mhurhangee/patent-ind-claim-en huggingface dataset:
A fixing device comprising: an endless belt to rotate in a rotation direction; an opposed rotator to contact an outer circumferential surface of the endless belt to form a nip (N) between the endless belt and the opposed rotator ; a heater contacting an inner circumferential surface of the endless belt , the heater including a heat generator that is divided into a plurality of heat generating portions in an axial direction of the endless belt , the heat generator comprising a dividing region (A) defined as a region located between adjacent heat generating portions and a non-dividing region (B) defined as a region other than the dividing region (A) at which heat generating portions are located; and characterized by : a guide (26B; 26S; 26BS; 26BT), contacting the inner circumferential surface of the endless belt , to guide the endless belt , the guide (26B; 26S; 26BS; 26BT) being shifted with respect to the dividing region (A) so as to be disposed opposite a position corresponding to the non-dividing region (B) of the heat generator at which heat generating portions are located. an endless belt to rotate in a rotation direction; an opposed rotator to contact an outer circumferential surface of the endless belt to form a nip (N) between the endless belt and the opposed rotator ; a heater contacting an inner circumferential surface of the endless belt , the heater including a heat generator that is divided into a plurality of heat generating portions in an axial direction of the endless belt , the heat generator comprising a dividing region (A) defined as a region located between adjacent heat generating portions and a non-dividing region (B) defined as a region other than the dividing region (A) at which heat generating portions are located; and characterized by : a guide (26B; 26S; 26BS; 26BT), contacting the inner circumferential surface of the endless belt , to guide the endless belt , the guide (26B; 26S; 26BS; 26BT) being shifted with respect to the dividing region (A) so as to be disposed opposite a position corresponding to the non-dividing region (B) of the heat generator at which heat generating portions are located.
A stainless steel alloy, comprising, by weight: about 20% to about 35% chromium; about 10% to about 15% nickel; about 10% to about 15% cobalt; about 10% to about 15% molybdenum; about 2.0% to about 4.0% carbon; about 0.4% to about 2.5% silicon; about 0.0% to about 1.0% niobium; about 0.03% or less sulfur; about 0.03% or less phosphorus; about 0.03% or less nitrogen; less than about 0.005% boron; less than about 0.005% calcium; less than about 0.005% cerium; and a balance of iron and inevitable impurities, wherein the alloy contains no manganese, tungsten and vanadium. about 20% to about 35% chromium; about 10% to about 15% nickel; about 10% to about 15% cobalt; about 10% to about 15% molybdenum; about 2.0% to about 4.0% carbon; about 0.4% to about 2.5% silicon; about 0.0% to about 1.0% niobium; about 0.03% or less sulfur; about 0.03% or less phosphorus; about 0.03% or less nitrogen; less than about 0.005% boron; less than about 0.005% calcium; less than about 0.005% cerium; and a balance of iron and inevitable impurities, wherein the alloy contains no manganese, tungsten and vanadium.
An autoclave for heat curing, with high temperature gas, a heat application target molded material (W), the autoclave comprising: a pressure vessel in the interior of which the molded material (W) is to be arranged; a retaining jig for retaining the shape of the molded material (W), wherein the interior of the retaining jig is formed with a cavity ; a high temperature gas supplying device for supplying the high temperature gas to the molded material (W) within the pressure vessel ; and an auxiliary high temperature gas supplying device for supplying the high temperature gas into the cavity of the retaining jig , characterized in that the retaining jig is composed of a lower retaining jig which is to be arranged on a lower side of the molded material (W) to retain the target molded material (W) from a lower side thereof, and an upper retaining jig which is to be arranged on an upper side of the target molded material (W) to retain the target molded material (W) by sandwiching it from the upper side, the cavity with both ends open is formed in the upper retaining jig , and the auxiliary high temperature gas supplying device comprises a guide pipe that is arranged to take in a part of the high temperature gas that is supplied into the pressure vessel by the high temperature gas supplying device and to guide it into the cavity of the retaining jig to heat the molded material (W) sandwiched between the lower and upper retaining jigs . a pressure vessel in the interior of which the molded material (W) is to be arranged; a retaining jig for retaining the shape of the molded material (W), wherein the interior of the retaining jig is formed with a cavity ; a high temperature gas supplying device for supplying the high temperature gas to the molded material (W) within the pressure vessel ; and an auxiliary high temperature gas supplying device for supplying the high temperature gas into the cavity of the retaining jig , characterized in that the retaining jig is composed of a lower retaining jig which is to be arranged on a lower side of the molded material (W) to retain the target molded material (W) from a lower side thereof, and an upper retaining jig which is to be arranged on an upper side of the target molded material (W) to retain the target molded material (W) by sandwiching it from the upper side, the cavity with both ends open is formed in the upper retaining jig , and the auxiliary high temperature gas supplying device comprises a guide pipe that is arranged to take in a part of the high temperature gas that is supplied into the pressure vessel by the high temperature gas supplying device and to guide it into the cavity of the retaining jig to heat the molded material (W) sandwiched between the lower and upper retaining jigs .
