mhurhangee/patent-ind-claim-en huggingface dataset:
Pump device for conveying at least one conveying medium, in particular at least one fluid, with at least one drive unit and with at least one conveying device , in particular a conveying membrane, comprising at least one at least substantially ring-shaped base body that is elastically deformable and has at least one conveying surface arranged on a conveying side of the base body , and comprising at least one activation element for a connection with at least one drive element of the drive unit which is arranged on an activation side of the base body , wherein the activation element is implemented as a positive-locking and/or non-positive-locking element which, at least for a transmission of a drive force acting in a direction that points away from the activation side via a positive-locking and/or non-positive-locking connection, in particular via a positive-locking and/or non-positive-locking connection free of a substance-to-substance bond, acts together with the drive element , wherein the direction that points away from the activation side runs transversely, in particular at least substantially perpendicularly, to a movement axis, in particular a rotation axis, of the drive element of the drive unit , characterized in that the activation element has a maximum longitudinal extension that is smaller than a maximum longitudinal extension of the base body , viewed along a circumferential direction running around a drive axis of the drive unit .
A travel control method for a vehicle (V), including autonomous steering control for autonomously controlling steering of the vehicle (V), the travel control method comprising: detecting a travel scene of the vehicle (V) during execution of the autonomous steering control; setting a plurality of cancellation thresholds of steering torque of the steering wheel operated by the driver corresponding to respective travel scenes, the cancellation thresholds being used for canceling the autonomous steering control and transitioning to the driver's manual operation; extracting a cancellation threshold corresponding to the detected travel scene from among the plurality of set cancellation thresholds; and determining, based on the extracted cancellation threshold, whether or not to cancel the autonomous steering control and transition to the driver's manual operation, wherein in a case in which the autonomous steering control is canceled and transitions to a driver's manual operation when steering torque of a steering wheel operated by the driver exceeds a standard cancellation threshold, the travel scene includes a first travel scene of traveling from within an area subjected to the autonomous steering control to outside the area, and a first cancellation threshold smaller than the standard cancellation threshold is set for the first travel scene. detecting a travel scene of the vehicle (V) during execution of the autonomous steering control; setting a plurality of cancellation thresholds of steering torque of the steering wheel operated by the driver corresponding to respective travel scenes, the cancellation thresholds being used for canceling the autonomous steering control and transitioning to the driver's manual operation; extracting a cancellation threshold corresponding to the detected travel scene from among the plurality of set cancellation thresholds; and determining, based on the extracted cancellation threshold, whether or not to cancel the autonomous steering control and transition to the driver's manual operation, wherein in a case in which the autonomous steering control is canceled and transitions to a driver's manual operation when steering torque of a steering wheel operated by the driver exceeds a standard cancellation threshold, the travel scene includes a first travel scene of traveling from within an area subjected to the autonomous steering control to outside the area, and a first cancellation threshold smaller than the standard cancellation threshold is set for the first travel scene.
A tube pump comprising: a first contact member that rotates around a first axis (X1) while being in contact with a tube arranged in a circular-arc shape around the first axis (X1); a second contact member that rotates around the first axis (X1) while being in contact with the tube; a shaft member that is arranged on the first axis (X1) and is coupled to the first contact member ; a cylindrical member that is rotatably arranged around the first axis (X1) independently from the shaft member on an outer peripheral side of the shaft member , and is coupled to the second contact member ; a first drive unit that has a first drive shaft arranged on the first axis (X1) and coupled to the shaft member , and rotates the first drive shaft around the first axis (X1); a second drive unit that has a second drive shaft arranged on a second axis (X2) parallel to the first axis (X1), and rotates the second drive shaft around the second axis (X2); and a transmission unit that transmits a drive force of the second drive shaft around the second axis (X2) to an outer peripheral surface of the cylindrical member , and rotates the cylindrical member around the first axis (X1), wherein the first drive unit and the second drive unit are arranged so that a first arrangement position of the first drive unit and a second arrangement position of the second drive unit in a first axis direction along the first axis (X1) overlap with each other. a first contact member that rotates around a first axis (X1) while being in contact with a tube arranged in a circular-arc shape around the first axis (X1); a second contact member that rotates around the first axis (X1) while being in contact with the tube; a shaft member that is arranged on the first axis (X1) and is coupled to the first contact member ; a cylindrical member that is rotatably arranged around the first axis (X1) independently from the shaft member on an outer peripheral side of the shaft member , and is coupled to the second contact member ; a first drive unit that has a first drive shaft arranged on the first axis (X1) and coupled to the shaft member , and rotates the first drive shaft around the first axis (X1); a second drive unit that has a second drive shaft arranged on a second axis (X2) parallel to the first axis (X1), and rotates the second drive shaft around the second axis (X2); and a transmission unit that transmits a drive force of the second drive shaft around the second axis (X2) to an outer peripheral surface of the cylindrical member , and rotates the cylindrical member around the first axis (X1), wherein the first drive unit and the second drive unit are arranged so that a first arrangement position of the first drive unit and a second arrangement position of the second drive unit in a first axis direction along the first axis (X1) overlap with each other.
