 μm to 20 μm and an aspect ratio of less than 2, is 50% by mass or less on the basis of a total amount of the flake-shaped micro copper particles. metal particles; and a dispersion medium, wherein the metal particles include sub-micro copper particles having a volume-average particle size of 0.12 μm to 0.8 μm, and flake-shaped micro copper particles having a maximum particle size of 1 μm to 20 μm, and an aspect ratio of 4 or greater, and the amount of the micro copper particles contained, which are included in the metal particles and have a maximum particle size of 1 μm to 20 μm and an aspect ratio of less than 2, is 50% by mass or less on the basis of a total amount of the flake-shaped micro copper particles.
Computer-aided method for creating a second training dataset for training an artificial neural network designed for a state estimation of a power grid from a provided first training dataset comprising multiple training pairs, wherein each of the training pairs is formed by a measurement dataset and an associated state of the power grid , and the respective measurement dataset comprises at least complex apparent powers associated with the power grid, comprising the steps of: - (S1) determining at least one first training pair and an associated first measurement dataset and first state, the first state of which has an error greater than or equal to a defined error limit compared with a training of the artificial neural network by means of the first training dataset; - (S2) calculating a second state of the power grid by means of a load flow calculation based on at least one complex apparent power modified in comparison with the complex apparent power of the first measurement dataset; - (S3) calculating a second measurement dataset from the calculated second state by means of a measurement model of the power grid; and - (S4) creating the second training dataset from the first training dataset by adding a second training pair formed from the second measurement dataset and the associated second state. - (S1) determining at least one first training pair and an associated first measurement dataset and first state, the first state of which has an error greater than or equal to a defined error limit compared with a training of the artificial neural network by means of the first training dataset; - (S2) calculating a second state of the power grid by means of a load flow calculation based on at least one complex apparent power modified in comparison with the complex apparent power of the first measurement dataset; - (S3) calculating a second measurement dataset from the calculated second state by means of a measurement model of the power grid; and - (S4) creating the second training dataset from the first training dataset by adding a second training pair formed from the second measurement dataset and the associated second state.
A flexible printed circuit board (FPCB) including a first bonding portion (BP1) and a second bonding portion (BP2) configured to be bonded to a first circuit unit and a second circuit unit, respectively, the flexible printed circuit board (FPCB) comprising: the first bonding portion (BP1) including a pad-corresponding portion (PC) corresponding to pads of the first circuit unit, and dummy portions (D1, D2) being free from FPCB wirings and outwardly extending from both end portions of the pad-corresponding portion (PC) so as to increase a region of the flexible printed circuit board (FPCB) to be bonded with the first circuit unit; and an FPCB wiring formation portion (WP) including FPCB wirings (FTW1-FTW4, FRW1-FRW6) configured to be respectively connected to the pads and extending from the first bonding portion (BP1) to the second bonding portion (BP2), and concave portions (CP1, CP2) respectively disposed adjacent to the dummy portions (D1, D2) and having a curved surface, wherein the FPCB wiring formation portion (WP) further includes reinforcing patterns (RF1, RF2) respectively disposed along both lateral portions of the first and second concave portions (CP1, CP2) of the FPCB wiring formation portion (WP), such that edges of the reinforcing patterns (RF1, RF2) are aligned with edges of the first and second concave portions (CP1, CP2), wherein the reinforcing patterns (RF1, RF2) do not overlap the dummy portions (D1, D2) of the first bonding portion (BP1). the first bonding portion (BP1) including a pad-corresponding portion (PC) corresponding to pads of the first circuit unit, and dummy portions (D1, D2) being free from FPCB wirings and outwardly extending from both end portions of the pad-corresponding portion (PC) so as to increase a region of the flexible printed circuit board (FPCB) to be bonded with the first circuit unit; and an FPCB wiring formation portion (WP) including FPCB wirings (FTW1-FTW4, FRW1-FRW6) configured to be respectively connected to the pads and extending from the first bonding portion (BP1) to the second bonding portion (BP2), and concave portions (CP1, CP2) respectively disposed adjacent to the dummy portions (D1, D2) and having a curved surface, wherein the FPCB wiring formation portion (WP) further includes reinforcing patterns (RF1, RF2) respectively disposed along both lateral portions of the first and second concave portions (CP1, CP2) of the FPCB wiring formation portion (WP), such that edges of the reinforcing patterns (RF1, RF2) are aligned with edges of the first and second concave portions (CP1, CP2), wherein the reinforcing patterns (RF1, RF2) do not overlap the dummy portions (D1, D2) of the first bonding portion (BP1).
