mhurhangee/patent-ind-claim-en huggingface dataset:
A data retransmission method, comprising: starting , by a transmit end, a timer when obtaining new data to-be-sent to a receive end, wherein a preset value of the timer is the maximum transmission latency corresponding to the service type of the data; transmitting, by the transmit end, the data to the receive end by jointly determining whether the maximum transmission quantity is exhausted and determining whether the maximum transmission latency is exhausted; and sending , by the transmit end, retransmission data to the receive end when the timer does not expire and data needs to be retransmitted, wherein the retransmission data is a part or all of the data; and stopping sending, by the transmit end, the retransmission data to the receive end when either the maximum transmission quantity is exhausted or the timer expires because the maximum transmission latency is exhausted, wherein the sending, by the transmit end, the retransmission data to the receive end when the maximum transmission latency is not exhausted, the timer does not expire and data needs to be retransmitted comprises: sending , by the transmit end, the retransmission data to the receive end when the remaining time of the timer is greater than or equal to a time required by the receive end to receive and process the retransmission data. starting , by a transmit end, a timer when obtaining new data to-be-sent to a receive end, wherein a preset value of the timer is the maximum transmission latency corresponding to the service type of the data; transmitting, by the transmit end, the data to the receive end by jointly determining whether the maximum transmission quantity is exhausted and determining whether the maximum transmission latency is exhausted; and sending , by the transmit end, retransmission data to the receive end when the timer does not expire and data needs to be retransmitted, wherein the retransmission data is a part or all of the data; and stopping sending, by the transmit end, the retransmission data to the receive end when either the maximum transmission quantity is exhausted or the timer expires because the maximum transmission latency is exhausted, wherein the sending, by the transmit end, the retransmission data to the receive end when the maximum transmission latency is not exhausted, the timer does not expire and data needs to be retransmitted comprises: sending , by the transmit end, the retransmission data to the receive end when the remaining time of the timer is greater than or equal to a time required by the receive end to receive and process the retransmission data.
A system for mitigating vehicle collisions, the system comprising: a processor configured to: set a driver attention level to at least one of an attentive level and an inattentive level based on a driver's interaction with at least one device located within a vehicle , characterized by automatically pre-fill at least one brake line of the vehicle when the driver attention level is set to the inattentive level and a distance between the vehicle and a closest object detected around the vehicle is greater than an inattentive jerk distance, automatically perform a brake jerk when the driver attention level is set to the inattentive level and a distance between the vehicle and a closest object detected around the vehicle is less than the inattentive jerk distance, and automatically slow the vehicle when the driver attention level is set to the inattentive level and the distance is less than an inattentive brake distance wherein the inattentive jerk distance is greater than the inattentive brake distance. a processor configured to: set a driver attention level to at least one of an attentive level and an inattentive level based on a driver's interaction with at least one device located within a vehicle , characterized by automatically pre-fill at least one brake line of the vehicle when the driver attention level is set to the inattentive level and a distance between the vehicle and a closest object detected around the vehicle is greater than an inattentive jerk distance, automatically perform a brake jerk when the driver attention level is set to the inattentive level and a distance between the vehicle and a closest object detected around the vehicle is less than the inattentive jerk distance, and automatically slow the vehicle when the driver attention level is set to the inattentive level and the distance is less than an inattentive brake distance wherein the inattentive jerk distance is greater than the inattentive brake distance. set a driver attention level to at least one of an attentive level and an inattentive level based on a driver's interaction with at least one device located within a vehicle , characterized by automatically pre-fill at least one brake line of the vehicle when the driver attention level is set to the inattentive level and a distance between the vehicle and a closest object detected around the vehicle is greater than an inattentive jerk distance, automatically perform a brake jerk when the driver attention level is set to the inattentive level and a distance between the vehicle and a closest object detected around the vehicle is less than the inattentive jerk distance, and automatically slow the vehicle when the driver attention level is set to the inattentive level and the distance is less than an inattentive brake distance wherein the inattentive jerk distance is greater than the inattentive brake distance.
