mhurhangee/ep-ind-claims huggingface dataset:
A steering control device, comprising: a steering unit mechanically separated from a turning unit for turning a turnable wheel (5FL, 5FR) and that receives steering input from a driver, characterized by a steering reaction force control means that sets a steering reaction force characteristic to coordinates, of which the coordinate axes are the self-aligning torque and the steering reaction force, so that the self-aligning torque increases as the steering reaction force increases and that applies a steering reaction force to the steering unit based on the steering reaction force characteristic; a curvature detection means for detecting a curvature of a white line; an offset means for calculating an offset amount that increases as the detected curvature increases and that offsets the steering reaction force characteristic at the coordinates only by the offset amount in the same coding direction as the self-aligning torque; a lateral acceleration detection means for detecting a lateral acceleration of a vehicle; and an offset suppression means for suppressing an increase in the offset amount more as an absolute value of the detected lateral acceleration increases. a steering unit mechanically separated from a turning unit for turning a turnable wheel (5FL, 5FR) and that receives steering input from a driver, characterized by a steering reaction force control means that sets a steering reaction force characteristic to coordinates, of which the coordinate axes are the self-aligning torque and the steering reaction force, so that the self-aligning torque increases as the steering reaction force increases and that applies a steering reaction force to the steering unit based on the steering reaction force characteristic; a curvature detection means for detecting a curvature of a white line; an offset means for calculating an offset amount that increases as the detected curvature increases and that offsets the steering reaction force characteristic at the coordinates only by the offset amount in the same coding direction as the self-aligning torque; a lateral acceleration detection means for detecting a lateral acceleration of a vehicle; and an offset suppression means for suppressing an increase in the offset amount more as an absolute value of the detected lateral acceleration increases.
Boom arm, in particular for the distribution mast of a concrete pump, having a first and a second end (10, 11), wherein between the first and the second end (10, 11) of the boom arm there is provided at least one offset portion in which main bending loads occurring with proper use act as torsional loads, wherein, away from the offset region, the height (h) of the boom arm is greater in cross section than the width (b) of the boom arm in cross section and, in the offset region, the width (b) of the boom arm in cross section is greater than or equal to the height (h) of the boom arm in cross section, characterized in that the boom arm is made of fibre composite material, and in that the cross section of the boom arm in and/or away from the offset region is based on a substantially octagonal basic shape having a p4 symmetry, wherein the boom arm is convexly curved outwardly in cross section at least on some of the edges (15, 15', 15") of the boom arm.
An air compressor unit for vehicle to be mounted on a vehicle, comprising: an air compressor for compressing sucked air; an electric motor for driving the air compressor; an after-cooler for cooling compressed air generated in the air compressor; wherein the air compressor and the electric motor being arranged one above the other characterized in that the after-cooler includes: an air compressor cooling fan configured to cool the air compressor; and a further after-cooler cooling fan for generating cooling air flow for the after-cooler; a first cooling unit having a first flow passage in which the compressed air generated in the air compressor flows and which is cooled by the cooling air flow generated by the air compressor cooling fan; and a second cooling unit having a second flow passage into which the compressed air cooled in the first cooling unit flows and configured to be cooled by the cooling air flow generated by the after-cooler cooling fan. an air compressor for compressing sucked air; an electric motor for driving the air compressor; an after-cooler for cooling compressed air generated in the air compressor; wherein the air compressor and the electric motor being arranged one above the other characterized in that the after-cooler includes: an air compressor cooling fan configured to cool the air compressor; and a further after-cooler cooling fan for generating cooling air flow for the after-cooler; a first cooling unit having a first flow passage in which the compressed air generated in the air compressor flows and which is cooled by the cooling air flow generated by the air compressor cooling fan; and a second cooling unit having a second flow passage into which the compressed air cooled in the first cooling unit flows and configured to be cooled by the cooling air flow generated by the after-cooler cooling fan. an air compressor cooling fan configured to cool the air compressor; and a further after-cooler cooling fan for generating cooling air flow for the after-cooler; a first cooling unit having a first flow passage in which the compressed air generated in the air compressor flows and which is cooled by the cooling air flow generated by the air compressor cooling fan; and a second cooling unit having a second flow passage into which the compressed air cooled in the first cooling unit flows and configured to be cooled by the cooling air flow generated by the after-cooler cooling fan.