A method of receiving a downlink signal performed by a machine type communication user equipment, MTC UE, in a wireless communication system, the method comprising: obtaining (S1305) frequency hopping information on a plurality of subbands contained in a downlink band; and repeatedly receiving (S1310) the downlink signal via different subbands based on the frequency hopping information, wherein the downlink band comprises ⌊ N RB 6 ⌋ number of subbands each configured as 6 resource block, RB, size, where 'N RB ' denotes a total number of RBs included in the downlink band, and '└ ┘' denotes a floor function, wherein if a remaining band which does not belong to the ⌊ N RB 6 ⌋ number of subbands and is smaller than 6 RB size exists in the downlink band, at least one of a lowest index RB, a highest index RB and an intervening RB between subband groups in the downlink band is configured as the remaining band, wherein the downlink signal includes a MTC physical downlink shared channel, PDSCH, and wherein a frequency hopping pattern of the MTC PDSCH included in the frequency hopping information is determined based on whether system information is mapped to the MTC PDSCH, or not. obtaining (S1305) frequency hopping information on a plurality of subbands contained in a downlink band; and repeatedly receiving (S1310) the downlink signal via different subbands based on the frequency hopping information, wherein the downlink band comprises ⌊ N RB 6 ⌋ number of subbands each configured as 6 resource block, RB, size, where 'N RB ' denotes a total number of RBs included in the downlink band, and '└ ┘' denotes a floor function, wherein if a remaining band which does not belong to the ⌊ N RB 6 ⌋ number of subbands and is smaller than 6 RB size exists in the downlink band, at least one of a lowest index RB, a highest index RB and an intervening RB between subband groups in the downlink band is configured as the remaining band, wherein the downlink signal includes a MTC physical downlink shared channel, PDSCH, and wherein a frequency hopping pattern of the MTC PDSCH included in the frequency hopping information is determined based on whether system information is mapped to the MTC PDSCH, or not.
A fluid sand falling type circulating fluidized bed boiler with a plurality of risers, comprising: a boiler section into which fuel and oxidizer are injected; a riser section connected to the boiler section so that the fuel and fluid sand supplied from the boiler section are introduced from the bottom of the riser section and flow up; and a relay section provided on the boiler section to supply the fluid sand having passed through the riser section to the boiler section , wherein the boiler is configured such that the fuel is injected from the top of the boiler section and burned while flowing down therein. a boiler section into which fuel and oxidizer are injected; a riser section connected to the boiler section so that the fuel and fluid sand supplied from the boiler section are introduced from the bottom of the riser section and flow up; and a relay section provided on the boiler section to supply the fluid sand having passed through the riser section to the boiler section , wherein the boiler is configured such that the fuel is injected from the top of the boiler section and burned while flowing down therein.