Fastening device for fastening an object to a wall (W), having a fastening element , a bearing element for bearing against the wall (W) and a holding element at least for holding at least part of the object as well as a through opening running at least through the holding element and the bearing element to allow passage of the fastening element , characterised in that the bearing element and the holding element are connected to one another by way of a connecting element , the holding element , the connecting element and the bearing element together form a single-piece fastening unit and the connecting element is an eccentric.
A contact lens having a central optic zone and a peripheral zone surrounding the central optic zone, the contact lens being formed from a first material having a first modulus of elasticity, the first material being incorporated into the peripheral zone; and a second material incorporated into the central optic zone of the contact lens, the central optic zone having a second modulus of elasticity, wherein the second modulus of elasticity is greater than the first modulus of elasticity; wherein the first material is formed from curing a first monomer and the second material is formed from curing a second monomer; characterized in that the contact lens further comprises an intermediate zone located between the central optic zone and the peripheral zone, wherein the central optic zone and the peripheral zone are smoothly blended in the intermediate zone; wherein the first and second monomers are immiscible; and wherein there is a slight blending of the two materials in the intermediate zone changing the stiffness of the lens gradually outside the optic zone, as a function of position from the center of the contact lens. peripheral zone surrounding the central optic zone, the contact lens being formed from a first material having a first modulus of elasticity, the first material being incorporated into the peripheral zone; and a second material incorporated into the central optic zone of the contact lens, the central optic zone having a second modulus of elasticity, wherein the second modulus of elasticity is greater than the first modulus of elasticity; wherein the first material is formed from curing a first monomer and the second material is formed from curing a second monomer; characterized in that the contact lens further comprises an intermediate zone located between the central optic zone and the peripheral zone, wherein the central optic zone and the peripheral zone are smoothly blended in the intermediate zone; wherein the first and second monomers are immiscible; and wherein there is a slight blending of the two materials in the intermediate zone changing the stiffness of the lens gradually outside the optic zone, as a function of position from the center of the contact lens.
A contractile device comprising a body having a central axis , an internal volume (V), a radius r2 perpendicular to said central axis and a wall including a tessellation of elements , wherein the body is deformable through pressurisation of fluid within the body between a first, normal state having a first axial length (L1) and a first internal volume (V1) and a second, deformed state having a second axial length (L2) and a second internal volume (V2) in which the second axial length (L2) of the body is reduced and the second volume (V2) increased compared to the first axial length (L1) and first internal volume (V1) of the first, normal state, wherein the tessellation of elements includes a series of protruding formations and intruding formations which are arranged such that the body remains substantially cylindrical through its deformation between its normal and deformed states.
A refrigerator door , comprising: an end cover , wherein a top surface of the end cover comprises an inclined surface portion that inclines downwards in a direction from the rear to the front; and a door panel , made of a metal sheet, wherein the door panel comprises a front panel ; wherein, the door panel comprises a front flange which is bent backwards from the front panel and is connected to the end cover , an included angle (β) between the front flange and the front panel is greater than 90 degrees, and the front flange is located in parallel with and under the inclined surface portion characterized in that , the end cover comprises a handle groove , and the inclined surface portion is arranged around at least one edge of the handle groove and wherein a front end of the end cover is provided with a first inserting groove , wherein the first inserting groove is parallel with the inclined surface portion, the front flange is inserted into the first inserting groove , and an upper groove wall of the first inserting groove is arranged along a front edge of the handle groove and wherein the inclined surface portion extends along the entire width of a front end of the end cover , and the front flange extends along the entire width of the front panel . an end cover , wherein a top surface of the end cover comprises an inclined surface portion that inclines downwards in a direction from the rear to the front; and a door panel , made of a metal sheet, wherein the door panel comprises a front panel ; wherein, the door panel comprises a front flange which is bent backwards from the front panel and is connected to the end cover , an included angle (β) between the front flange and the front panel is greater than 90 degrees, and the front flange is located in parallel with and under the inclined surface portion characterized in that , the end cover comprises a handle groove , and the inclined surface portion is arranged around at least one edge of the handle groove and wherein a front end of the end cover is provided with a first inserting groove , wherein the first inserting groove is parallel with the inclined surface portion, the front flange is inserted into the first inserting groove , and an upper groove wall of the first inserting groove is arranged along a front edge of the handle groove and wherein the inclined surface portion extends along the entire width of a front end of the end cover , and the front flange extends along the entire width of the front panel .
