mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle collision avoidance system comprising: a rear-view camera disposed on a vehicle and arranged to monitor at least one collision prone region adjacent to said vehicle; a first sensor positioned within said vehicle and arranged to determine a driver's head position relative to a designated point in said vehicle; a display disposed in view of said driver, said display coupled to said rear-view camera ; and a controller configured to control operation of said sensor , said rear-view camera and said display , the controller being configured to activate said display and said rear-view camera to display said at least one collision prone region adjacent to said vehicle when said sensor detects that said driver's head is beyond a threshold distance from said designated point, wherein said rear-view camera comprises a wide field of view camera disposed on a rear area of said vehicle and arranged to image an area near a rear bumper of the vehicle, characterized in that the vehicle collision avoidance system further comprises a normal field of view camera disposed on a rear area of said vehicle and arranged to image the area behind said vehicle, said normal field of view camera being coupled to said display and operationally controlled by said controller . a rear-view camera disposed on a vehicle and arranged to monitor at least one collision prone region adjacent to said vehicle; a first sensor positioned within said vehicle and arranged to determine a driver's head position relative to a designated point in said vehicle; a display disposed in view of said driver, said display coupled to said rear-view camera ; and a controller configured to control operation of said sensor , said rear-view camera and said display , the controller being configured to activate said display and said rear-view camera to display said at least one collision prone region adjacent to said vehicle when said sensor detects that said driver's head is beyond a threshold distance from said designated point, wherein said rear-view camera comprises a wide field of view camera disposed on a rear area of said vehicle and arranged to image an area near a rear bumper of the vehicle, characterized in that the vehicle collision avoidance system further comprises a normal field of view camera disposed on a rear area of said vehicle and arranged to image the area behind said vehicle, said normal field of view camera being coupled to said display and operationally controlled by said controller .
A system for controlling delivery of cardiac resynchronization pacing (CRP), the system comprising: pacing delivery circuitry configured to deliver cardiac resynchronization pacing to a heart of a patient; sensing circuitry configured to sense electrical activity of the heart; memory circuitry in which is stored, in association with each of a plurality of heart rates, at least one respective value for an interval between an atrial event and a ventricular event; and processing circuitry configured to: determine the heart rate of a patient based on the electrical activity sensed by the sensing circuitry; select one of the stored values for the interval between the atrial event and the ventricular event associated with the determined heart rate; and determine whether to control the pacing delivery circuitry to deliver fusion pacing or biventricular pacing based on the selected one of the stored values for the interval between the atrial event and the ventricular event. pacing delivery circuitry configured to deliver cardiac resynchronization pacing to a heart of a patient; sensing circuitry configured to sense electrical activity of the heart; memory circuitry in which is stored, in association with each of a plurality of heart rates, at least one respective value for an interval between an atrial event and a ventricular event; and processing circuitry configured to: determine the heart rate of a patient based on the electrical activity sensed by the sensing circuitry; select one of the stored values for the interval between the atrial event and the ventricular event associated with the determined heart rate; and determine whether to control the pacing delivery circuitry to deliver fusion pacing or biventricular pacing based on the selected one of the stored values for the interval between the atrial event and the ventricular event. determine the heart rate of a patient based on the electrical activity sensed by the sensing circuitry; select one of the stored values for the interval between the atrial event and the ventricular event associated with the determined heart rate; and determine whether to control the pacing delivery circuitry to deliver fusion pacing or biventricular pacing based on the selected one of the stored values for the interval between the atrial event and the ventricular event.