A sterile drape comprising: a first drape section including: an exterior surface adjacent to a sterile field for performing a surgical procedure; an interior surface forming a cavity for receiving a first non-sterile portion of a robotic surgical system, the first non-sterile portion including a monitor; a permanent integral cuff at an open end of the cavity and a marker on the permanent integral cuff designating a sterile side and a non-sterile side of the drape ; a first vent through the interior and exterior surfaces in communication with the sterile field; and a second vent through the interior and exterior surfaces in communication with the sterile field and spaced apart from the first vent, wherein the first and second vents allow convection heat venting of the monitor over which the first drape section is arranged; and a second drape section connected to the first drape section and including an instrument sterile adaptor for engaging a surgical tool and another non-sterile portion of the robotic surgical system, the sterile adaptor configured to transfer signals between the surgical tool and the other non-sterile portion of the robotic surgical system. a first drape section including: an exterior surface adjacent to a sterile field for performing a surgical procedure; an interior surface forming a cavity for receiving a first non-sterile portion of a robotic surgical system, the first non-sterile portion including a monitor; a permanent integral cuff at an open end of the cavity and a marker on the permanent integral cuff designating a sterile side and a non-sterile side of the drape ; a first vent through the interior and exterior surfaces in communication with the sterile field; and a second vent through the interior and exterior surfaces in communication with the sterile field and spaced apart from the first vent, wherein the first and second vents allow convection heat venting of the monitor over which the first drape section is arranged; and an exterior surface adjacent to a sterile field for performing a surgical procedure; an interior surface forming a cavity for receiving a first non-sterile portion of a robotic surgical system, the first non-sterile portion including a monitor; a permanent integral cuff at an open end of the cavity and a marker on the permanent integral cuff designating a sterile side and a non-sterile side of the drape ; a first vent through the interior and exterior surfaces in communication with the sterile field; and a second vent through the interior and exterior surfaces in communication with the sterile field and spaced apart from the first vent, wherein the first and second vents allow convection heat venting of the monitor over which the first drape section is arranged; and a second drape section connected to the first drape section and including an instrument sterile adaptor for engaging a surgical tool and another non-sterile portion of the robotic surgical system, the sterile adaptor configured to transfer signals between the surgical tool and the other non-sterile portion of the robotic surgical system.
Battery module having a plurality of battery cells, in particular lithium ion battery cells, comprising a plurality of partition walls , wherein a battery cell is arranged between two partition walls and a first compensating element is arranged between a first battery cell and a partition wall that is adjacent to the first battery cell , and a second compensating element is arranged between a second battery cell and a partition wall that is adjacent to the second battery cell , characterized in that the first compensating element and the second compensating element comprise a different value of a deformation constant, wherein the battery module comprises a plurality of compensating elements , wherein the battery module comprises in a longitudinal direction a first region and a second region , characterized in that the values of the deformation constants of the compensating elements decrease in the first region in the longitudinal direction of the battery module and/or increase in the second region in the longitudinal direction of the battery module .
A sound producing apparatus , comprising: a sound producing device , disposed at a sound producing location (L SP ), configured to produce a plurality of air pulses according to a driving signal (d( t )); characterised by further comprising a driving circuit , configured to receive an input audio signal (A( t )) and a channel-shaping signal (g( t )), configured to generate the driving signal (d( t )) according to the input audio signal (A( t )) and the channel-shaping signal (g( t )), wherein the channel-shaping signal (g( t )) is related to a channel impulse response (h S (t)) of a channel (h) between the sound producing location (L SP ) and a sound constructing location (L SC ); and a signal processing circuit , configured to generate the channel-shaping signal (g( t )) according to the channel impulse response (h S ( t )); wherein the plurality of air pulses is emitted from the sound producing location (L SP ), propagates through an environment, such that a sound pressure level (SPL) envelope corresponding to the input audio signal (A( t )) is constructed at the sound construction location (L SC ); wherein the sound construction location (L SC ) is different from the sound production location (L SP ). a sound producing device , disposed at a sound producing location (L SP ), configured to produce a plurality of air pulses according to a driving signal (d( t )); characterised by further comprising a driving circuit , configured to receive an input audio signal (A( t )) and a channel-shaping signal (g( t )), configured to generate the driving signal (d( t )) according to the input audio signal (A( t )) and the channel-shaping signal (g( t )), wherein the channel-shaping signal (g( t )) is related to a channel impulse response (h S (t)) of a channel (h) between the sound producing location (L SP ) and a sound constructing location (L SC ); and a signal processing circuit , configured to generate the channel-shaping signal (g( t )) according to the channel impulse response (h S ( t )); wherein the plurality of air pulses is emitted from the sound producing location (L SP ), propagates through an environment, such that a sound pressure level (SPL) envelope corresponding to the input audio signal (A( t )) is constructed at the sound construction location (L SC ); wherein the sound construction location (L SC ) is different from the sound production location (L SP ).
