mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a refrigerator, the method comprising: performing a first defrosting operation (S210) of an evaporator , wherein the first defrosting operation terminates when a temperature of the evaporator reaches a first temperature (S230); detecting a pressure differential (S250) using a single differential pressure sensor , wherein the pressure differential is a difference between pressures in first and second through-holes , wherein the first through-hole is defined between an inlet for receiving air from a storage compartment and the evaporator , wherein the second through-hole is defined between an outlet for discharging air into the storage compartment and the evaporator ; and performing a second defrosting operation (S270) as an additional defrosting operation of the evaporator when the measured pressure differential is greater than a predefined pressure, wherein the first through-hole is located vertically lower than the second through-hole , and wherein the second defrosting operation terminates when a temperature of the evaporator reaches a second temperature (S280). performing a first defrosting operation (S210) of an evaporator , wherein the first defrosting operation terminates when a temperature of the evaporator reaches a first temperature (S230); detecting a pressure differential (S250) using a single differential pressure sensor , wherein the pressure differential is a difference between pressures in first and second through-holes , wherein the first through-hole is defined between an inlet for receiving air from a storage compartment and the evaporator , wherein the second through-hole is defined between an outlet for discharging air into the storage compartment and the evaporator ; and performing a second defrosting operation (S270) as an additional defrosting operation of the evaporator when the measured pressure differential is greater than a predefined pressure, wherein the first through-hole is located vertically lower than the second through-hole , and wherein the second defrosting operation terminates when a temperature of the evaporator reaches a second temperature (S280).
A method for forwarding a packet in a network, wherein the network comprises a first network device and a second network device, there are a plurality of forwarding paths between the first network device and the second network device, and the method comprises: receiving (S10), by the first network device, a first packet, wherein the first packet comprises first indication information, payload data, and a packet sequence number of the first packet in a data flow corresponding to the first packet, wherein the first indication information is used to instruct the first network device to generate a plurality of second packets based on the first packet; when the first network device determines that the first packet comprises the first indication information, generating (S11), by the first network device, a plurality of second packets based on the first packet, wherein each of the plurality of second packets comprises the payload data, the packet sequence number, and second indication information; and separately forwarding (S12), by the first network device, the plurality of second packets to the second network device over different forwarding paths in the plurality of forwarding paths, wherein the second indication information is used to instruct the second network device to discard a packet in the plurality of second packets except a packet that first reaches the second network device. receiving (S10), by the first network device, a first packet, wherein the first packet comprises first indication information, payload data, and a packet sequence number of the first packet in a data flow corresponding to the first packet, wherein the first indication information is used to instruct the first network device to generate a plurality of second packets based on the first packet; when the first network device determines that the first packet comprises the first indication information, generating (S11), by the first network device, a plurality of second packets based on the first packet, wherein each of the plurality of second packets comprises the payload data, the packet sequence number, and second indication information; and separately forwarding (S12), by the first network device, the plurality of second packets to the second network device over different forwarding paths in the plurality of forwarding paths, wherein the second indication information is used to instruct the second network device to discard a packet in the plurality of second packets except a packet that first reaches the second network device.
A digital pre-distortion, DPD calibration coefficient control method, applied to a microwave communications device, wherein the microwave communications device comprises an analog module, a digital module, a main control module, and a DPD technology is used in the digital module; and the method comprises: determining, by the main control module, by means of interpolation and according to DPD calibration coefficients that are corresponding to at least 2 N typical working states of the analog module and that are obtained in advance, a specified DPD calibration coefficient corresponding to a specified working state of the analog module, wherein N is a quantity of parameters representing a working state of the analog module, and the specified working state is a target working state; and controlling a DPD calibration coefficient according to the determined specified DPD calibration coefficient corresponding to the specified working state of the analog module; characterized in that the controlling comprises: sending, by the main control module, a state adjustment instruction to the analog module, and a coefficient adjustment instruction to the digital module, wherein the state adjustment instruction is used to instruct the analog module to adjust gradually, starting from a specified moment, the current working state to the target working state, and the coefficient adjustment instruction is used to instruct the digital module to adjust gradually, starting from the specified moment, the current DPD calibration coefficient to the specified DPD calibration coefficient. determining, by the main control module, by means of interpolation and according to DPD calibration coefficients that are corresponding to at least 2 N typical working states of the analog module and that are obtained in advance, a specified DPD calibration coefficient corresponding to a specified working state of the analog module, wherein N is a quantity of parameters representing a working state of the analog module, and the specified working state is a target working state; and controlling a DPD calibration coefficient according to the determined specified DPD calibration coefficient corresponding to the specified working state of the analog module; characterized in that the controlling comprises: sending, by the main control module, a state adjustment instruction to the analog module, and a coefficient adjustment instruction to the digital module, wherein the state adjustment instruction is used to instruct the analog module to adjust gradually, starting from a specified moment, the current working state to the target working state, and the coefficient adjustment instruction is used to instruct the digital module to adjust gradually, starting from the specified moment, the current DPD calibration coefficient to the specified DPD calibration coefficient.