A molded part, comprising an opaque decorative layer, having a front side designed as a visible side and a back side opposite the front side, wherein at least two symbols (29; 30) are provided on the front side, a transparent or translucent substrate having a substrate front side facing the back side of the decorative layer and having a substrate back side, wherein the decorative layer has one or more first light channels for transmitting light from the back side of the decorative layer to the front side of the decorative layer, which is designed as the visible side, wherein the first light channels extend through the decorative layer and are provided for representing a first symbol on the front side of the decorative layer, one or more first function elements, wherein each first function element has a first light element, wherein the first light elements are provided for illuminating the first light channels with a first light color for representing the first symbol on the front side of the decorative layer, a first function layer having a front side facing the decorative layer, wherein the first function layer is provided on the back side of the substrate, wherein the first function elements are provided on the front side of the first function layer, wherein the decorative layer has one or more second light channels for transmitting light from the back side of the decorative layer to the front side of the decorative layer, which is designed as the visible side, wherein the second light channels extend through the decorative layer and are provided for representing a second symbol on the front side of the decorative layer, characterized in that one or more second function elements are provided, wherein each second function element has a second light element, the second light elements being provided for illuminating the second light channels with a second light color for representing the second symbol on the front side of the decorative layer; a second function layer is provided, the second function layer being provided on the back side of the decorative layer, and the second function elements being provided in or on the second function layer, and the second function elements being provided in and/or on at least in some sections in the second light channels, the second function elements covering the second light channels of the decorative layer in such a way that the second light channels are sealed off or isolated from the light of the first light elements.
A method of making a vacuum insulated glass window unit, the method comprising: providing a first substrate having a hole (10, 22) defined therein; applying a frit inclusive paste to at least a lower portion of a pump-out tube; and inserting an end of the pump-out tube on which the frit inclusive paste has been applied into the hole (10, 22) defined in the first substrate. providing a first substrate having a hole (10, 22) defined therein; applying a frit inclusive paste to at least a lower portion of a pump-out tube; and inserting an end of the pump-out tube on which the frit inclusive paste has been applied into the hole (10, 22) defined in the first substrate.
An X-ray tube device comprising: an anode; and a cathode including an emitter emitting an electron to the anode, wherein the emitter includes: an electron emission portion formed in a flat plate shape by a current path, a pair of terminal portions extending from the electron emission portion, connected to an electrode, the current path including at least a first portion on the outer peripheral side extending from one of the terminal portions towards the other of the terminal portions and a second portion extending from the other of the terminal portions toward the one of the terminal portions on an inner peripheral side with respect to the first portion continuously from the first portion, characterized in that the X-ray tube device further comprises a supporting portion provided separately from the terminal portions, insulated from the electrode, supporting the electron emission portion, and in that the supporting portion is arranged to support a connection portion between the first portion and the second portion. an anode; and a cathode including an emitter emitting an electron to the anode, wherein the emitter includes: an electron emission portion formed in a flat plate shape by a current path, a pair of terminal portions extending from the electron emission portion, connected to an electrode, the current path including at least a first portion on the outer peripheral side extending from one of the terminal portions towards the other of the terminal portions and a second portion extending from the other of the terminal portions toward the one of the terminal portions on an inner peripheral side with respect to the first portion continuously from the first portion, characterized in that the X-ray tube device further comprises a supporting portion provided separately from the terminal portions, insulated from the electrode, supporting the electron emission portion, and in that the supporting portion is arranged to support a connection portion between the first portion and the second portion. an electron emission portion formed in a flat plate shape by a current path, a pair of terminal portions extending from the electron emission portion, connected to an electrode, the current path including at least a first portion on the outer peripheral side extending from one of the terminal portions towards the other of the terminal portions and a second portion extending from the other of the terminal portions toward the one of the terminal portions on an inner peripheral side with respect to the first portion continuously from the first portion, characterized in that the X-ray tube device further comprises a supporting portion provided separately from the terminal portions, insulated from the electrode, supporting the electron emission portion, and in that the supporting portion is arranged to support a connection portion between the first portion and the second portion.
A light-emitting device comprising: a base including a conductive wiring; a light-emitting element mounted on the base and configured to emit light; a light reflective film provided on an upper surface of the light-emitting element; and an encapsulant covering the light-emitting element and the light reflective film wherein the encapsulant has an upper surface with a convex curved shape, characterized in that a ratio (H/W) of a height of the encapsulant to a width of a bottom surface of the encapsulant is 0.3 or less. a base including a conductive wiring; a light-emitting element mounted on the base and configured to emit light; a light reflective film provided on an upper surface of the light-emitting element; and an encapsulant covering the light-emitting element and the light reflective film wherein the encapsulant has an upper surface with a convex curved shape, characterized in that a ratio (H/W) of a height of the encapsulant to a width of a bottom surface of the encapsulant is 0.3 or less.