A method of folding over and pressing a fibrous sheet to produce a panel-shaped building element having two large faces , comprising: - providing a fibrous sheet having a width (W), a length (L), and a thickness (t) and including a first half and a second half adapted to form at least a part of the large faces of the building element , the first half carries spacing elements for providing a desired thickness of the building element , - providing an adhesive for adhering the second half to the spacing elements -; - providing a rotary press roll , characterized in moving the press roll in a loop of 360° in one and the same direction around the fibrous sheet to carry out the following steps: - i) folding the fibrous sheet such that the second half of the fibrous sheet is placed on top of the first half ; and - ii) pressing the second half of the fibrous sheet against the spacing elements on the first half of the fibrous sheet to become adhered thereto and to produce the building element having two main faces interconnected by the spacing elements and the adhesive . - providing a fibrous sheet having a width (W), a length (L), and a thickness (t) and including a first half and a second half adapted to form at least a part of the large faces of the building element , the first half carries spacing elements for providing a desired thickness of the building element , - providing an adhesive for adhering the second half to the spacing elements -; - providing a rotary press roll , - i) folding the fibrous sheet such that the second half of the fibrous sheet is placed on top of the first half ; and - ii) pressing the second half of the fibrous sheet against the spacing elements on the first half of the fibrous sheet to become adhered thereto and to produce the building element having two main faces interconnected by the spacing elements and the adhesive .
A method for determining a transmission path for a data packet through a network, the method comprising: tagging , at a first node (A), using a computing device processor, a data packet with a network or geographical location of a recipient second node (H); determining , using a computing device processor, whether the recipient second node (H) is in a transmission area of the first node (A); in response to determining that the recipient second node (H) is not in the transmission area of the first node (A), determining, using a MIMO antenna of the first node (A), directions from the first node (A) to a first further node (C) and to a second further node (E), within the transmission area of the first node; selecting , using a computing device processor, one of said first and second further nodes determined to be closest to the recipient second node (H) as a third node (C) based on the location of the recipient second node (H); and transmitting, using a computing device processor, the data packet to the third node. tagging , at a first node (A), using a computing device processor, a data packet with a network or geographical location of a recipient second node (H); determining , using a computing device processor, whether the recipient second node (H) is in a transmission area of the first node (A); in response to determining that the recipient second node (H) is not in the transmission area of the first node (A), determining, using a MIMO antenna of the first node (A), directions from the first node (A) to a first further node (C) and to a second further node (E), within the transmission area of the first node; selecting , using a computing device processor, one of said first and second further nodes determined to be closest to the recipient second node (H) as a third node (C) based on the location of the recipient second node (H); and determining, using a MIMO antenna of the first node (A), directions from the first node (A) to a first further node (C) and to a second further node (E), within the transmission area of the first node; selecting , using a computing device processor, one of said first and second further nodes determined to be closest to the recipient second node (H) as a third node (C) based on the location of the recipient second node (H); and transmitting, using a computing device processor, the data packet to the third node.
A process for preparing a renewable chemical, comprising: (a) feeding to a reactor a reactor feed comprising a mixture of C 3 -C 6 alcohols at a concentration of at least 75 wt. %, the mixture of C3-C6 alcohols including isoamyl alcohol (isopentanol) and 2-methyl-1-butanol (active amyl alcohol); (b) contacting the mixture of C 3 -C 6 alcohols with a mixed oxide catalyst in the reactor, the mixed oxide catalyst having a formula Zn v /Mg w /Cu x /Mn y /Zr z , whereby the mixture is converted to at least one renewable chemical at a yield of at least 25 wt. %, wherein either (i) V is 1 to 10, W is 1 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 1 to 10, and wherein atomic ratios for Y and Z relative to each other is 1 to 16; or (ii) V is 0 to 10, W is 0 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 0 to 10, and wherein atomic ratios for Y and Z relative to each other is 3 to 6; and (c) recovering the at least one renewable chemical, wherein the renewable chemical recovered in step (c) is methyl isobutyl ketone (MIBK), di-isobutyl ketone (DIBK), a Cs aldehyde, isoprene, and/or isoamylene. (a) feeding to a reactor a reactor feed comprising a mixture of C 3 -C 6 alcohols at a concentration of at least 75 wt. %, the mixture of C3-C6 alcohols including isoamyl alcohol (isopentanol) and 2-methyl-1-butanol (active amyl alcohol); (b) contacting the mixture of C 3 -C 6 alcohols with a mixed oxide catalyst in the reactor, the mixed oxide catalyst having a formula Zn v /Mg w /Cu x /Mn y /Zr z , whereby the mixture is converted to at least one renewable chemical at a yield of at least 25 wt. %, wherein either (i) V is 1 to 10, W is 1 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 1 to 10, and wherein atomic ratios for Y and Z relative to each other is 1 to 16; or (ii) V is 0 to 10, W is 0 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 0 to 10, and wherein atomic ratios for Y and Z relative to each other is 3 to 6; and (i) V is 1 to 10, W is 1 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 1 to 10, and wherein atomic ratios for Y and Z relative to each other is 1 to 16; or (ii) V is 0 to 10, W is 0 to 50, X is 0 to 20, Y is 1 to 50, and Z is 1 to 180, wherein atomic ratios of each of V and W, relative to Y or Z, are each 0 to 10, and wherein atomic ratios for Y and Z relative to each other is 3 to 6; and (c) recovering the at least one renewable chemical, wherein the renewable chemical recovered in step (c) is methyl isobutyl ketone (MIBK), di-isobutyl ketone (DIBK), a Cs aldehyde, isoprene, and/or isoamylene.
