mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a first network node , for reducing the number of colliding transmissions in a mesh network , wherein the first network node and a second network node operate in the mesh network , and wherein the first network node and the second network node are configured to use periodic advertising for transmissions in the mesh network , and wherein the first network node is synchronized with the second node , the method comprising: calculating , a first duration, which first duration includes the time it takes to transmit data of a first size to the second network node and a further predetermined time period, characterized by : calculating a second duration, which is a time period from the start of the first size data transmission until a reception or a transmission of data for the second network node is scheduled to occur, if the second duration is longer than or equal to the first duration, performing transmission of data of the first size; and if the second duration is shorter than the first duration, decreasing the first size of the transmission to a second size, so that first duration becomes shorter than the second duration, and performing transmission of data of the second size. calculating , a first duration, which first duration includes the time it takes to transmit data of a first size to the second network node and a further predetermined time period, characterized by : calculating a second duration, which is a time period from the start of the first size data transmission until a reception or a transmission of data for the second network node is scheduled to occur, if the second duration is longer than or equal to the first duration, performing transmission of data of the first size; and if the second duration is shorter than the first duration, decreasing the first size of the transmission to a second size, so that first duration becomes shorter than the second duration, and performing transmission of data of the second size. calculating a second duration, which is a time period from the start of the first size data transmission until a reception or a transmission of data for the second network node is scheduled to occur, if the second duration is longer than or equal to the first duration, performing transmission of data of the first size; and if the second duration is shorter than the first duration, decreasing the first size of the transmission to a second size, so that first duration becomes shorter than the second duration, and performing transmission of data of the second size.
An integrated metal processing facility for forming and heat treating metal castings , comprising: - a pouring station for pouring a molten metal (M) into a series of molds to form the castings ; - a heat treatment unit including at least one heat treatment station for heat treating the castings ; and - a transfer system for moving the castings from said pouring station to said heat treatment unit , characterized by - a heat source positioned along a path of travel for the castings and along which the castings pass for applying heat to the castings during the transfer of the castings from the pouring station to the heat treatment unit for feeding into the heat treatment station and prior to introduction of the castings into said heat treatment station to arrest the cooling of the castings and maintain the castings at or above a process control temperature and below a solution heat treat temperature required for the metal of the castings ; wherein the metal is an aluminum/copper alloy and the process control temperature is from 400°C to 470°C; or wherein the metal is an iron alloy and the process control temperature is from 1000°C to 1300°C. - whereby as the castings are moved from said pouring station to said heat treatment unit , the molten metal of the castings is permitted to solidify while the castings are maintained at or above their process control temperature and below said solution heat treat temperature until the castings are introduced into said heat treatment station . - a pouring station for pouring a molten metal (M) into a series of molds to form the castings ; - a heat treatment unit including at least one heat treatment station for heat treating the castings ; and - a transfer system for moving the castings from said pouring station to said heat treatment unit , - a heat source positioned along a path of travel for the castings and along which the castings pass for applying heat to the castings during the transfer of the castings from the pouring station to the heat treatment unit for feeding into the heat treatment station and prior to introduction of the castings into said heat treatment station to arrest the cooling of the castings and maintain the castings at or above a process control temperature and below a solution heat treat temperature required for the metal of the castings ; wherein the metal is an aluminum/copper alloy and the process control temperature is from 400°C to 470°C; or wherein the metal is an iron alloy and the process control temperature is from 1000°C to 1300°C. - whereby as the castings are moved from said pouring station to said heat treatment unit , the molten metal of the castings is permitted to solidify while the castings are maintained at or above their process control temperature and below said solution heat treat temperature until the castings are introduced into said heat treatment station .