A method for handling a data session in a user equipment, UE, the method comprising: initiating , by a connection tracker module of the UE, a data session of at least one application from a plurality of applications with a first communication interface using a first socket of the UE including a first socket file descriptor, SOCKFD, for the data session; classifying, by a classifier module of the UE, the plurality of applications running on the UE as handover-sensitive applications or handover insensitive applications based on at least one of a nature of the application or a latency requirement of the application; determining, by the classifier module of the UE, a communication protocol corresponding to a handover-sensitive application of the plurality of applications running on the UE; detecting , by a switchboard module of the UE, a deterioration in a network connection of the first communication interface; identifying , by the switchboard module of the UE, a second communication interface responsive to detecting the deterioration in the network connection; establishing , by a layer 4 network handover, NH4, module of the UE, a second socket including a second SOCKFD associated with the second communication interface; and migrating , by a NH4 migrator module of the UE, the data session from the first communication interface to the second communication interface by mapping, based on the determined communication protocol, the first SOCKFD corresponding to the first socket to the second SOCKFD corresponding to the second socket. initiating , by a connection tracker module of the UE, a data session of at least one application from a plurality of applications with a first communication interface using a first socket of the UE including a first socket file descriptor, SOCKFD, for the data session; classifying, by a classifier module of the UE, the plurality of applications running on the UE as handover-sensitive applications or handover insensitive applications based on at least one of a nature of the application or a latency requirement of the application; determining, by the classifier module of the UE, a communication protocol corresponding to a handover-sensitive application of the plurality of applications running on the UE; detecting , by a switchboard module of the UE, a deterioration in a network connection of the first communication interface; identifying , by the switchboard module of the UE, a second communication interface responsive to detecting the deterioration in the network connection; establishing , by a layer 4 network handover, NH4, module of the UE, a second socket including a second SOCKFD associated with the second communication interface; and migrating , by a NH4 migrator module of the UE, the data session from the first communication interface to the second communication interface by mapping, based on the determined communication protocol, the first SOCKFD corresponding to the first socket to the second SOCKFD corresponding to the second socket.
A bonder for bonding a corrugated sidewall section to a thermoplastic belt , comprising: a base on which a length of a thermoplastic belt with a corrugated sidewall section separated from an outer surface of the thermoplastic belt rests; a first heater jaw assembly above the base and having a vertical corrugated face and a heating element having a bonding strip along the bottom of the vertical corrugated face ; a second heater jaw assembly above the base and having a vertical corrugated face and a heating element having a bonding strip along the bottom of the vertical corrugated face ; wherein the vertical corrugated faces of the first and second heater jaw assemblies are complementary and confronting each other across an intervening corrugated slot in which the corrugated sidewall section is received; wherein the first and second heater jaw assemblies are disposed on the outer surface of the thermoplastic belt on opposite sides of the corrugated sidewall section ; wherein the heating elements of the first and second heater jaw assemblies transfer heat to the bonding strips to melt the bottom of the corrugated sidewall section on the opposite sides to bond the corrugated sidewall section to the outer surface of the thermoplastic belt . a base on which a length of a thermoplastic belt with a corrugated sidewall section separated from an outer surface of the thermoplastic belt rests; a first heater jaw assembly above the base and having a vertical corrugated face and a heating element having a bonding strip along the bottom of the vertical corrugated face ; a second heater jaw assembly above the base and having a vertical corrugated face and a heating element having a bonding strip along the bottom of the vertical corrugated face ; wherein the vertical corrugated faces of the first and second heater jaw assemblies are complementary and confronting each other across an intervening corrugated slot in which the corrugated sidewall section is received; wherein the first and second heater jaw assemblies are disposed on the outer surface of the thermoplastic belt on opposite sides of the corrugated sidewall section ; wherein the heating elements of the first and second heater jaw assemblies transfer heat to the bonding strips to melt the bottom of the corrugated sidewall section on the opposite sides to bond the corrugated sidewall section to the outer surface of the thermoplastic belt .