Multi-sensor system for a vehicle consisting of at least two sensor units , characterized in that the sensor units each comprise at least one sensor , an internal clock , and a control unit , the control unit being designed to adapt measuring times of the at least one sensor on the basis of the clock time of the internal clock , and to receive a synchronization signal and - on the basis of this synchronization signal - synchronize the internal clock .
A method for generating an array comprising: providing a template array comprising a plurality of template oligonucleotides coupled thereto, wherein each of the plurality of template oligonucleotides comprises a barcode and an adaptor sequence, and wherein the barcode identifies the spatial position of each of the plurality of template oligonucleotides; providing a plurality of oligonucleotides, wherein each member of the plurality of oligonucleotides comprises a sequence complementary to the adaptor sequence; coupling the plurality of template oligonucleotides to the plurality of oligonucleotides via the adaptor sequence; conducting extension reactions of the plurality of oligonucleotides using the plurality of template oligonucleotides as templates, thereby generating a plurality of recipient oligonucleotide products; and generating a recipient array comprising the plurality of recipient oligonucleotide products attached thereto, wherein each of the recipient oligonucleotide products comprises a member of the plurality of oligonucleotides and an additional oligonucleotide, wherein the additional oligonucleotide is complementary to an additional portion of a member of the plurality of template oligonucleotides. providing a template array comprising a plurality of template oligonucleotides coupled thereto, wherein each of the plurality of template oligonucleotides comprises a barcode and an adaptor sequence, and wherein the barcode identifies the spatial position of each of the plurality of template oligonucleotides; providing a plurality of oligonucleotides, wherein each member of the plurality of oligonucleotides comprises a sequence complementary to the adaptor sequence; coupling the plurality of template oligonucleotides to the plurality of oligonucleotides via the adaptor sequence; conducting extension reactions of the plurality of oligonucleotides using the plurality of template oligonucleotides as templates, thereby generating a plurality of recipient oligonucleotide products; and generating a recipient array comprising the plurality of recipient oligonucleotide products attached thereto, wherein each of the recipient oligonucleotide products comprises a member of the plurality of oligonucleotides and an additional oligonucleotide, wherein the additional oligonucleotide is complementary to an additional portion of a member of the plurality of template oligonucleotides.
An optoelectronic sensor , in particular a laser scanner, for detecting distance measurement data of objects in a monitoring area , comprising a measuring unit having a light transmitter for transmitting transmitted light into the monitoring area at a plurality of angles and a light receiver for generating a received signal from received light that is incident from the monitoring area from a plurality of angles, and a control and evaluation unit configured to detect the distance measurement data with an angular and time resolution from the received signal over the plurality of angles and measurement repetitions by determining a light time of flight, characterized in that the control and evaluation unit is further configured to arrange the distance measurement data into an image wherein pixels including distance values are arranged over one dimension of an angle and one dimension of time, and to evaluate the image using a machine learning image classification method to assign a respective class to the pixels.