An ethylene-1-hexene-1-butene terpolymer, of which CI (Co-monomer Incorporation) Index represented by the following Equation 1 is 0.5 to 5; density is 0.900 to 0.916 g/cm 3 ; melt index (MI) measured according to ASTM D1238 at 190°C and 2.16 kg load condition is 2.0 to 5.0 g/10mins; and weight ratio of 1-hexene to 1-butene is 1 to 5: CI Index = SCB content at high molecular weight side − SCB content at low molecular weight side SCB content at low molecular weight side in Equation 1, the SCB (short chain branch) content (unit: ea/1,000C) means the content of C2-C7 branches per 1000 carbons, and the SCB content at low molecular weight side and the SCB content at high molecular weight side mean the SCB content values at the left boundary (the SCB content at low molecular weight side) and the right boundary (the SCB content at high molecular weight side) of the middle range that occupies 60% of the whole area except the right 20% of the area and the left 20 % of the area in the molecular weight distribution graph obtained by plotting log value of molecular weight M of the ethylene-1-hexene-1-butene terpolymer (log M) on x axis against the molecular weight distribution to the log value (dwt/dlog M) on y axis. the SCB (short chain branch) content (unit: ea/1,000C) means the content of C2-C7 branches per 1000 carbons, and the SCB content at low molecular weight side and the SCB content at high molecular weight side mean the SCB content values at the left boundary (the SCB content at low molecular weight side) and the right boundary (the SCB content at high molecular weight side) of the middle range that occupies 60% of the whole area except the right 20% of the area and the left 20 % of the area in the molecular weight distribution graph obtained by plotting log value of molecular weight M of the ethylene-1-hexene-1-butene terpolymer (log M) on x axis against the molecular weight distribution to the log value (dwt/dlog M) on y axis.
A method for improving the measuring performance of automation field devices , wherein each of the field devices determines or monitors at least one physical or chemical process variable of a medium using a measuring algorithm, wherein each of the field devices , tailored to the particular measuring task, is calibrated using specific calibration data, and wherein each of the field devices is exposed to measurable environmental influences at its particular measuring position, the method comprising the following method steps: capturing the calibration data of the field devices and capturing in each case at least one item of environmental information from the environment of the field devices at defined time intervals, storing the calibration data and environmental information provided with a time stamp in a database , selecting at least one group (A) of field devices that determine a physical or chemical process variable using the essentially identical measuring algorithm and that correspond with respect to the captured environmental information within prescribed tolerance levels, correlating the calibration data captured over time and the environmental information captured over time, creating a mathematical model depicting the functional relationship between the calibration data and the captured environmental information, adapting the measuring algorithm of the field devices of the selected group (A) on the basis of the determined mathematical model, and transmitting the adapted measuring algorithm to all field devices of the selected group (A). capturing the calibration data of the field devices and capturing in each case at least one item of environmental information from the environment of the field devices at defined time intervals, storing the calibration data and environmental information provided with a time stamp in a database , selecting at least one group (A) of field devices that determine a physical or chemical process variable using the essentially identical measuring algorithm and that correspond with respect to the captured environmental information within prescribed tolerance levels, correlating the calibration data captured over time and the environmental information captured over time, creating a mathematical model depicting the functional relationship between the calibration data and the captured environmental information, adapting the measuring algorithm of the field devices of the selected group (A) on the basis of the determined mathematical model, and transmitting the adapted measuring algorithm to all field devices of the selected group (A).
A transmission apparatus comprising: N Ethernet Medium Access Control, MAC, ports, each Ethernet MAC port corresponding to a physical coding layer interface; K Ethernet physical layer interfaces, each Ethernet physical layer interface corresponding to a physical scrambling layer interface; and a connection device, wherein both N and K are positive integers, the transmission apparatus being characterized in that the connection device is configured to implement a connection between a timeslot of the physical coding layer interface and a timeslot of the physical scrambling layer interface, wherein the N Ethernet MAC ports are separately connected to the connection device by using the corresponding physical coding layer interfaces, and the K Ethernet physical layer interfaces are separately connected to the connection device by using the corresponding physical scrambling layer interfaces. N Ethernet Medium Access Control, MAC, ports, each Ethernet MAC port corresponding to a physical coding layer interface; K Ethernet physical layer interfaces, each Ethernet physical layer interface corresponding to a physical scrambling layer interface; and a connection device, wherein both N and K are positive integers, the transmission apparatus being characterized in that the connection device is configured to implement a connection between a timeslot of the physical coding layer interface and a timeslot of the physical scrambling layer interface, wherein the N Ethernet MAC ports are separately connected to the connection device by using the corresponding physical coding layer interfaces, and the K Ethernet physical layer interfaces are separately connected to the connection device by using the corresponding physical scrambling layer interfaces.