A turbine component , comprising: a first article including at least one first ceramic matrix composite ply , the first article being adjacent to a gas path ; a second article including at least one second ceramic matrix composite ply , the second article being adjacent to the gas path and the first article ; and a third article , the third article being adjacent to the first article and the second article , the first article and the second article being disposed between the third article and the gas path , wherein the at least one first ceramic matrix composite ply and the at least one second ceramic matrix composite ply define an interface , the interface including a first cooperating feature of the at least one first ceramic matrix composite ply and a second cooperating feature of the at least one second ceramic matrix composite ply , the first cooperating feature and the second cooperating feature defining a restricted flow path from the gas path to the third article , the restricted flow path including a reduced volumetric flow rate of a gas from the gas path to the third article relative to a non-restricted flow path of a non-cooperating interface . a first article including at least one first ceramic matrix composite ply , the first article being adjacent to a gas path ; a second article including at least one second ceramic matrix composite ply , the second article being adjacent to the gas path and the first article ; and a third article , the third article being adjacent to the first article and the second article , the first article and the second article being disposed between the third article and the gas path , wherein the at least one first ceramic matrix composite ply and the at least one second ceramic matrix composite ply define an interface , the interface including a first cooperating feature of the at least one first ceramic matrix composite ply and a second cooperating feature of the at least one second ceramic matrix composite ply , the first cooperating feature and the second cooperating feature defining a restricted flow path from the gas path to the third article , the restricted flow path including a reduced volumetric flow rate of a gas from the gas path to the third article relative to a non-restricted flow path of a non-cooperating interface .
A semiconductor device including a semiconductor chip (CHP) where a power transistor (Q1) and a capacitor element (CAP) electrically coupled with the power transistor (Q1) are formed, comprising: the power transistor (Q1) including: a source electrode (SE) and a drain electrode (DE) spaced from each other in a thickness direction of the semiconductor chip (CHP); a gate electrode (GE) which controls turning on/off a current flowing between the drain electrode (DE) and the source electrode (SE), the capacitor element (CAP) including: the source electrode (SE) being a lower electrode (BE); a capacitor insulating film (CIL) formed over the source electrode (SE); an upper electrode (UE) formed over the capacitor insulating film (CIL) and electrically coupled with the drain electrode (DE); a plurality of drain pads (DP1, DP2) electrically coupled with the upper electrode (UE) over the surface of the semiconductor chip (CHP); a first wire (W1) connected to the source electrode (SE); and a plurality of second wires (W3) each of which is connected to a corresponding one of the plurality of drain pads (DP), wherein the source electrode (SE) and the upper electrode (UE) have an overlapping portion in a plan view, wherein the plurality of drain pads (DP1, DP2) is arranged outside the active region in which the power transistor and the capacitor element are formed in a plan view. the power transistor (Q1) including: a source electrode (SE) and a drain electrode (DE) spaced from each other in a thickness direction of the semiconductor chip (CHP); a gate electrode (GE) which controls turning on/off a current flowing between the drain electrode (DE) and the source electrode (SE), a source electrode (SE) and a drain electrode (DE) spaced from each other in a thickness direction of the semiconductor chip (CHP); a gate electrode (GE) which controls turning on/off a current flowing between the drain electrode (DE) and the source electrode (SE), the capacitor element (CAP) including: the source electrode (SE) being a lower electrode (BE); a capacitor insulating film (CIL) formed over the source electrode (SE); an upper electrode (UE) formed over the capacitor insulating film (CIL) and electrically coupled with the drain electrode (DE); the source electrode (SE) being a lower electrode (BE); a capacitor insulating film (CIL) formed over the source electrode (SE); an upper electrode (UE) formed over the capacitor insulating film (CIL) and electrically coupled with the drain electrode (DE); a plurality of drain pads (DP1, DP2) electrically coupled with the upper electrode (UE) over the surface of the semiconductor chip (CHP); a first wire (W1) connected to the source electrode (SE); and a plurality of second wires (W3) each of which is connected to a corresponding one of the plurality of drain pads (DP), wherein the source electrode (SE) and the upper electrode (UE) have an overlapping portion in a plan view, wherein the plurality of drain pads (DP1, DP2) is arranged outside the active region in which the power transistor and the capacitor element are formed in a plan view.