Method for operating an actuator for a motor vehicle by means of a control device , wherein the actuator has an actuating unit , an actuating drive and a signal input , wherein an actual value of the actuating drive is set as a function of a setpoint value received from the control device via the signal input and a threshold value stored in the actuator , wherein the threshold value defines a limit of the operating range of the actuator which may not be exceeded by the actual value of the actuating drive , characterized in that the threshold value is set equal to the setpoint value, if the setpoint value leaves the operating range of the actuator .
A data transmission method applied to a first device, the method comprises: obtaining first type of data according to a first transmission manner, wherein the first type of data is high-rate and high-error-tolerant data, and the first transmission manner comprises at least one of the following: a first verification mode used for transmitting the first type of data, a first retransmission mode used for transmitting the first type of data, and a first radio link control, RLC, mode used for transmitting the first type of data; wherein the first verification mode comprises the first type of data being transmitted without or with performing a verification by the first device; the first retransmission mode comprises the first type of data being transmitted without or with performing a retransmission feedback by the first device; and the first RLC mode comprises not feeding back or feeding back a notification message for notifying a data reception status at an RLC layer; wherein the method further comprises: receiving first information, wherein the first information is used to indicate that data to be transmitted by a network device is the first type of data; and determining, according to a preset correspondence between a data type and a transmission mode, and the first information, the first transmission manner for the network device to transmit the first type of data. obtaining first type of data according to a first transmission manner, wherein the first type of data is high-rate and high-error-tolerant data, and the first transmission manner comprises at least one of the following: a first verification mode used for transmitting the first type of data, a first retransmission mode used for transmitting the first type of data, and a first radio link control, RLC, mode used for transmitting the first type of data; wherein the first verification mode comprises the first type of data being transmitted without or with performing a verification by the first device; the first retransmission mode comprises the first type of data being transmitted without or with performing a retransmission feedback by the first device; and the first RLC mode comprises not feeding back or feeding back a notification message for notifying a data reception status at an RLC layer; wherein the method further comprises: receiving first information, wherein the first information is used to indicate that data to be transmitted by a network device is the first type of data; and determining, according to a preset correspondence between a data type and a transmission mode, and the first information, the first transmission manner for the network device to transmit the first type of data. receiving first information, wherein the first information is used to indicate that data to be transmitted by a network device is the first type of data; and determining, according to a preset correspondence between a data type and a transmission mode, and the first information, the first transmission manner for the network device to transmit the first type of data.
Adapter unit which is provided for coupling, in particular releasably coupling, a wiper blade to a wiper arm , having a wind deflector surface which is designed to deflect an incident flow of air and to press the wiper blade against a vehicle windscreen , wherein the wind deflector surface is bordered by a wind deflector surface periphery , and the wind deflector surface periphery has at least • a side facing the wind - which extends largely in a wiper arm direction - and • a side facing away from the wind - which extends largely in the wiper arm direction - and • a right side - which is disposed between the side facing the wind and the side facing away from the wind and is disposed on that wiper arm side of the adapter on which it is provided that the adapter unit is coupled to the wiper arm - and • a rear left side - which adjoins the side facing away from the wind and is disposed on that side of the adapter that is situated opposite the wiper arm side - and • a front left side - which adjoins the side facing the wind and is disposed on that side of the adapter that is situated opposite the wiper arm side, characterized in that the side facing away from the wind and the right side define a rear angle of between 110° and 160°, preferably between 120° and 150°, particularly preferably between 130° and 140°, wherein the side facing the wind is disposed at a front right-hand angle of between 2.5° and 15.0° relative to the side facing away from the wind. • a side facing the wind - which extends largely in a wiper arm direction - and • a side facing away from the wind - which extends largely in the wiper arm direction - and • a right side - which is disposed between the side facing the wind and the side facing away from the wind and is disposed on that wiper arm side of the adapter on which it is provided that the adapter unit is coupled to the wiper arm - and • a rear left side - which adjoins the side facing away from the wind and is disposed on that side of the adapter that is situated opposite the wiper arm side - and • a front left side - which adjoins the side facing the wind and is disposed on that side of the adapter that is situated opposite the wiper arm side,
Food container for storing, transporting, heating and serving food, including a lower dish , a cover and a sealing interconnecting both, with the lower dish having worked thereinto at least one dish-shaped chamber for receiving food, which is opposed by one congruent chamber in the cover , and the chambers in the lower dish and in the cover being surrounded by circumferential walls , with said walls of the cover comprising grooves for being engaged by the sealing , with said circumferential walls of the lower dish and/or the cover comprising a continuously formed groove of a U-shaped cross-section, which groove is for the engagement by the integrally formed sealing made of elastic material, which, as an independent locking body, is removably inserted into the cover , characterized in that the sealing has a U-shaped cross-section having two parallel struts connected to each other by a base rail integrally formed therewith and engaging with the groove of the walls of the cover .
