mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method of detecting a possible collision between an object of a treatment system and a patient during a medical procedure, characterised by comprising: obtaining a reference depth image generated using a depth sensing camera, the depth sensing camera having a position that is fixed relative to a patient support; processing the reference depth image to create one or more intrusion detection zones, wherein the act of processing the reference depth image is performed using a processing unit; obtaining, during the medical procedure, a real time input depth image using the depth sensing camera; determining a composite image using at least a part of the reference depth image corresponding to an area of the intrusion detection zone and at least a part of the input depth image corresponding to the area of the intrusion detection zone, wherein the act of determining the composite image is performed using the processing unit; determining, during the medical procedure, whether there is a possible collision between an object of the treatment system and a patient supported on the patient support based on the composite image; and when it is determined that there is a possible collision between the object of the treatment system and the patient supported on the patient support, generating a control signal to stop an operation of the treatment system to prevent the possible collision between the object and the patient. obtaining a reference depth image generated using a depth sensing camera, the depth sensing camera having a position that is fixed relative to a patient support; processing the reference depth image to create one or more intrusion detection zones, wherein the act of processing the reference depth image is performed using a processing unit; obtaining, during the medical procedure, a real time input depth image using the depth sensing camera; determining a composite image using at least a part of the reference depth image corresponding to an area of the intrusion detection zone and at least a part of the input depth image corresponding to the area of the intrusion detection zone, wherein the act of determining the composite image is performed using the processing unit; determining, during the medical procedure, whether there is a possible collision between an object of the treatment system and a patient supported on the patient support based on the composite image; and when it is determined that there is a possible collision between the object of the treatment system and the patient supported on the patient support, generating a control signal to stop an operation of the treatment system to prevent the possible collision between the object and the patient.
Dispensing device for sheet products, in particular napkins, with a housing comprising a rear wall, a bottom, a first and a second side wall (24, 26) and a cover, characterised in that an angle α between the rear wall and the bottom lies in a range from approximately 50° to approximately 70°, in that when the dispensing device is being used, an angle β between a normal to a standing surface/fastening surface, on which the dispensing device is arranged, and the rear wall lies in a range from approximately 20° to approximately 45°, wherein the housing comprises an upper storage part and a lower bottom part with the bottom, the lower bottom part comprises an inner rear wall running in a curve from the bottom towards an upper bottom of the housing, or wherein at least two rib-shaped elements are arranged in the housing on the rear wall and the bottom with a height h rising from the rear wall to the bottom.
A method for testing a DC counter (11, 12) in a charging column, characterised by the following features: - a current source and a voltage source are connected to a TN system on the output side, - by means of the current source, current is conducted in a short circuit into a first busbar (DC+) of the charging column and via a charging cable (CCS2-, CCS2+) of the charging column back to the current source, - by means of the voltage source, a voltage is applied in an idle state between the first busbar (DC+) and a second busbar (DC-) of the charging column, and - a power reading obtained by the DC counter (11, 12) from a measurement of the current and the voltage is checked by means of a power meter. - a current source and a voltage source are connected to a TN system on the output side, - by means of the current source, current is conducted in a short circuit into a first busbar (DC+) of the charging column and via a charging cable (CCS2-, CCS2+) of the charging column back to the current source, - by means of the voltage source, a voltage is applied in an idle state between the first busbar (DC+) and a second busbar (DC-) of the charging column, and - a power reading obtained by the DC counter (11, 12) from a measurement of the current and the voltage is checked by means of a power meter.
A computer program product comprising computer executable code embodied in a non-transitory computer readable medium that, when executing on one or more computing devices, performs the steps of: acquiring heart rate data from a user with a wearable physiological monitor 2006; determining a historical respiratory rate pattern for the user at a first number of predetermined daily intervals during periods of deep sleep by the user based on the heart rate data, the historical respiratory rate pattern characterizing one or more features of a respiratory activity of the user during the first number of predetermined daily intervals during periods of deep sleep by the user; determining a current respiratory rate pattern for the user during a second predetermined daily interval based on the heart rate data during a second period of deep sleep; evaluating the one or more features of the current respiratory rate pattern; comparing the one or more features of the current respiratory rate pattern to the one or more features of the historical respiratory rate pattern; and in response to a predetermined difference between the one or more features of the current respiratory rate pattern and the one or more features of the historical respiratory rate pattern, creating an indicator of a likelihood of a respiratory infection of the user. acquiring heart rate data from a user with a wearable physiological monitor 2006; determining a historical respiratory rate pattern for the user at a first number of predetermined daily intervals during periods of deep sleep by the user based on the heart rate data, the historical respiratory rate pattern characterizing one or more features of a respiratory activity of the user during the first number of predetermined daily intervals during periods of deep sleep by the user; determining a current respiratory rate pattern for the user during a second predetermined daily interval based on the heart rate data during a second period of deep sleep; evaluating the one or more features of the current respiratory rate pattern; comparing the one or more features of the current respiratory rate pattern to the one or more features of the historical respiratory rate pattern; and in response to a predetermined difference between the one or more features of the current respiratory rate pattern and the one or more features of the historical respiratory rate pattern, creating an indicator of a likelihood of a respiratory infection of the user.