Casting, in particular made of aluminum, for a motor vehicle, comprising at least two upper walls rising in a first direction (Z1) from a bottom wall , forming a passage, characterized in that it also comprises at least two lower walls extending the upper walls beyond the bottom wall in a second direction (Z2) opposite the first direction (Z1), such that the upper walls and lower walls form with the bottom wall a section transverse to the passage that has the overall shape of an H, the casting also comprising, in one or more given cross sections, at least one upper internal rib extending inside the H and transversely to the upper walls and to the bottom wall , at least one external rib extending outside the H in the extension of the upper internal rib , at least one lower internal rib extending inside the H and in the extension of the upper internal rib , the upper internal rib and the lower internal rib being shaped such that a reduced height of the upper internal rib in a central zone (ZC) of the H is compensated for by an increased height of the lower internal rib in the same central zone (ZC), this height being considered relative to the bottom wall .
An airfoil for a gas turbine engine, the airfoil comprising: a radially extending body having a transverse cross-section comprising: a leading edge (LE); a trailing edge (TE); a pressure side (PS) extending between the leading edge (LE) and the trailing edge (TE) with a predominantly concave curvature; and a suction side (SS) extending between the leading edge (LE) and the trailing edge (TE) with a predominantly convex curvature, characterized in that : the suction side (SS) comprises a forward portion , an aft portion , and an approximately flat portion extending from the forward portion to the aft portion , wherein the forward portion has positive curvature from the leading edge (LE) to the point at which it meets the approximately flat portion , and where the aft portion has positive curvature from the point at which it meets the approximately flat portion to the trailing edge (TE), wherein the approximately flat portion is formed by a series of local curvature changes that produce inflection points in the predominantly convex curvature of the suction side (SS). a radially extending body having a transverse cross-section comprising: a leading edge (LE); a trailing edge (TE); a pressure side (PS) extending between the leading edge (LE) and the trailing edge (TE) with a predominantly concave curvature; and a suction side (SS) extending between the leading edge (LE) and the trailing edge (TE) with a predominantly convex curvature, a leading edge (LE); a trailing edge (TE); a pressure side (PS) extending between the leading edge (LE) and the trailing edge (TE) with a predominantly concave curvature; and a suction side (SS) extending between the leading edge (LE) and the trailing edge (TE) with a predominantly convex curvature, characterized in that : the suction side (SS) comprises a forward portion , an aft portion , and an approximately flat portion extending from the forward portion to the aft portion , wherein the forward portion has positive curvature from the leading edge (LE) to the point at which it meets the approximately flat portion , and where the aft portion has positive curvature from the point at which it meets the approximately flat portion to the trailing edge (TE), wherein the approximately flat portion is formed by a series of local curvature changes that produce inflection points in the predominantly convex curvature of the suction side (SS).
A method of relocating to a multitude of landmarks (14-1, ..., 14-N) when geolocating a mobile device moving along a multitude of positions( M k+1 , M k ,..., M 0 ), the multitude of positions ( M k+1 , M k , ..., M 0 ) comprising a multitude of intermediate positions ( M k+1 , ..., M 1 ), the method comprising the following steps: - in each intermediate position ( M k+1 , ..., M 1 ) of the mobile device , acquisition of at least one sighting measurement ( m i ) relative to one of the landmarks (14-1, ..., 14-N) and of a speed measurement of the mobile device in this position; - in a position, referred to as the last position ( M 0 ), subsequent to each of the intermediate positions ( M k+1 , ..., M 1 ), determination of a differential position ( x i ) for each intermediate position ( M k+1 ,..., M 1 ), relative to the last position ( M 0 ), and of an uncertainty ( ε xi ) associated with this differential position ( x i ), from the corresponding speed measurements; - determination of the last position ( M 0 ) from the differential positions ( x i ), the sighting measurements ( m i ) and the uncertainties (ε xi ) associated with these differential positions, using a predetermined observation function (h) . - in each intermediate position ( M k+1 , ..., M 1 ) of the mobile device , acquisition of at least one sighting measurement ( m i ) relative to one of the landmarks (14-1, ..., 14-N) and of a speed measurement of the mobile device in this position; - in a position, referred to as the last position ( M 0 ), subsequent to each of the intermediate positions ( M k+1 , ..., M 1 ), determination of a differential position ( x i ) for each intermediate position ( M k+1 ,..., M 1 ), relative to the last position ( M 0 ), and of an uncertainty ( ε xi ) associated with this differential position ( x i ), from the corresponding speed measurements; - determination of the last position ( M 0 ) from the differential positions ( x i ), the sighting measurements ( m i ) and the uncertainties (ε xi ) associated with these differential positions, using a predetermined observation function (h) .