Apparatus for the additive manufacture of a three-dimensional object by successive layered selective hardening of construction material layers from hardenable construction material by means of at least one laser beam , comprising at least one device for generating at least one laser beam for layered selective hardening of individual construction material layers from hardenable construction material , wherein the device comprises a plurality of laser diode elements that can be or are arranged directly above the construction plane in which construction material layers that are to be or have been selectively hardened are formed, which laser diode elements are each designed for generating a laser beam oriented directly onto the construction plane, characterised in that the plurality of laser diode elements is arranged above one another in a plurality of planes, at a specific spatial offset relative to one another, wherein the arrangement of the laser diode elements above one another in the plurality of planes is selected such that the laser beams can in each case be oriented directly onto the construction plane , wherein a laser beam generated by a laser diode element arranged in an upper plane strikes the construction plane through a gap between laser diode elements arranged directly adjacently in a lower plane. comprises a plurality of laser diode elements that can be or are arranged directly above the construction plane in which construction material layers that are to be or have been selectively hardened are formed, which laser diode elements are each designed for generating a laser beam oriented directly onto the construction plane, characterised in that the plurality of laser diode elements is arranged above one another in a plurality of planes, at a specific spatial offset relative to one another, wherein the arrangement of the laser diode elements above one another in the plurality of planes is selected such that the laser beams can in each case be oriented directly onto the construction plane , wherein a laser beam generated by a laser diode element arranged in an upper plane strikes the construction plane through a gap between laser diode elements arranged directly adjacently in a lower plane.
A data transmission method, wherein the method is used for a network device, wherein the network device has a function of network address translation of a private IP address into a public IP address, and the method comprises: sending a probe packet to a log server; determining , depending on whether a probe response packet returned by the log server is received, whether the log server is capable of receiving a packet; and when it is determined that the log server is capable of receiving a packet, sending a log packet to the log server, wherein the log packet comprises a correspondence between the public Internet Protocol, IP, address and the private IP address, wherein the probe packet is a heartbeat probe packet, the probe response packet is a heartbeat probe response packet, and the determining, depending on whether a probe response packet returned by the log server is received, whether the log server is capable of receiving a packet comprises: detecting whether a heartbeat probe response packet returned by the log server is received within a first specified period; when the heartbeat probe response packet returned by the log server is received within the first specified period, determining that the log server is capable of receiving a packet; and when the heartbeat probe response packet returned by the log server is not received within the first specified period, determining that the log server is not capable of receiving a packet. sending a probe packet to a log server; determining , depending on whether a probe response packet returned by the log server is received, whether the log server is capable of receiving a packet; and when it is determined that the log server is capable of receiving a packet, sending a log packet to the log server, wherein the log packet comprises a correspondence between the public Internet Protocol, IP, address and the private IP address, wherein the probe packet is a heartbeat probe packet, the probe response packet is a heartbeat probe response packet, and the determining, depending on whether a probe response packet returned by the log server is received, whether the log server is capable of receiving a packet comprises: detecting whether a heartbeat probe response packet returned by the log server is received within a first specified period; when the heartbeat probe response packet returned by the log server is received within the first specified period, determining that the log server is capable of receiving a packet; and when the heartbeat probe response packet returned by the log server is not received within the first specified period, determining that the log server is not capable of receiving a packet. detecting whether a heartbeat probe response packet returned by the log server is received within a first specified period; when the heartbeat probe response packet returned by the log server is received within the first specified period, determining that the log server is capable of receiving a packet; and when the heartbeat probe response packet returned by the log server is not received within the first specified period, determining that the log server is not capable of receiving a packet.