A wirelessly chargeable battery apparatus comprising: a housing configured in dimensions that conform to standardized battery dimensions; one or more antennas situated within the housing, the antennas configured to receive wireless radio frequency, RF, power from a wireless charging system; one or more electronic circuit boards situated within the housing, the one or more electronic circuit boards configured to convert the received wireless RF power to direct current, DC, power; and one or more battery modules configured to store the DC power; characterized in that the one or more antennas have configurable polarity, and the wirelessly chargeable battery apparatus is configured to determine and configure an optimal antenna polarity of the one or more antennas by: for each of a plurality of antenna polarity modes, configuring the one or more antennas based on the respective antenna polarity mode and measuring an amount of wireless power received; and selecting for each antenna the antenna polarity mode having the highest amount of measured wireless power to be the optimal antenna polarity. a housing configured in dimensions that conform to standardized battery dimensions; one or more antennas situated within the housing, the antennas configured to receive wireless radio frequency, RF, power from a wireless charging system; one or more electronic circuit boards situated within the housing, the one or more electronic circuit boards configured to convert the received wireless RF power to direct current, DC, power; and one or more battery modules configured to store the DC power; characterized in that the one or more antennas have configurable polarity, and the wirelessly chargeable battery apparatus is configured to determine and configure an optimal antenna polarity of the one or more antennas by: for each of a plurality of antenna polarity modes, configuring the one or more antennas based on the respective antenna polarity mode and measuring an amount of wireless power received; and selecting for each antenna the antenna polarity mode having the highest amount of measured wireless power to be the optimal antenna polarity. for each of a plurality of antenna polarity modes, configuring the one or more antennas based on the respective antenna polarity mode and measuring an amount of wireless power received; and selecting for each antenna the antenna polarity mode having the highest amount of measured wireless power to be the optimal antenna polarity.
Calibration system of calibrating an optical sensor mounted on board of a vehicle comprising: a test station consisting of a horizontal or inclined support zone for supporting the vehicle ; a projection surface for images or videos, said projection surface being located in front of said test station ; at least one memory containing a plurality of images and/or videos archived by type of optical sensor; a calibration unit for calibrating the optical sensor configured to adjust the position of the optical axis of said optical sensor ; a control unit which, in response to a signal (S1) representing the type of said optical sensor , is configured to: - search in said memory for at least one image or video archived in association with the type of said optical sensor ; - adapt or deform the image or video found in said memory to the size of the projection surface if the vehicle is placed on the inclined support zone of the test station so that the image or video is deformed rather than adjusting the spatial position of the projection surface with respect to the optical sensor ; - command the projection onto said projection surface of the image or video found in said memory or the adapted or deformed version of said image or said video; - interface with said calibration unit . a test station consisting of a horizontal or inclined support zone for supporting the vehicle ; a projection surface for images or videos, said projection surface being located in front of said test station ; at least one memory containing a plurality of images and/or videos archived by type of optical sensor; a calibration unit for calibrating the optical sensor configured to adjust the position of the optical axis of said optical sensor ; a control unit which, in response to a signal (S1) representing the type of said optical sensor , is configured to: - search in said memory for at least one image or video archived in association with the type of said optical sensor ; - adapt or deform the image or video found in said memory to the size of the projection surface if the vehicle is placed on the inclined support zone of the test station so that the image or video is deformed rather than adjusting the spatial position of the projection surface with respect to the optical sensor ; - command the projection onto said projection surface of the image or video found in said memory or the adapted or deformed version of said image or said video; - interface with said calibration unit . - search in said memory for at least one image or video archived in association with the type of said optical sensor ; - adapt or deform the image or video found in said memory to the size of the projection surface if the vehicle is placed on the inclined support zone of the test station so that the image or video is deformed rather than adjusting the spatial position of the projection surface with respect to the optical sensor ; - command the projection onto said projection surface of the image or video found in said memory or the adapted or deformed version of said image or said video; - interface with said calibration unit .