A method for using an interworking service between Converged IP Messaging, CPM, and Short Message Service, SMS, provided by an Internet Protocol Short Message Gateway, IP-SM-GW the method comprising: - sending, by a CPM User Equipment, UE, a chat session invitation toward an SMS enabled UE, and sending, by the CPM UE, a message containing data, within the chat session, towards the SMS UE, the chat session invitation and the message containing data being sent through the IP-SM-GW; and - receiving, by the CPM UE, an invitation acknowledgement from the IP-SM-GW; wherein, by sending the message containing data, the CPM UE initiates formatting of the message containing data into an SMS message by the IP-SM-GW and characterized in that by sending the chat session invitation, the CPM UE initiates assignment of a Mobile Station International Subscriber Directory Number, MSISDN, to the chat session and insertion of the MSISDN as a sender of the SMS message by the IP-SM-GW to ensure that an SMS response is sent back to the CPM UE through the IP-SM-GW. - sending, by a CPM User Equipment, UE, a chat session invitation toward an SMS enabled UE, and sending, by the CPM UE, a message containing data, within the chat session, towards the SMS UE, the chat session invitation and the message containing data being sent through the IP-SM-GW; and - receiving, by the CPM UE, an invitation acknowledgement from the IP-SM-GW;
An anastomotic connector comprising: (i) an endovascular component comprising: a vascular conduit including first and second ends (98, 100) and a lumen extending therebetween, wherein the vascular conduit is configured to reside within a vascular structure; and a supply conduit having a proximal end, a distal end, and a lumen extending therebetween, wherein the distal end of the supply conduit fluidicly connects to the lumen of the vascular conduit between the first and second ends, and wherein the supply conduit forms a bifurcation joint with the vascular conduit; and (ii) a cannula component having a proximal end, a distal end, a lumen extending therebetween, wherein the cannula component is adapted to be received by the supply conduit and extend proximally therefrom, and characterized in that the cannula component further comprises a distal seal ring and wherein the distal seal ring is adapted to provide an interference fit at the bifurcation joint. (i) an endovascular component comprising: a vascular conduit including first and second ends (98, 100) and a lumen extending therebetween, wherein the vascular conduit is configured to reside within a vascular structure; and a supply conduit having a proximal end, a distal end, and a lumen extending therebetween, wherein the distal end of the supply conduit fluidicly connects to the lumen of the vascular conduit between the first and second ends, and wherein the supply conduit forms a bifurcation joint with the vascular conduit; and a vascular conduit including first and second ends (98, 100) and a lumen extending therebetween, wherein the vascular conduit is configured to reside within a vascular structure; and a supply conduit having a proximal end, a distal end, and a lumen extending therebetween, wherein the distal end of the supply conduit fluidicly connects to the lumen of the vascular conduit between the first and second ends, and wherein the supply conduit forms a bifurcation joint with the vascular conduit; and (ii) a cannula component having a proximal end, a distal end, a lumen extending therebetween, wherein the cannula component is adapted to be received by the supply conduit and extend proximally therefrom, and characterized in that the cannula component further comprises a distal seal ring and wherein the distal seal ring is adapted to provide an interference fit at the bifurcation joint.
A method for creating an incremental backup of a database following a preceding backup, being implemented by a computing system including one or more physical processors and storage media storing machine-readable instructions, the method comprising: identifying a list of data files required for restoring the database, wherein the list consists of the extant data files present in the database and wherein the data files are immutable; creating a backup comprising copies of a subset of the data files that are created or modified after the preceding backup, wherein the subset of data files is identified by comparing the list of the backup to the corresponding list stored within the preceding backup, and the data files which have been modified are stored as replacement updated data files; and backing up the database, wherein the backup includes an identification to the preceding backup. identifying a list of data files required for restoring the database, wherein the list consists of the extant data files present in the database and wherein the data files are immutable; creating a backup comprising copies of a subset of the data files that are created or modified after the preceding backup, wherein the subset of data files is identified by comparing the list of the backup to the corresponding list stored within the preceding backup, and the data files which have been modified are stored as replacement updated data files; and backing up the database, wherein the backup includes an identification to the preceding backup.