Process for the production of at least one patient-specific, modularly constructed bracket having a pad and a bracket body , the process comprising the steps: a) providing a raw pad library of raw pads , wherein same raw pads are filled into raw pad containers of the raw pad library , b) providing at least one bracket body library of bracket bodies , wherein same bracket bodies are filled into bracket body containers of the bracket body library , c) generating a patient-specific set-up, in particular of gypsum, of teeth to be treated of an upper jaw and/or a lower jaw of a patient, d) selecting a raw pad from the raw pad library for each tooth to be treated of the patient, e) forming a patient-specific bonding surface at each raw pad , whereby a pad is formed, f) selecting a bracket body from the bracket body library for each pad for the respective connection to the pad , g) connecting each pad to the corresponding bracket body , whereby a bracket for each tooth to be treated of the patient is formed. a) providing a raw pad library of raw pads , wherein same raw pads are filled into raw pad containers of the raw pad library , b) providing at least one bracket body library of bracket bodies , wherein same bracket bodies are filled into bracket body containers of the bracket body library , c) generating a patient-specific set-up, in particular of gypsum, of teeth to be treated of an upper jaw and/or a lower jaw of a patient, d) selecting a raw pad from the raw pad library for each tooth to be treated of the patient, e) forming a patient-specific bonding surface at each raw pad , whereby a pad is formed, f) selecting a bracket body from the bracket body library for each pad for the respective connection to the pad , g) connecting each pad to the corresponding bracket body , whereby a bracket for each tooth to be treated of the patient is formed.
A display device for a vehicle , the display device comprising: a first display configured to output first light forming first visual information; a second display configured to output second light forming second visual information; a light synthesizing unit located on an advancing path of each of the first light and the second light and forming a first acute angle with the first display and a second acute angle with the second display and configured to transmit therethrough the first light from the first display and reflect the second light from the second display ; characterized by a first tiltable reflector configured to reflect part of the second light directed toward the light synthesizing unit to be directed toward a first direction; and a second tiltable reflector configured to reflect part of the first light directed toward the light synthesizing unit to be directed toward a second direction different from the first direction. a first display configured to output first light forming first visual information; a second display configured to output second light forming second visual information; a light synthesizing unit located on an advancing path of each of the first light and the second light and forming a first acute angle with the first display and a second acute angle with the second display and configured to transmit therethrough the first light from the first display and reflect the second light from the second display ; characterized by a first tiltable reflector configured to reflect part of the second light directed toward the light synthesizing unit to be directed toward a first direction; and a second tiltable reflector configured to reflect part of the first light directed toward the light synthesizing unit to be directed toward a second direction different from the first direction.
A contrast medium generating and delivery device for sonographic imaging, comprising a container assembly comprising: a first syringe for containing a liquid; a second syringe for containing air and in fluid connection with an air port to atmosphere or other gas source; a first syringe plunger for moving the liquid into or from the first syringe ; a second syringe plunger for moving the air into or from the second syringe ; an exit port in fluid connection with a contrast medium generating chamber ; and connections for fluid connection of an outlet of the first syringe and an outlet of the second syringe to the contrast medium generating chamber , characterised in that : the first and second syringe plungers are configured to be moved simultaneously by an element connecting both ends of the first and second syringe plungers to simultaneously draw the liquid and air into the first and second syringes and to simultaneously dispense the liquid and air from the first and second syringes . a first syringe for containing a liquid; a second syringe for containing air and in fluid connection with an air port to atmosphere or other gas source; a first syringe plunger for moving the liquid into or from the first syringe ; a second syringe plunger for moving the air into or from the second syringe ; an exit port in fluid connection with a contrast medium generating chamber ; and connections for fluid connection of an outlet of the first syringe and an outlet of the second syringe to the contrast medium generating chamber , characterised in that : the first and second syringe plungers are configured to be moved simultaneously by an element connecting both ends of the first and second syringe plungers to simultaneously draw the liquid and air into the first and second syringes and to simultaneously dispense the liquid and air from the first and second syringes .