Apparatus, for use with a nerve of a subject, the apparatus comprising: an implantable excitation unit , configured to induce action potentials in the nerve by applying an excitatory current to the nerve; an implantable blocking unit , configured to block the induced action potentials from propagating along the nerve by applying a blocking current to the nerve; and an extracorporeal controller , comprising (i) at least one antenna, and (ii) circuitry configured: to wirelessly drive the excitation unit to apply the excitatory current, in a first mode of the extracorporeal controller , to wirelessly drive the blocking unit to apply the blocking current while not driving the excitation unit to apply the excitatory current, in a second mode of the extracorporeal controller , to wirelessly drive the blocking unit to apply the blocking current while driving the excitation unit to apply the excitatory current, and to wirelessly alter a parameter of the blocking current, based on sensing performed while the extracorporeal controller is in the second mode. an implantable excitation unit , configured to induce action potentials in the nerve by applying an excitatory current to the nerve; an implantable blocking unit , configured to block the induced action potentials from propagating along the nerve by applying a blocking current to the nerve; and an extracorporeal controller , comprising (i) at least one antenna, and (ii) circuitry configured: to wirelessly drive the excitation unit to apply the excitatory current, in a first mode of the extracorporeal controller , to wirelessly drive the blocking unit to apply the blocking current while not driving the excitation unit to apply the excitatory current, in a second mode of the extracorporeal controller , to wirelessly drive the blocking unit to apply the blocking current while driving the excitation unit to apply the excitatory current, and to wirelessly alter a parameter of the blocking current, based on sensing performed while the extracorporeal controller is in the second mode. to wirelessly drive the excitation unit to apply the excitatory current, in a first mode of the extracorporeal controller , to wirelessly drive the blocking unit to apply the blocking current while not driving the excitation unit to apply the excitatory current, in a second mode of the extracorporeal controller , to wirelessly drive the blocking unit to apply the blocking current while driving the excitation unit to apply the excitatory current, and to wirelessly alter a parameter of the blocking current, based on sensing performed while the extracorporeal controller is in the second mode.
A modular composite structure being a vehicle floor pan section, the vehicle floor pan section comprising: a. a first molded composite core structure comprising i. a first core comprising a first surface, the first surface of the first core bonded to a first fiber layer embedded in a first polymer; ii. a first fiber reinforcement region overlying a portion of the first surface of the first core; b. a second molded composite core structure comprising i. a first fiber substrate, the first fiber substrate comprising fibers embedded in a second polymer, the first fiber substrate bonded to a first surface of a second core ; ii. a second fiber reinforcement region bonded to and overlying a portion of the first fiber substrate; wherein the first molded composite core structure is attached to the second molded composite core structure to form the vehicle floor pan section. a. a first molded composite core structure comprising i. a first core comprising a first surface, the first surface of the first core bonded to a first fiber layer embedded in a first polymer; ii. a first fiber reinforcement region overlying a portion of the first surface of the first core; i. a first core comprising a first surface, the first surface of the first core bonded to a first fiber layer embedded in a first polymer; ii. a first fiber reinforcement region overlying a portion of the first surface of the first core; b. a second molded composite core structure comprising i. a first fiber substrate, the first fiber substrate comprising fibers embedded in a second polymer, the first fiber substrate bonded to a first surface of a second core ; ii. a second fiber reinforcement region bonded to and overlying a portion of the first fiber substrate; wherein the first molded composite core structure is attached to the second molded composite core structure to form the vehicle floor pan section. i. a first fiber substrate, the first fiber substrate comprising fibers embedded in a second polymer, the first fiber substrate bonded to a first surface of a second core ; ii. a second fiber reinforcement region bonded to and overlying a portion of the first fiber substrate;
A building door comprising a door frame , a door wing , and a door hinge , wherein the door hinge has a frame part and a wing part , which are connected to one another via a first joint bracket and a second joint bracket , wherein, starting at the closed position, the door hinge has an opening angle of at least 135° until reaching a maximum open position, and the joint brackets form a 4-axis joint assembly, in the case of which the first joint bracket is rotatably fastened to the frame part about a first frame partial axis as well as rotatably fastened to the wing part about a first wing partial axis , and wherein the second joint bracket is rotatably fastened to the frame part about a second frame partial axis as well as rotatably fastened to the wing part about a second wing partial axis , and the two joint brackets are not directly connected to one another, and wherein the frame part has two side legs and at least one central leg , wherein the joint brackets are rotatably arranged between a side leg and a central leg or between two central legs in a joint bracket section, characterized in that the wing part is fastened to a narrow side of the door wing , and, in the closed position, the wing partial axes are arranged completely within a door gap between door wing and door frame .