A bead breaker tool in an apparatus for demounting a tyre from a corresponding rim of a wheel , comprising: - a mounting element ; - a bead breaker disc , freely rotatable relative to the mounting element , characterized in that the bead breaker tool comprises a sensor , configured to generate a contact signal representing a relative rotation between the bead breaker disc and the mounting element . - a mounting element ; - a bead breaker disc , freely rotatable relative to the mounting element ,
A continuous-loading sample processing system comprising: a sample input adapted to receive at least one sample container rack manually provided by a user; a consumable input adapted to receive one or more unused consumable supplies manually provided by a user; a waste output adapted to receive used consumable supplies; an automated processing center, adapted to perform the concurrent processing of a plurality of sample containers of differing formats held by the at least one sample container rack, comprising: an uncapping and recapping station adapted to concurrently remove the caps from a plurality of sample containers and concurrently replace the caps on the plurality of sample containers provided in the at least one sample container rack, a multi-channel pipettor adapted to concurrently remove a specimen from a plurality of sample containers and transfer each specimen to an output vessel, and a sample output adapted to receive at least one output vessel and present the at least one output vessel to a user for manual removal. a sample input adapted to receive at least one sample container rack manually provided by a user; a consumable input adapted to receive one or more unused consumable supplies manually provided by a user; a waste output adapted to receive used consumable supplies; an automated processing center, adapted to perform the concurrent processing of a plurality of sample containers of differing formats held by the at least one sample container rack, comprising: an uncapping and recapping station adapted to concurrently remove the caps from a plurality of sample containers and concurrently replace the caps on the plurality of sample containers provided in the at least one sample container rack, a multi-channel pipettor adapted to concurrently remove a specimen from a plurality of sample containers and transfer each specimen to an output vessel, and a sample output adapted to receive at least one output vessel and present the at least one output vessel to a user for manual removal. an uncapping and recapping station adapted to concurrently remove the caps from a plurality of sample containers and concurrently replace the caps on the plurality of sample containers provided in the at least one sample container rack, a multi-channel pipettor adapted to concurrently remove a specimen from a plurality of sample containers and transfer each specimen to an output vessel, and a sample output adapted to receive at least one output vessel and present the at least one output vessel to a user for manual removal.
A vacuum device, in particular a vacuum pump, comprising an electrically operable functional unit which is at least partly arranged in a vacuum region of the vacuum device and which is connected to at least one electrical conductor which exits from the functional unit at an outlet region and which leads into a pressure region which is sealed with respect to the vacuum region , wherein the outlet region is disposed within the pressure region , wherein an outer side of the functional unit is formed by a sealing body at least in the outlet region and the electrical conductor is led out of the sealing body, wherein a seal between the vacuum region and the pressure region is formed by the sealing body, wherein the seal is formed by a cooperation of the sealing body with a component of the vacuum device, and wherein the sealing body cooperates with the component indirectly via at least one additional seal , characterized in that the sealing body is formed by a casting compound. an electrically operable functional unit which is at least partly arranged in a vacuum region of the vacuum device and which is connected to at least one electrical conductor which exits from the functional unit at an outlet region and which leads into a pressure region which is sealed with respect to the vacuum region , wherein the outlet region is disposed within the pressure region , wherein an outer side of the functional unit is formed by a sealing body at least in the outlet region and the electrical conductor is led out of the sealing body, wherein a seal between the vacuum region and the pressure region is formed by the sealing body, wherein the seal is formed by a cooperation of the sealing body with a component of the vacuum device, and wherein the sealing body cooperates with the component indirectly via at least one additional seal , characterized in that the sealing body is formed by a casting compound.