A first fastener element adapted to selectively engage a second fastener element, wherein the first element comprises a coating and at least an engaging portion of the first element is coated in said coating, characterised in that the coating is formed by vapour deposition to provide a thermo-chemically stable layer to prevent seizure of the fasteners for temperatures up to 800°C, wherein: the coating comprises one or more of chromium nitride, aluminium nitride, chromium oxide, aluminium oxide, titanium carbide, chromium carbide or aluminium carbide. the coating comprises one or more of chromium nitride, aluminium nitride, chromium oxide, aluminium oxide, titanium carbide, chromium carbide or aluminium carbide.
A data processing method, wherein the method comprises: generating, by a computer device, a target task, wherein the target task comprises a buffer application task or a buffer release task, the target task is a successive task of a first task and is a preceding task of a second task, the first task and the second task are to-be-executed tasks between which there is a sequential dependency relationship, and when the target task is the buffer application task, a buffer corresponding to the buffer application task is used by the computer device when the second task is executed, or when the target task is the buffer release task, a buffer corresponding to the buffer release task is used by the computer device when the first task is executed; and after the first task is executed and before the second is executed, obtaining, by the computer device based on the target task, a buffer entry corresponding to the target task, wherein the buffer entry is an entry comprising a memory size of the buffer corresponding to the target task, a memory location of the buffer, and a memory address of the buffer, and executing the target task to apply for or release the buffer corresponding to the target task. generating, by a computer device, a target task, wherein the target task comprises a buffer application task or a buffer release task, the target task is a successive task of a first task and is a preceding task of a second task, the first task and the second task are to-be-executed tasks between which there is a sequential dependency relationship, and when the target task is the buffer application task, a buffer corresponding to the buffer application task is used by the computer device when the second task is executed, or when the target task is the buffer release task, a buffer corresponding to the buffer release task is used by the computer device when the first task is executed; and after the first task is executed and before the second is executed, obtaining, by the computer device based on the target task, a buffer entry corresponding to the target task, wherein the buffer entry is an entry comprising a memory size of the buffer corresponding to the target task, a memory location of the buffer, and a memory address of the buffer, and executing the target task to apply for or release the buffer corresponding to the target task.
A bicycle comprising a frame element having at least one recess for receiving at least one region of a power supply device and a power supply device at least partially inserted in the recess and comprising a battery, the frame element being integrally connected to the at least one recess, characterized in that, the frame element together with the at least one recess forms a closed, hollow profile having a U-shaped cross section, and that the power supply device comprises at least two contact elements (54, 56) for electrically connecting to at least two mating contact elements disposed on the frame element, wherein the at least two mating contact elements are provide on at least one longitudinal end of the at least one recess.
Circuitry for an induction element for an aerosol generating device, the induction element being for inductive heating of a susceptor for heating an aerosol generating material in use, the circuitry comprising: a driver arrangement (204, 204') arranged to provide, from an input direct current, an alternating current for driving the induction element in use; wherein the driver arrangement comprises a plurality of transistors (Q1, Q2, Q3, Q4) arranged in a H-bridge configuration: wherein the H-bridge configuration comprises a high side pair of transistors (Q1, Q2) and a low side pair of transistors (Q3, Q4), the high side pair being for connection to a first electric potential higher than a second electric potential to which the low side pair is for connection is use; characterised in that a first transistor of the high side pair (Q1, Q2) is a p-channel field effect transistor, and a second transistor of the low side pair (Q3, Q4) is an n-channel field effect transistor, the second transistor being electrically adjacent to the first transistor, wherein the driver arrangement comprises a first half-bridge device comprising: the first transistor; the second transistor; and a first body in which the first and second transistors are provided. a driver arrangement (204, 204') arranged to provide, from an input direct current, an alternating current for driving the induction element in use; wherein the driver arrangement comprises a plurality of transistors (Q1, Q2, Q3, Q4) arranged in a H-bridge configuration: wherein the H-bridge configuration comprises a high side pair of transistors (Q1, Q2) and a low side pair of transistors (Q3, Q4), the high side pair being for connection to a first electric potential higher than a second electric potential to which the low side pair is for connection is use; characterised in that a first transistor of the high side pair (Q1, Q2) is a p-channel field effect transistor, and a second transistor of the low side pair (Q3, Q4) is an n-channel field effect transistor, the second transistor being electrically adjacent to the first transistor, wherein the driver arrangement comprises a first half-bridge device comprising: the first transistor; the second transistor; and a first body in which the first and second transistors are provided.