An unmanned surface vehicle (USV) comprising: a buoyant hull structure; a master computer unit (MCU) coupled to the buoyant hull structure wherein the MCU is configured to form a proportional-integral-derivative (PID) controller with sensor feedback to provide condition heading control; a magnetic heading sensor; a very high frequency (VHF) radio coupled to the buoyant hull structure, wherein the VHF radio is configured to assemble into an ad-hoc mesh network with other VHF radios of other USVs; a satellite radio coupled to the buoyant hull structure, wherein the satellite radio is configured to provide a higher-level communication network for global coverage: a Global Positioning System (GPS) coupled to the buoyant hull structure; a plurality of weather sensors coupled to the buoyant hull structure; a navigation and propulsion controller coupled to the buoyant hull structure; at least one thruster coupled to the buoyant hull structure and configured to provide propulsion; a battery coupled to the buoyant hull structure, wherein the battery optionally comprises a high-density lithium polymer (LiPo); a charge controller coupled to the buoyant hull structure; and a solar panel coupled to the buoyant hull structure and configured to charge the battery. a buoyant hull structure; a master computer unit (MCU) coupled to the buoyant hull structure wherein the MCU is configured to form a proportional-integral-derivative (PID) controller with sensor feedback to provide condition heading control; a magnetic heading sensor; a very high frequency (VHF) radio coupled to the buoyant hull structure, wherein the VHF radio is configured to assemble into an ad-hoc mesh network with other VHF radios of other USVs; a satellite radio coupled to the buoyant hull structure, wherein the satellite radio is configured to provide a higher-level communication network for global coverage: a Global Positioning System (GPS) coupled to the buoyant hull structure; a plurality of weather sensors coupled to the buoyant hull structure; a navigation and propulsion controller coupled to the buoyant hull structure; at least one thruster coupled to the buoyant hull structure and configured to provide propulsion; a battery coupled to the buoyant hull structure, wherein the battery optionally comprises a high-density lithium polymer (LiPo); a charge controller coupled to the buoyant hull structure; and a solar panel coupled to the buoyant hull structure and configured to charge the battery.
Dry mortar composition for an external wall insulation comprising: - 5 to 15 wt% of organic polymer - 10 to 70 wt% of silicate filler - 10 to 70 wt% of calcium carbonate - 5 to 20 wt% aluminum hydroxide - 0 to 10 wt% of alkali resistant fibers and other additives, characterized in that the silicate filler comprises, based on the dry mortar, 20 to 45 wt% particulate material having a particle size above 0.2 mm, and the dry mortar composition comprises less than 5 wt% of hydraulic binders and the aluminum hydroxide has a d50 particle size in the range of 2 to 200 μm, wherein the particle sizes are determined by sieving or laser scattering. - 5 to 15 wt% of organic polymer - 10 to 70 wt% of silicate filler - 10 to 70 wt% of calcium carbonate - 5 to 20 wt% aluminum hydroxide - 0 to 10 wt% of alkali resistant fibers and other additives, characterized in that the silicate filler comprises, based on the dry mortar, 20 to 45 wt% particulate material having a particle size above 0.2 mm, and the dry mortar composition comprises less than 5 wt% of hydraulic binders and the aluminum hydroxide has a d50 particle size in the range of 2 to 200 μm, wherein the particle sizes are determined by sieving or laser scattering.