Extracorporeal blood treatment device (EKBV, 10) having a function-monitoring system, wherein the EKBV comprises an afferent line and an efferent line for connecting to the vascular system of a patient, wherein in a first circuit the EKBV has at least one first pump arranged between the afferent line and the efferent line for moving patient's blood, and comprises temperature-influencing means in a second, liquid-filled circuit that is thermally connected to the first circuit of the EKBV by a heat exchanger, wherein the function-monitoring system comprises the following: a. a temperature sensor TS2 auf arranged in the second circuit upstream of the heat exchanger and a temperature sensor TS2 ab arranged in the second circuit downstream of the heat exchanger; b. a temperature sensor TS1 ab arranged in the efferent line of the first circuit of the EKBV downstream of the heat exchanger; c. a computer system connected to the temperature sensors (TS2 auf, TS2 ab, TS1 ab) and the temperature influencing means, and configured to use the temperature influencing means to induce a temperature bolus in the second circuit of the EKBV, to record the temperatures T2 auf, TS2 ab, TS1 ab detected at the temperature sensors TS2 auf, TS2 ab, TS1 ab, respectively, as a function of time and to determine and evaluate corresponding thermodilution curves, and is furthermore configured to relate TDK2 ab and TDK1 ab to one another and to determine an indicator of the EKBV function from the relationship of TDK2 ab and TDK1 ab. a. a temperature sensor TS2 auf arranged in the second circuit upstream of the heat exchanger and a temperature sensor TS2 ab arranged in the second circuit downstream of the heat exchanger; b. a temperature sensor TS1 ab arranged in the efferent line of the first circuit of the EKBV downstream of the heat exchanger; c. a computer system connected to the temperature sensors (TS2 auf, TS2 ab, TS1 ab) and the temperature influencing means, and configured to use the temperature influencing means to induce a temperature bolus in the second circuit of the EKBV, to record the temperatures T2 auf, TS2 ab, TS1 ab detected at the temperature sensors TS2 auf, TS2 ab, TS1 ab, respectively, as a function of time and to determine and evaluate corresponding thermodilution curves, and is furthermore configured to relate TDK2 ab and TDK1 ab to one another and to determine an indicator of the EKBV function from the relationship of TDK2 ab and TDK1 ab.
A method for encoding an audio signal into a bitstream, in particular at an encoder, the method comprising: encoding or including audio signal data associated with Three Degrees of Freedom, 3DoF, audio rendering into one or more first bitstream parts of the bitstream; and encoding or including metadata associated with Six Degrees of Freedom, 6DoF, audio rendering into one or more second bitstream parts of the bitstream, wherein the method further includes: receiving audio signals from one or more audio sources; determining a parametrization of a transform function A based on environmental characteristics and parameters relating to distance attenuation, occlusion, and/or reverberations and providing a parametrized transform function A, wherein A A -1 ≈ 1 and A -1 A ≈ 1; and generating the audio signal data associated with 3DoF audio rendering by transforming the audio signals from the one or more audio sources into 3DoF audio signals using the transform function A, wherein the transform function A maps or projects the audio signals of the one or more audio sources onto respective audio objects positioned on one or more spheres surrounding a default 3DoF listener position. encoding or including audio signal data associated with Three Degrees of Freedom, 3DoF, audio rendering into one or more first bitstream parts of the bitstream; and encoding or including metadata associated with Six Degrees of Freedom, 6DoF, audio rendering into one or more second bitstream parts of the bitstream, wherein the method further includes: receiving audio signals from one or more audio sources; determining a parametrization of a transform function A based on environmental characteristics and parameters relating to distance attenuation, occlusion, and/or reverberations and providing a parametrized transform function A, wherein A A -1 ≈ 1 and A -1 A ≈ 1; and generating the audio signal data associated with 3DoF audio rendering by transforming the audio signals from the one or more audio sources into 3DoF audio signals using the transform function A, wherein the transform function A maps or projects the audio signals of the one or more audio sources onto respective audio objects positioned on one or more spheres surrounding a default 3DoF listener position. receiving audio signals from one or more audio sources; determining a parametrization of a transform function A based on environmental characteristics and parameters relating to distance attenuation, occlusion, and/or reverberations and providing a parametrized transform function A, wherein A A -1 ≈ 1 and A -1 A ≈ 1; and generating the audio signal data associated with 3DoF audio rendering by transforming the audio signals from the one or more audio sources into 3DoF audio signals using the transform function A, wherein the transform function A maps or projects the audio signals of the one or more audio sources onto respective audio objects positioned on one or more spheres surrounding a default 3DoF listener position.