A method for providing workflow information associated with processing of tissue specimens in a physical laboratory, the method comprising: capturing workflow data at a physical laboratory station having one or more laboratory devices, the physical laboratory station is comprised in the physical laboratory and is in communication with a workflow server; storing the workflow data in a database which is in communication with the workflow server; displaying a virtual laboratory component representing the physical laboratory, wherein the tissue specimen is processed by the one or more laboratory stations according to the workflow; enabling a first active component associated with the virtual laboratory component, wherein the first active component is configured to receive a user request for workflow information associated with a selected physical laboratory station; processing, based on the user request, the workflow data to generate the workflow information; providing the workflow information to the user through the virtual laboratory component; and enabling a second active component associated with the virtual laboratory component, the second active component being linked to a camera located in the physical laboratory, the camera being configured for providing a real-time video feedback from the physical laboratory. capturing workflow data at a physical laboratory station having one or more laboratory devices, the physical laboratory station is comprised in the physical laboratory and is in communication with a workflow server; storing the workflow data in a database which is in communication with the workflow server; displaying a virtual laboratory component representing the physical laboratory, wherein the tissue specimen is processed by the one or more laboratory stations according to the workflow; enabling a first active component associated with the virtual laboratory component, wherein the first active component is configured to receive a user request for workflow information associated with a selected physical laboratory station; processing, based on the user request, the workflow data to generate the workflow information; providing the workflow information to the user through the virtual laboratory component; and enabling a second active component associated with the virtual laboratory component, the second active component being linked to a camera located in the physical laboratory, the camera being configured for providing a real-time video feedback from the physical laboratory.
A method for producing one or more polynucleotides of interest, the method comprising: obtaining a plurality of RNAs associated with one or more samples, wherein the samples are obtained from one or more subjects, and the RNAs associated with a sample are present in a separate reaction volume; generating an adapter molecule using an enzymatic reaction in the reaction volume in which the RNAs to which the adapter molecule is added are present, and adding the adapter molecule to the RNAs associated with the sample, wherein the adapter molecule comprises a universal priming sequence, a barcode sequence, and a binding site; wherein the adapter molecule is an RNA molecule generated by contacting a template molecule with one or more enzymes and the template molecule is a dsDNA molecule comprising an RNA polymerase (RNAP) promoter, and the one or more enzymes include an RNA polymerase, optionally selected from the group consisting of T7, T3, and SP6; and reverse-transcribing the RNAs associated with the sample to obtain a plurality of cDNAs, wherein reverse-transcribing an RNA comprises synthesizing a first strand of cDNA using a reverse-transcriptase and a first-strand primer, wherein reverse-transcribing the RNAs associated with the sample occurs in the same reaction volume where the adapter molecule added to the RNAs is generated and incorporates the adapter sequence into the first strand cDNA, thereby producing the one or more polynucleotides of interest. obtaining a plurality of RNAs associated with one or more samples, wherein the samples are obtained from one or more subjects, and the RNAs associated with a sample are present in a separate reaction volume; the samples are obtained from one or more subjects, and the RNAs associated with a sample are present in a separate reaction volume; generating an adapter molecule using an enzymatic reaction in the reaction volume in which the RNAs to which the adapter molecule is added are present, and adding the adapter molecule to the RNAs associated with the sample, wherein the adapter molecule comprises a universal priming sequence, a barcode sequence, and a binding site; wherein the adapter molecule is an RNA molecule generated by contacting a template molecule with one or more enzymes and the template molecule is a dsDNA molecule comprising an RNA polymerase (RNAP) promoter, and the one or more enzymes include an RNA polymerase, optionally selected from the group consisting of T7, T3, and SP6; and reverse-transcribing the RNAs associated with the sample to obtain a plurality of cDNAs, wherein reverse-transcribing an RNA comprises synthesizing a first strand of cDNA using a reverse-transcriptase and a first-strand primer, wherein reverse-transcribing the RNAs associated with the sample occurs in the same reaction volume where the adapter molecule added to the RNAs is generated and incorporates the adapter sequence into the first strand cDNA, thereby producing the one or more polynucleotides of interest.