A computer-implemented method of ensuring compliance of a plurality of certificate stores on a mobile device with a first information technology (IT) policy, the method comprising: detecting a certificate store migration triggering event, wherein detecting the certificate store migration triggering event comprises detecting that all of the plurality of certificate stores are concurrently accessible, wherein the plurality of certificate stores are located in multiple different encryption domains within a work perimeter of the mobile device, and wherein detecting that all of the plurality of certificate stores are concurrently accessible comprises detecting that the work perimeter is unlocked; in response to detecting the certificate store migration triggering event, initiating a bulk migration process to migrate each of the plurality of certificate stores to a respective version that is compliant with the first IT policy, the bulk migration process proceeding according to a predetermined order of certificate stores; receiving , from a client application resident on the mobile device, a request to access a first certificate store that has yet to be migrated; and executing an out-of-order migration of the first certificate store. detecting a certificate store migration triggering event, wherein detecting the certificate store migration triggering event comprises detecting that all of the plurality of certificate stores are concurrently accessible, wherein the plurality of certificate stores are located in multiple different encryption domains within a work perimeter of the mobile device, and wherein detecting that all of the plurality of certificate stores are concurrently accessible comprises detecting that the work perimeter is unlocked; in response to detecting the certificate store migration triggering event, initiating a bulk migration process to migrate each of the plurality of certificate stores to a respective version that is compliant with the first IT policy, the bulk migration process proceeding according to a predetermined order of certificate stores; receiving , from a client application resident on the mobile device, a request to access a first certificate store that has yet to be migrated; and executing an out-of-order migration of the first certificate store.
A food heating device , comprising: a placement device , comprising a casing and a placement boadr , the placement board being disposed in the casing and configured to place a food item; and a heating device , comprising a steam portion , a hot water portion and an injection member , wherein the steam portion and the hot water portion are in communication with the injection member, the injection member passes through the casing and is movably provided corresponding to the placement board, the steam portion and the hot water portion is configured to inject steam and hot water through the injection member into the food item on the placement board so as to heat the food item. a placement device , comprising a casing and a placement boadr , the placement board being disposed in the casing and configured to place a food item; and a heating device , comprising a steam portion , a hot water portion and an injection member , wherein the steam portion and the hot water portion are in communication with the injection member, the injection member passes through the casing and is movably provided corresponding to the placement board, the steam portion and the hot water portion is configured to inject steam and hot water through the injection member into the food item on the placement board so as to heat the food item.
A gyratory crusher topshell comprising: an annular shell wall extending around the axis , the wall having a radially outward facing surface , a radially inward facing surface , an axial upper annular end and an axial lower annular end for mating with a bottomshell; a plurality of crushing shell mount bores extending axially through the wall towards the lower annular end to receive clamp bolts to mount a crusher shell within the topshell; a radial thickness (J) of the annular wall at reinforced regions extending in the circumferential direction between and at an axial position of an axial upper end of the mount bores is greater than a radial thickness (I) of the annular wall at a position of each mount bore in the circumferential direction; a spider having arms extending radially outward from a boss positioned at a longitudinal axis extending through the topshell , to the axial upper annular end of the wall ; and the mount bores are distributed in a circumferential direction around the wall being positioned at regions not axially below a central region in the circumferential direction of a radially outer end of each of the arms , characterised in that , a width of each of the arms in a plane perpendicular to the longitudinal axis and in a radially inward direction increases at respective transition regions of connection with the hub , wherein a shape of the transition regions in the plane perpendicular to the axis is a generally linear taper or is generally convex and the transition regions terminate at an outward facing surface of the hub . an annular shell wall extending around the axis , the wall having a radially outward facing surface , a radially inward facing surface , an axial upper annular end and an axial lower annular end for mating with a bottomshell; a plurality of crushing shell mount bores extending axially through the wall towards the lower annular end to receive clamp bolts to mount a crusher shell within the topshell; a radial thickness (J) of the annular wall at reinforced regions extending in the circumferential direction between and at an axial position of an axial upper end of the mount bores is greater than a radial thickness (I) of the annular wall at a position of each mount bore in the circumferential direction; a spider having arms extending radially outward from a boss positioned at a longitudinal axis extending through the topshell , to the axial upper annular end of the wall ; and the mount bores are distributed in a circumferential direction around the wall being positioned at regions not axially below a central region in the circumferential direction of a radially outer end of each of the arms , characterised in that , a width of each of the arms in a plane perpendicular to the longitudinal axis and in a radially inward direction increases at respective transition regions of connection with the hub , wherein a shape of the transition regions in the plane perpendicular to the axis is a generally linear taper or is generally convex and the transition regions terminate at an outward facing surface of the hub .
A method for transmitting and/or receiving an optical signal through a fluid, the method comprising: using a pressure wave to cause a change in refractive index in the fluid, the change in refractive index causing a waveguide to be formed; and transmitting and/or receiving the optical signal through the waveguide. using a pressure wave to cause a change in refractive index in the fluid, the change in refractive index causing a waveguide to be formed; and transmitting and/or receiving the optical signal through the waveguide.