A control panel having NC function, connectable to a machine tool body for executing a numerical control operation, the control panel having a front surface on which a display screen and an input section having a large number of keys are arranged, and including a control unit and a storage unit installed inside, the control unit being configured to drive a machining section of the machine tool body in accordance with a predetermined program, and the storage unit being configured to store various programs and tool information, wherein: the control panel further including an image pickup device for reading a matrix type two-dimensional code, the image pickup device being installed on the front surface of the control panel , the control unit includes a reader configured to process image data of the matrix type two-dimensional code captured by the image pickup device , and to output the processed image data as read data; and based on work instruction information contained in the read data from the reader , a drive control to the machining section is started, and the control unit is configured to switch an operation mode between a first mode and a second mode, the first mode being selected when the read data includes only a program number corresponding to the program preliminarily stored in the storage unit so that the program corresponding to the program number is called to command the machining section for a driving operation in accordance with the called program, and the second mode being selected when the read data includes the program and the tool information so as to command the machining section for the driving operation in accordance with the program and to store the program and the tool information in the storage unit. the control panel further including an image pickup device for reading a matrix type two-dimensional code, the image pickup device being installed on the front surface of the control panel , the control unit includes a reader configured to process image data of the matrix type two-dimensional code captured by the image pickup device , and to output the processed image data as read data; and based on work instruction information contained in the read data from the reader , a drive control to the machining section is started, and the control unit is configured to switch an operation mode between a first mode and a second mode, the first mode being selected when the read data includes only a program number corresponding to the program preliminarily stored in the storage unit so that the program corresponding to the program number is called to command the machining section for a driving operation in accordance with the called program, and the second mode being selected when the read data includes the program and the tool information so as to command the machining section for the driving operation in accordance with the program and to store the program and the tool information in the storage unit.
A linear electrical machine (LEM) comprising: a stator mounted in a housing , the housing and stator defining a working cylinder , wherein the stator includes a plurality of coils; a central core within the working cylinder and defining a cylindrical stator bore cavity therebetween; a hollow translator axially movable relative to the central core within the working cylinder , extending into the stator bore cavity and forming an exterior magnetic circuit airgap between the translator and the stator ; at least one inner flexure or bearing between the central core and the translator providing coaxial location of the translator within the stator bore cavity ; wherein the central core is axially fixed in relation to the stator , characterized in that the LEM further comprises: an outer fluid bearing between the translator and a wall of the cylinder , the bearing being mounted on the translator and running on a bearing surface on the inner wall of the cylinder. a stator mounted in a housing , the housing and stator defining a working cylinder , wherein the stator includes a plurality of coils; a central core within the working cylinder and defining a cylindrical stator bore cavity therebetween; a hollow translator axially movable relative to the central core within the working cylinder , extending into the stator bore cavity and forming an exterior magnetic circuit airgap between the translator and the stator ; at least one inner flexure or bearing between the central core and the translator providing coaxial location of the translator within the stator bore cavity ; wherein the central core is axially fixed in relation to the stator , characterized in that the LEM further comprises: an outer fluid bearing between the translator and a wall of the cylinder , the bearing being mounted on the translator and running on a bearing surface on the inner wall of the cylinder.
A collapsible load carrier includes a rolling base and a base pusher mounted on the rolling base for movement relative to the rolling base , the load carrier comprising wheels that can be collapsed to assume a compact storage mode and that can be reconfigured in the field by a user to function in two operating modes, e.g. front-and-rear- wheel cart mode and 2-wheel hand-truck mode, wherein a left front wheel unit includes a left brace bracket coupled to left rail , a left wheel support coupled to left rail for movement about left wheel axis , and a left front wheel coupled to left wheel support , wherein a left wheel-bias spring is coupled to the left wheel-support rail and to a left wheel support including a left rail receiver , a left fork , and a left cam block , wherein the left wheel-bias spring is arranged to extend around a portion of the left wheel-support rail and to engage the left brace bracket and the left wheel support to bias the left wheel support , along with the left front wheel , toward the folded storage position.