Friction clutch having an actuating apparatus (4, 5), the friction clutch having a pressure plate (12, 13, 200, 201), a counterpressure plate (10, 201) and a clutch cover (8, 11, 104), it being possible for a clutch plate (18, 19) to be received between the pressure plate (12, 13) and the counterpressure plate, the pressure plate (12, 13, 200, 201) being of annular configuration, the actuating apparatus (4, 5) having a ramp apparatus (16, 17, 109, 203, 352) between the pressure plate (12, 13, 200, 201) and the clutch cover (8, 11), for the axial movement of the pressure plate (12, 13, 200, 201), and the actuating apparatus (4, 5) having, furthermore, an actuator (4, 5, 102, 250, 300, 301, 302, 500, 501, 502, 503, 550, 600) for rotating the pressure plate (12, 13, 200, 201) in the circumferential direction with respect to the clutch cover (8, 11, 104), characterized in that the clutch cover (8, 11, 104) has a carrying element (24, 25, 113, 526), with the result that the actuator (4, 5, 102, 250, 300, 301, 302, 500, 501, 502, 503, 550, 600) is supported radially on the inside or outside on the carrying element (24, 25, 113, 526) and is supported radially on the outside or inside on the pressure plate (12, 13, 200, 201).
A rail vehicle carriage comprising an undercarriage comprising at least one longitudinal member extending in the longitudinal direction of the vehicle; at least two brackets attached to the longitudinal member; and at least one cable duct, characterised in that the at least one cable duct runs along the longitudinal member, the cable duct having a cable duct body attached to the brackets and a cover, the cover of the cable duct facing the outside of the rail vehicle and closing the cable duct laterally. an undercarriage comprising at least one longitudinal member extending in the longitudinal direction of the vehicle; at least two brackets attached to the longitudinal member; and at least one cable duct, characterised in that the at least one cable duct runs along the longitudinal member, the cable duct having a cable duct body attached to the brackets and a cover, the cover of the cable duct facing the outside of the rail vehicle and closing the cable duct laterally.
A cartridge for analysis of a sample, comprising: a swab; a receptacle in the cartridge for holding the swab; another receptacle in the cartridge for receiving a sample vessel for holding blood or urine; an antimicrobial; a microorganism growth medium; and at least one reagent selected from a metabolic indicator, a reagent for a nucleic acid amplification reaction, and a reagent for a nucleic acid probe-based assay. a swab; a receptacle in the cartridge for holding the swab; another receptacle in the cartridge for receiving a sample vessel for holding blood or urine; an antimicrobial; a microorganism growth medium; and at least one reagent selected from a metabolic indicator, a reagent for a nucleic acid amplification reaction, and a reagent for a nucleic acid probe-based assay.
An imaging device for imaging a target, the imaging device comprising a Scheimpflug imaging system and an Optical Coherence Tomography, OCT, imaging system, where the Scheimpflug imaging system comprises a camera and a lens system, and the OCT imaging system comprises an imaging optical element and a detector, wherein the imaging device further comprises a light source adapted to provide a light beam suitable for operation of the Scheimpflug imaging system and the OCT imaging system; and the lens system of the Scheimpflug imaging system is configured to provide an adjustable focal length. wherein the imaging device further comprises a light source adapted to provide a light beam suitable for operation of the Scheimpflug imaging system and the OCT imaging system; and the lens system of the Scheimpflug imaging system is configured to provide an adjustable focal length.
Closing device for a door or hatch, in particular of a vehicle, with a cylinder lock which has a cylinder liner and a cylinder core mounted rotatably in the cylinder liner, with a bearing bracket which is fastenable or is fastened to the door or hatch and has a receptacle for the cylinder lock, and with a screw which produces a mechanical connection of the cylinder liner to a covering element of the closing device for the door or hatch, wherein a bracket element which engages radially at least in regions around the cylinder liner is provided, said bracket element being arranged in a displaceably mounted manner on the bearing bracket and having at least one engagement means for engaging in a recess of the cylinder liner, characterized in that the screw interacts with one of at least two threaded bores of the bracket element for displacement of the latter, wherein the cylinder liner has, assigned to each of the threaded bores, a respective radial depression which forms a pressure surface, wherein the end of the screw facing the cylinder liner has a pressure tip which, when introduced into the respective radial depression, interacts with the pressure surface for supporting the screw axially and radially.