Method for manufacturing a stepped gear wheel having at least two gears wheels with different diameter made from one workpiece , which gear wheels each having an outer circumference and two parallel opposing side faces , characterised in that the method comprises the step of cutting gear wheel teeth in a part of the workpiece having a smaller diameter than another part of the workpiece, which cutting is performed by means of a cutting tool having a cutting wheel provided with cutting teeth having cutting edges on end faces of the cutting teeth, wherein during cutting both the workpiece and the cutting tool are rotated around their respective centre axes , and wherein depending on the number of teeth to be cut in the relevant part of the rotating workpiece , the rotating cutting tool is positioned relative to the rotating workpiece such that the centre axis of the cutting tool is under an angle to the centre axis of the workpiece such that the cutting edges of the end faces of the cutting teeth during the rotating motion and in a gradual feed of the cutting tool parallel to the centre axis of the workpiece at the point of engagement perform an impact movement in the direction of the gear teeth to be cut, wherein the cutting tool is a ring shaped tool, wherein the cutting teeth are on the inside of the ring shaped tool, and, prior to the cutting operation, in the side surface of the larger gear wheel of the two gear wheels, at the location of the outer circumference of the smaller gear wheel of the two gear wheels, a recess is made to create space for the cutting tool during cutting of the smaller gear wheel .
A humidification chamber having suspension type float, the humidification chamber comprising: a shell body , the shell body has a water inlet , a gas inlet and a gas outlet ; a position limiting element , the position limiting element has a through hole and an inner edge , the position limiting element is fixed on an inside of the water inlet , the inner edge has at least one stopper portion ; a float having an extending portion , a side surface of the extending portion has at least one longitudinal groove , the longitudinal groove is provided with a hook a sealing sheet , the sealing sheet is disposed on a top end of the extending portion ; and a heated plate , the heated plate is located below the shell body , and the heated plate is used for sealing the shell body to form a chamber space ; wherein the extending portion passes through the through hole to enable the stopper portion to be located within the longitudinal groove , and the hook to be located above the stopper portion ; in use, a water inlet hole of the water inlet is used for inputting a liquid, the water level of the chamber space will rise to enable the float to rise to comply with the water level increasing; when the water inlet hole of the water inlet is contacted with the sealing sheet , the water inlet hole of the water inlet is blocked by the sealing sheet ; when the hook is stopped on the stopper portion , the float is suspended on the position limiting element , and therefore a distance (D) is formed between the heated plate and a bottom of the float . a shell body , the shell body has a water inlet , a gas inlet and a gas outlet ; a position limiting element , the position limiting element has a through hole and an inner edge , the position limiting element is fixed on an inside of the water inlet , the inner edge has at least one stopper portion ; a float having an extending portion , a side surface of the extending portion has at least one longitudinal groove , the longitudinal groove is provided with a hook a sealing sheet , the sealing sheet is disposed on a top end of the extending portion ; and a heated plate , the heated plate is located below the shell body , and the heated plate is used for sealing the shell body to form a chamber space ;
A carrier for adhesive, with the carrier being configured to be attached to a surface , such as a part of a human, animal, vehicle, construction or robot body, the carrier comprising: - a backing substrate , wherein the backing substrate is an interface to a payload ; - a patterned surface having islands present at the surface ; wherein at least one of the islands and the backing substrate is made from a compliant material, wherein at least a part of a free surface of the islands is coated with an ink comprising curable material, wherein the ink is selected to bond the islands of the carrier to a further object . - a backing substrate , wherein the backing substrate is an interface to a payload ; - a patterned surface having islands present at the surface ; wherein at least one of the islands and the backing substrate is made from a compliant material, wherein at least a part of a free surface of the islands is coated with an ink comprising curable material, wherein the ink is selected to bond the islands of the carrier to a further object . wherein at least one of the islands and the backing substrate is made from a compliant material, wherein at least a part of a free surface of the islands is coated with an ink comprising curable material, wherein the ink is selected to bond the islands of the carrier to a further object .