Resistance welding method, wherein welding processes are performed , in the course of which welding electrodes are pressed against a welding point of workpieces and are energized with a welding current in each case in accordance with predefined welding parameters, wherein, in the course of these welding processes, welding data describing the respective welding process are determined , wherein the welding data are evaluated using a regression model, wherein, in the course of this evaluation, a probability of welding spatter occurring in a next welding process, and also a spatter time at which the welding spatter occurs in the next welding process, are determined , wherein, when the determined probability reaches a threshold value , at least one of the predefined welding parameters is adjusted so that the probability falls below the threshold value , wherein, in the course of this adjustment, at least one relationship between the probability and/or the spatter time, as dependent variable, on the one hand, and the at least one of the welding parameters, as independent variable, on the other hand, is ascertained using the regression model, wherein the at least one of the predefined welding parameters is selected and adjusted based on the ascertained at least one relationship.
A compact power running board assembly for a motor vehicle, comprising: an actuator assembly operably coupled to a swing arm ; a running board operably connected to the swing arm ; a housing assembly including an opening ; a pivot shaft located within the housing assembly , the swing arm extending through the opening of the housing assembly and operably connected to the pivot shaft ; a pair of bushing bearings coupled to the pivot shaft within the housing assembly ; and a motor assembly operably coupled to the actuator assembly for driving the actuator assembly to move the running board between at least one stowed position and at least one deployed position; characterized in that the pivot shaft and the bushing bearings are completely contained within the housing assembly and do not extend outside of the housing assembly . an actuator assembly operably coupled to a swing arm ; a running board operably connected to the swing arm ; a housing assembly including an opening ; a pivot shaft located within the housing assembly , the swing arm extending through the opening of the housing assembly and operably connected to the pivot shaft ; a pair of bushing bearings coupled to the pivot shaft within the housing assembly ; and a motor assembly operably coupled to the actuator assembly for driving the actuator assembly to move the running board between at least one stowed position and at least one deployed position;
A reference signal transmission method, comprising: obtaining (S210), by a first terminal device, a first reference signal set and a second reference signal set, wherein the first terminal device comprises n antenna ports, and n is a natural number greater than 1; sending (S220), by the first terminal device, a first reference signal on a first time-frequency resource of an i th antenna port, wherein the i th antenna port is any one of the n antenna ports, the first time-frequency resource is comprised in at least one preset time-frequency resource used to send the first reference signal set and the second reference signal set, and the first reference signal is a reference signal in the first reference signal set; sending (S230), by the first terminal device, a second reference signal on the first time-frequency resource of a j th antenna port, wherein the j th antenna port is one of other antenna ports than the i th antenna port in the n antenna ports, the second reference signal is a reference signal in the second reference signal set, and the second reference signal is different from the first reference signal; and sending (S240), by the first terminal device on each of the n antenna ports, at least one reference signal in the first reference signal set; wherein the first reference signal is an LTE-A Rel-14, i.e. old pilot sequence and the second reference signal is different from the LTE-A Rel-14 pilot sequence. obtaining (S210), by a first terminal device, a first reference signal set and a second reference signal set, wherein the first terminal device comprises n antenna ports, and n is a natural number greater than 1; sending (S220), by the first terminal device, a first reference signal on a first time-frequency resource of an i th antenna port, wherein the i th antenna port is any one of the n antenna ports, the first time-frequency resource is comprised in at least one preset time-frequency resource used to send the first reference signal set and the second reference signal set, and the first reference signal is a reference signal in the first reference signal set; sending (S230), by the first terminal device, a second reference signal on the first time-frequency resource of a j th antenna port, wherein the j th antenna port is one of other antenna ports than the i th antenna port in the n antenna ports, the second reference signal is a reference signal in the second reference signal set, and the second reference signal is different from the first reference signal; and sending (S240), by the first terminal device on each of the n antenna ports, at least one reference signal in the first reference signal set; wherein the first reference signal is an LTE-A Rel-14, i.e. old pilot sequence and the second reference signal is different from the LTE-A Rel-14 pilot sequence.
Conveying device comprising an upstream conveying means for receiving products from at least one upstream station, an accumulation surface along which the upstream conveying means circulates, in which conveying device said upstream conveying means extends against said accumulation surface and takes the form of at least one endless belt conveyor, on the surface of which the products are placed, a loading means for moving the products from said upstream conveying means onto the accumulation surface, a downstream conveying means for removing the products , and an unloading means for moving the products from the accumulation surface onto the downstream conveying means , the accumulation surface being located between, on the one hand, the upstream conveying means and, on the other hand, the downstream conveying means , the upstream conveying means and the downstream conveying means thus driving the products in a conveying direction , said downstream conveying means being on the other side of the accumulation surface with respect to the upstream conveying means , characterized in that the loading means and the unloading means move the products transversely with respect to said conveying direction ; the downstream conveying means comprises a plurality of independent movement means that receive the products in receiving zones successively distributed from the edge of the accumulation surface that is opposite the edge along which the upstream conveying means extends; and in that said device comprises, for at least one pair of successive receiving zones, a transfer surface that is mounted between them, the unloading means being able to dump products onto the at least one transfer surface . the loading means and the unloading means move the products transversely with respect to said conveying direction ; the downstream conveying means comprises a plurality of independent movement means that receive the products in receiving zones successively distributed from the edge of the accumulation surface that is opposite the edge along which the upstream conveying means extends; and in that said device comprises, for at least one pair of successive receiving zones, a transfer surface that is mounted between them, the unloading means being able to dump products onto the at least one transfer surface .
A fluid pathway connection assembly for use with a drug container in a drug delivery pump , the drug container including a barrel , a cap and a pierceable seal , the fluid pathway connection assembly including an unactuated configuration, an actuated configuration, and a delivery configuration, the fluid pathway connection assembly comprising: a connection hub including an aperture , a first film sealed along the aperture , the connection hub including a sterile cavity sealed by the first film , an introducer member at least partially disposed within the sterile cavity in the unactuated configuration, a piercing member configured to telescope from the introducer member , the piercing member including a piercing tip at least partially disposed within the introducer member in the unactuated configuration, a piercing member retainer connected to the piercing member , the introducer member being configured to move relative to the connection hub from the unactuated configuration to the actuated configuration, and the piercing member being configured to telescope from the introducer member to move from the unactuated configuration to the delivery configuration in which the piercing tip is not disposed within the introducer member , the piercing member being adapted to pierce the pierceable seal in the delivery configuration, the piercing member providing a fluid pathway through the pierceable seal in the delivery configuration, characterized in that the introducer member pierces the first film in the actuated configuration. a connection hub including an aperture , a first film sealed along the aperture , the connection hub including a sterile cavity sealed by the first film , an introducer member at least partially disposed within the sterile cavity in the unactuated configuration, a piercing member configured to telescope from the introducer member , the piercing member including a piercing tip at least partially disposed within the introducer member in the unactuated configuration, a piercing member retainer connected to the piercing member , the introducer member being configured to move relative to the connection hub from the unactuated configuration to the actuated configuration, and the piercing member being configured to telescope from the introducer member to move from the unactuated configuration to the delivery configuration in which the piercing tip is not disposed within the introducer member , the piercing member being adapted to pierce the pierceable seal in the delivery configuration, the piercing member providing a fluid pathway through the pierceable seal in the delivery configuration, characterized in that the introducer member pierces the first film in the actuated configuration.
A diagnostically useful carrier comprising a means for capturing Neurogranin and a means for capturing BACE1, wherein the means for capturing BACE1 is an antibody or aptamer and the means for capturing Neurogranin is an antibody or aptamer binding to a C-terminally truncated fragment of Neurogranin that comprises at least SEQ ID NO 4, but lacks the three C-terminal residues of full-length Neurogranin, namely S76, G77 and D78.